ASSESSMENT OF THE EFFECT OF NON- TECHNICAL SKILLS …
Transcript of ASSESSMENT OF THE EFFECT OF NON- TECHNICAL SKILLS …
Arab Academy for Science, Technology and Maritime Transport (AASTMT).
Maritime Postgraduate Studies Institute (MPI)
ASSESSMENT OF THE EFFECT OF NON-
TECHNICAL SKILLS COURSES ON MARINE
OFFICERS’ PERFORMANCE
Submitted to
Maritime Post Graduate Studies Institute (MPI)
For the fulfillment the requirements of Doctorate degree.
Maritime Transport Technology
“Maritime Education and Training”
Prepared by
Hesham Mahmoud Ahmed Helal
Supervised by:
Prof. Dr. Saad Mesbah Abdelrahman
College of Maritime Transport and
Technology
Arab Academy for Science, Technology &
Maritime Transport
Prof. Dr. Mohamed Al-Said Abdelkader
College of Maritime Transport and
Technology
Arab Academy for Science, Technology &
Maritime Transport
2020
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Declarations
I certify that all the material in this thesis that is not my own work has been
identified, and that no material is included for which a degree has previously been
conferred on me.
The contents of this thesis reflect my own personal views, and are not necessarily
endorsed by the University.
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DEDICATIONS
This work is dedicated in gratitude to my father’s soul and to my mother.
To my wife Hala, for her understanding, encouragement, support, and love.
To our son Mohamed and our daughters, Mennat Allah and Merna, for they are our source
of happiness
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ACKNOWLEDGEMENT
First of all, I thank God Almighty for providing me with commitment, strength, patience and
good health to complete my study successfully.
I gratefully acknowledge the help and cooperation of many people and organizations without
whom this dissertation could not have been completed. In particular, profound gratitude and
thanks are extended to Prof. Dr. Saad Mesbah and Prof. Dr. Said Abd Elkader for their
invaluable support, encouragement, supervision and constructive suggestions throughout
this research. They have guided me through the research and helped me tremendously during
the writing of my dissertation. Without their continuous support as my advisors, this whole
process would not have come to fruition. I am very grateful for their support.
Great thanks goes to all those at AASTMT, especially at Maritime Postgraduate Studies
Institute, College of Maritime Transport and Technology (Simulator Department) and
Complex Simulator Center for allowing me to work with them and for their support and
help in getting the required data for this research. In addition, I would like to thank the other
faculty members who have helped me through the doctoral process.
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ABSTRACT
Modern shipping is an international, multicultural and technological industry with strong
demands on efficiency and economic profitability. This is reflected in ship crews, often
multinational, with a large number of seafarers coming from different countries. Despite
that, it is frequently mentioned that the human factor is the main cause of 80% of all sea
accidents.
Nevertheless, human error theoretical and practical approaches to error analysis and
management have been developed largely in other industries such as nuclear power and
chemical industries. In these industries, the effects of human errors have already led to many
tragic incidents and accidents. This has resulted in a great deal of knowledge on issues such
as the kind of errors made, how and why they occur. As well as how can they be prevented
and averted.
Moreover, the maritime industry has seen an increase in the adoption of team training as
stated in STCW amendments at Manila 2010, such as Bridge Resource Management (BRM)
and Engine-room Resource Management (ERM), to improve teamwork and coordination
among marine officers.
Non-technical skills (NTS) encompasses both social and cognitive skills such as situational
awareness, teamwork, decision-making, leadership, managerial skills, and communication.
In a crisis situation, good NTS allows the marine officers to recognize a problem quickly
and manage the situation and team safely and effectively. As a result, the evaluation and
grading of marine officers’ NTS is necessary to assure safety at sea. Many high-risk
industries such as medicine, nuclear power plants and civil aviation have established
behavioral marker systems that provide a mechanism for monitoring and evaluating NTS of
operators. However, there is no system currently available to assess the NTS of captains and
Deck and Engineer Officer of the Watch (DEOW). In addition, it is anticipated that
continuing research will validate the effectiveness of the behavioral markers.
This thesis used the survey instrument which had been developed through the literature
review, with reference to studies done before. Also, it used a methodology in constructing
the questionnaire and procedures used for data collection. The percentages of respondents
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selecting each of the response alternatives for each question in the questionnaire are
provided. Means, standard deviations, and medians are reported for those questions that
required numerical entries. Evaluation of the impact and effectiveness of NTS courses is
necessary so that strengths and weaknesses can be identified and improvements made.
Kirkpatrick’s model stresses evaluation on the levels of reaction, learning, behavior, and
results had been used.
Accordingly, data were analyzed using three statistical tests and the level of significance was
set at 0.05. Paired T-test was used to detect the existence of differences in perceptions of
NTS effectiveness, among the five variables indicated above. Pearson’s correlation was
employed to investigate if significant correlations existed among these variables. In addition,
validation for the results had been carried out by using Importance-Performance Analysis
model. In summary, the findings support the premise that NTS training courses can
positively impact teamwork in maritime safety and provide estimates of the expected effects
of training.
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Contents
Declarations .......................................................................................................................... iii
Dedications ............................................................................................................................ iv
Acknowledgment ................................................................................................................... v
Abstract ................................................................................................................................. vi
Contents .............................................................................................................................. viii
List of Tables ....................................................................................................................... xii
List of Figures ...................................................................................................................... xv
List of Abbreviation .......................................................................................................... xvii
Chapter one: Research Theoretical Framework ............................................................... 1
1.1 Introduction .............................................................................................................. 2
1.2 Statement of the Problem ......................................................................................... 6
1.3 Research Aim and Objectives .................................................................................. 7
1.4 Study Variables ........................................................................................................ 8
1.5 Methodology ............................................................................................................ 9
1.6 Research Hypotheses ............................................................................................. 10
1.7 Structure of the thesis ............................................................................................. 11
Chapter Two: Literature Review ..................................................................................... 12
2.1 Introduction ............................................................................................................ 13
2.2 Causes of Marine Accidents .................................................................................. 14
2.3 Non-Technical Skills ............................................................................................. 16
2.3.1 Cognitive skills ....................................................................................................... 20
2.3.1.1 Situational Awareness ......................................................................................... 20
2.3.1.2 Problem Solving and Decision Making ............................................................... 21
2.3.1.3 Managing Stress (MS) ......................................................................................... 22
2.3.1.4 Deal with fatigue ................................................................................................. 23
2.3.1.5 Vigilance.............................................................................................................. 24
2.3.1.6 Judgment.............................................................................................................. 25
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2.3.2 Social skills ............................................................................................................. 27
2.3.2.1 Communication ................................................................................................... 27
2.3.2.2 Eamwork.............................................................................................................. 28
2.3.2.3 Leadership ........................................................................................................... 29
2.3.2.4 Co-operation ........................................................................................................ 30
2.3.2.5 Management skills ............................................................................................... 31
2.3.2.6 Ask management ................................................................................................. 32
2.3.2.7 Workload management ........................................................................................ 33
2.4 Available models to assess NTS courses ............................................................... 34
2.4.1. Kirkpatrick Model ................................................................................................. 35
2.4.2. Hamblen model ..................................................................................................... 36
2.4.3. The Organizational Elements Model (OEM) ........................................................ 36
2.4.4. The KPMT model .................................................................................................. 36
2.5 Chapter summary ................................................................................................... 43
Chapter Three: Research Design and Methodology ....................................................... 45
3.1 Overview ................................................................................................................ 46
3.2 Questionnaire Design and Development ............................................................... 46
3.3 Population and Sample size ................................................................................... 49
3.4 Data Collection ...................................................................................................... 50
3.5 Methods of Data Analysis ...................................................................................... 51
3.6 Research Hypotheses Testing ................................................................................ 55
3.7 Importance-Performance Analysis ......................................................................... 57
3.8 Chapter Summary .................................................................................................. 60
Chapter Four: Analysis, Results and Discussions ........................................................... 61
4.1 Overview ................................................................................................................ 62
4.2 Demographic statistics ........................................................................................... 62
4.3 Descriptive Analysis .............................................................................................. 66
4.3.1 Effective communication .................................................................................. 67
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4.3.1.1 Descriptive analysis for trainees’ data ............................................................ 67
4.3.1.2 Descriptive analysis for organizations’ data ................................................... 69
4.3.2 Leadership and cooperation .............................................................................. 71
4.3.2.1 Descriptive analysis for trainees’ data ............................................................ 71
4.3.2.2 Descriptive analysis for organizations’ data ................................................... 73
4.3.3 Situational awareness ......................................................................................... 76
4.3.3.1 Descriptive analysis for trainees’ data ............................................................ 76
4.3.3.2 Descriptive analysis for organizations’ data ................................................... 78
4.3.4 Workload management ........................................................................................... 80
4.3.4.1 Descriptive analysis for trainees’ data ................................................................. 80
4.3.4.2 Descriptive analysis for organizations’ data ........................................................ 82
4.3.5 Decision-making..................................................................................................... 84
4.3.5.1 Descriptive analysis for trainees’ data ................................................................. 84
4.3.5.2 Descriptive analysis for organizations’ data ........................................................ 86
4.3.6 Course Overall satisfaction..................................................................................... 88
4.3.7 Summary of descriptive statistics for the adopted variables in the questionnaire .. 89
4.4 Data Reliability Testing ............................................................................................. 90
4.5 The Hypothesis Testing ............................................................................................. 91
4.5.1 Testing hypotheses associated with trainees responses’ data ................................. 91
4.5.1.1 Correlation analysis between the study variables for trainees ............................. 91
4.5.1.2 Testing the impact of the study variables on trainees satisfaction for NTS courses ................................................................................................................................ 92
4.5.2 Testing hypothesis associated with organization responses’ data .......................... 98
4.5.2.1 Correlation analysis between the study variables for organization ..................... 98
4.5.2.2 Testing the impact of the study variables on organization satisfaction for NTS courses .................................................................................................................... 99
4.5.3 Testing the mean difference between trainees and organizations’ evaluation ..... 105
4.6 Importance-Performance Analysis .......................................................................... 106
4.7 Discussion................................................................................................................ 109
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4.8 Chapter summary..................................................................................................... 111
Chapter Five: Summary, Conclusion and Recommendations ..................................... 112
5.1 Summary .............................................................................................................. 113
5.2 Conclusion ........................................................................................................... 117
5.3 Research Recommendations ................................................................................ 118
5.4 Future Research ................................................................................................... 119
References ......................................................................................................................... 120
Appendix A: AASTMT’ Course details for BRM and ERM Courses ........................ 134
Appendix B: Different models used for assessment of training courses ..................... 138
Appendix C: Questionnaire ............................................................................................. 145
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List of Tables
Table (2-1) Specification of minimum standards of competence for officers in
charge of a navigational watch on ships of 500 gross tonnage or more.
Function: Navigation at the operational level (Table A-II/1) .............. 17
Table (2-2) Models for training courses’ evaluation .............................................. 35
Table (3-1) Sources of the questionnaire’s statements ........................................... 47
Table (3-2) The range of 5-point Likert scale and its scale evaluation .................. 49
Table (3-3) Strength scale of correlation ................................................................ 54
Table (4-1) Frequency summary of demographic data for trainees ....................... 63
Table (4-2) Respondents according to course type data (Trainees and
corresponding organization) ................................................................ 64
Table (4-3) Trainees’ data according to age classification ..................................... 65
Table (4-4) Trainees’ data according to the experience period .............................. 66
Table (4-5) Mean, Standard Deviation and Frequency for effective
communication statements (Trainee)................................................... 68
Table (4-6) Mean, Std. Deviation and Frequency for effective communcation
(Organization) ...................................................................................... 70
Table (4-7) Mean, Std. Deviation and Frequency for leadership and cooperation
(Trainee) .............................................................................................. 73
Table (4-8) Mean, Std. Deviation and Frequency for leadership and cooperation
(Organization) ...................................................................................... 75
Table (4-9) Mean, Std. Deviation and Frequency for situational awareness
(Trainee) .............................................................................................. 77
Table (4-10) Mean, Std. Deviation and Frequency for situational awareness
(Organization) ...................................................................................... 79
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Table (4-11) Mean, Std. Deviation and Frequency for workload management
(Trainee) .............................................................................................. 81
Table (4-12) Mean, Std. Deviation and Frequency for workload management
(Organization) ...................................................................................... 83
Table (4-13) Mean, Std. Deviation and Frequency for decision making (Trainee) . 85
Table (4-14) Mean, Std. Deviation and Frequency for decision making
(Organization) ...................................................................................... 87
Table (4-15) Summary statistics of all the independent variables from the two
points of view (trainees and organizations) ......................................... 89
Table (4-16) Reliability Statistics and value of Cronbach’s Alpha .......................... 91
Table (4-17) Correlation between the five main variables (Trainees) ...................... 92
Table (4-18) Simple Regression test for the impact of “effective communication”
(Trainees) ............................................................................................. 93
Table (4-19) Simple Regression test for the impact of “leadership and
cooperation” (Trainees) ....................................................................... 93
Table (4-20) Simple Regression test for the impact of “situational awareness”
(Trainees) ............................................................................................. 94
Table (4-21) Simple Regression test for the impact of “workload management”
(Trainees) ............................................................................................. 95
Table (4-22) Simple Regression test for the impact of “decision-making”
(Trainees) ............................................................................................. 96
Table (4-23) Normality test for variables under study for Trainees ......................... 96
Table (4-24) Multiple regression test for the five variables (Trainees) .................... 97
Table (4-25) Stepwise Regression test for the five variables (Trainees) .................. 98
Table (4-26) Correlation between the five main variables (Organizations) ............. 99
Table (4-27) Simple Regression test for the impact of “effective communication”
(Organization) ...................................................................................... 99
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Table (4-28) Simple Regression test for the impact of “leadership and
cooperation” (Organization) ................................................................ 100
Table (4-29) Simple Regression test for the impact of “situational awareness”
(Organization) ...................................................................................... 101
Table (4-30) Simple Regression test for the impact of “workload management”
(Organization) ...................................................................................... 102
Table (4-31) Simple Regression test for the impact of “decision-making”
(Organization) ...................................................................................... 102
Table (4-32) Normality test for variables under study for Organization .................. 103
Table (4-33) Multiple regression test for the five variables (organizations) ............ 104
Table (4-34) Stepwise Regression test for the five variables (organizations) .......... 104
Table (4-35) The mean difference between trainees and organizations’ satisfaction
............................................................................................................. 105
Table (4-36) Paired Samples Test............................................................................. 105
Table (4-37) Importance-Performance Mean values for abatements ....................... 106
Table (4-38) Importance-Performance Mean values for variables ........................... 108
Table (5-1) Research objectives, questions and methodology ............................... 114
Table (B-1) Different models used for assessment of training courses .................. 138
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List of Figures
Figure (1-1) Conceptual framework for dependent and independent variables of
the study .............................................................................................. 8
Figure (2-1) Swiss cheese model describing organizational model of human error 15
Figure (2-2) NTS categorization and its dimensions ............................................... 19
Figure (3-1) Research hypotheses and variables ..................................................... 55
Figure (3-2) Importance-Performance Matrix ......................................................... 58
Figure (4-1) Frequency and percent of respondents according to course type
(BRM and ERM) ................................................................................. 64
Figure (4-2) Trainees’ data according to age classification ..................................... 65
Figure (4-3) Trainees’ data according to years of experience classification ........... 66
Figure (4-4) The frequency percent of the “Effective Communication” for trainees
............................................................................................................. 67
Figure (4-5) The frequency percent of the “Effective Communication” for
organization ......................................................................................... 69
Figure (4-6) Comparison of results for the Effective Communication variable
from trainees and organization point of view ...................................... 71
Figure (4-7) The frequency of the “leadership and cooperation” for trainees ......... 72
Figure (4-8) The frequency of the “Leadership and cooperation” for organization 74
Figure (4-9) Comparison of results for the leadership and cooperation variable
from trainees and organizations pint of view ...................................... 76
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Figure (4-10) The frequency of the situational awareness for trainees ..................... 77
Figure (4-11) The frequency of the “Situational awareness” for organization .......... 78
Figure (4-12) Comparison of results for the “Situational Awareness” variable from
trainees and organizations point of view ............................................. 80
Figure (4-13) The frequency of the workload management for trainees ................... 81
Figure (4-14) The frequency of the workload management for organization ........... 82
Figure (4-15) Comparison of results for the workload management variable from
trainees and organizations point of view ............................................. 84
Figure (4-16) The frequency of the decision making for trainees ............................. 85
Figure (4-17) The frequency of the decision making for organization ...................... 87
Figure (4-18) Comparison of results for the decision making variable from trainees
and organizations point of view .......................................................... 88
Figure (4-19) The frequency of the overall course satisfaction
(Trainee/Organization) ........................................................................ 89
Figure (4-20) Importance-Performance Analysis for statements’ number ................ 107
Figure (4-21) Importance-Performance Analysis for variables ................................. 108
Figure (4-22)
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LIST OF ABBREVIATIONS
AAC&U : Association of American Colleges and Universities
AASTMT : Arab Academy for Science, Technology, and Maritime transport
ABS : American Bureau of Shipping
APA : American Psychological Association
BRM : Bridge Resource Management
CMTT : College of Maritime Transport and Technology
CRM : Crew Resource Management
DEOW : Deck and Engineer Officers of the Watch
DM : Decision Making
ERM : Engine-room Resource Management
HROs : High Reliability Organizations
ICTs : Information and Communication Technologies
IMO : International Maritime Organization
KPMT : Kearns, Paul and Miller, Tony
MARPOL : Maritime Pollution
MCS : Maritime Complex Simulator
MLC : Maritime Labor Convention
MONTSQ : Marine Officers’ Non-Technical Skills Questionnaire
MS : Managing Stress
NASA : National Aeronautics and Space Administration
NTS : Non-Technical Skills
P & I : Protection and Indemnity
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QGRCLT : Questionnaire of Group Responsibility and Cooperation in
Learning Teams
SA : Situational Awareness
SMEs : Small and Medium sized Enterprises
SOLAS : Safety Of Life At Sea
SOP : Standard Operating Procedures
SPSS : Statistical Package for the Social Sciences
STCW : Standard of Training, Certification and Watch-keeping
TPOs : Thesis Performance Objectives
TS : Technical Skills
Chapter One
Theoretical Framework
1.1 Introduction
1.2 Statement of the Problem
1.3 Research Aim and Objectives
1.4 Study Variables
1.5 Methodology
1.6 Research Hypotheses
1.7 Structure of the Thesis
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Chapter One: Theoretical Framework
1.1 Introduction
Shipping is one of the world's major global industries and its importance comes from the
fact that more than 90% of world trade is shipped by sea (IMO, 2018). That is because
shipping is the most efficient, safe and environmentally friendly way to transport goods.
Moreover, maritime industry encompasses more than 50 professions such as; shipping,
agencies, ship chandlers, and crewing agencies, to list a few, and it depends mainly on three
elements; ports, ships, and humans.
The maritime industry is organized through a group of international instruments, such as
Conventions, Resolutions, Decrees, and Codes, that give great care for the three maritime
industry elements. Nevertheless, the International Maritime Organization (IMO) proved
statistically that more than 80% of the marine casualties occur because of human errors,
which gives more emphasis to the importance of human element engaged on jobs either at
ports or onboard ships. More recently, there have been general concerns among maritime
stakeholders that human error is the most contributing factor in causing accidents (IMO,
2018).
Reviewing USA, UK, Canada and Australian accident databases clarifies that human error
continues to be the dominant factor in maritime accidents and amounts to some 70% of
recorded incidents. More specifically lack of non-technical skills, such as situational
assessment and awareness are even more dominant (ABS, 2004).
In contrast, shipping losses decreased by 16% in 2017 compared to 2016 (Allianz, 2018).
The preliminary figures for year 2017 have contributed to show a marked improvement in
the average loss in 10 years (29% down). Large shipping losses have also fallen by 50% over
the past decade, driven by the improved regulation and the development of robust safety
culture. Bearing in mind that there are still variations by region and type of vessel, the recent
downturn in the shipping economy could also be a factor in the volume of loss. Statistics
showed that more than a quarter of the losses in 2016 occurred in southern China, India,
China, Indonesia and the Philippines, which has maximum loss for ten years. While losses
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in this region remain stable on an annualized basis, the total is still twice as high as the next
high loss zone, the Eastern Mediterranean and the Black Sea (Allianz, 2018).
It is also widely acknowledged that human error is a generic term that encompasses a variety
of unsafe acts, neglect, unsafe behavior and circumstances or a combination of these. The
term also refers to the different behavior of individuals’ onboard ships. A quick review of
Protection and Indemnity (P & I) Clubs reports and bulletins show that this generic term
represents more than half of claims and accidents (Safahani, 2015).
There are many reasons contributing to marine accidents, incidents and errors, most of which
result from a variety of factors ranging from pure technical failure to environmental,
systemic, procedural, competitive and behavioral factors. One of the factors that constantly
contribute to almost all accidents, incidents and errors is the human element, i.e. the ability
of people to deal effectively and safely with the complexity, difficulty, stress and workload
of their daily tasks, not only in emergencies but also during routine operations (Human
Element Guidance - Part 2, 2016).
The majority of these accidents, incidents and errors can be avoided if people's
understanding, actions and behavior are improved. This applies not only to seafarers onboard
ships but also to people at all levels and positions within the broader maritime industry in
general, including ship-owners, operators, managers and other maritime and marine industry
leaders.
Although shipping is the safest form of commercial transport, the sea is considered a
dangerous work environment (IMO, 2018). This has been demonstrated by several
researchers. For example, a study of deaths on British registered vessels showed that, the
mortality rate was 13-28 times higher than the UK general labor force mortality rate between
1976 and 2002 (Bhattacharya, 2013).
Captains and DEOW are required to possess two sets of skills: Technical Skills (TS), and
Non-Technical Skills (NTS), or behavioral performance. According to Riem, et al. (2012)
TS have been defined as "the adequacy of actions taken from a technical perspective", and
NTS have been defined as "decision making processes and team interaction used during team
management of the situation." Both skills are essential for maritime safety operations
onboard ships and the preservation of the marine environment.
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The term "non-technical skills" was discussed initially in the aviation industry in the 1960s
and 1970s as part of the investigation of aircraft accidents and other accidents. In the 1970s,
NTS in air navigation were also considered when National Aeronautics and Space
Administration (NASA) conducted interviews to their pilots and gave them specific tasks on
the flight simulator. As a result, it has been proven that NTS combined with technical skills
are an important part of decision-making, communication and teamwork (Nura & Osman,
2012).
Other areas of work associated with increased risk and safety, such as nuclear, and military
industries, continued to explore the value of NTS. In each of these areas of work, it is
important to identify the most valuable NTS for a specific occupation and how to develop
this set of skills during early studies and at all levels of education.
Over the past decades the maritime industry has seen some rewarding results from the
adoption of the Crew Resource Management (CRM) framework and the use of simulators in
training of bridge and engine room officers. However, there is uncertainty among maritime
professionals about the effectiveness of such training in raising the performance and
improving maritime safety (Barnett, et al, 2006). As for the educational aspects, the situation
is more problematic because, among the requirements for the development of technical
skills, there is a need to build up and evaluate the non-technical skills of officers with little
experience in managing the bridge and engine room teams (Bué, et al, 2015). More recently,
there has been a general perception among maritime institutes that the complexity of training
requires a new approach to the development and evaluation of non-technical skills.
Interpretation of NTS in modern maritime treaties required a new approach. It was important
to understand not only the nature of these skills, but also to find out how to develop them.
These issues are linked to the integration of new knowledge and skills, innovations in the
shipping industry, in the human element, and the achievement of competency training during
studies (Nura & Osman, 2012). It is very important to ever establish a balance between
acquiring knowledge to perform some practical activities and learning to think and evaluate
actual situations.
The acquisition of specific information and the ability to put it into practice is the
fundamental basis for the realization of the modern professional quality of education.
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However, the way it is done so far, as well as the development of personal self and the use
of self-experience, has not yet been given much attention. Quality assurance for the
acquisition of officers coming in charge of the navigational watch competencies during the
study process can be seen as a targeted system, which necessitates to plan and manage the
study process and, accordingly, to inforce quality control of everything (Žogla, 2001).
Thus, it is likely that the new DEOW may not understand the following concepts: Learning
as a meaningful process of cognition and learning as a process to develop specific knowledge
and skills. If trainees acquire appropriate learning techniques, the study process would affect
not only their mental and emotional development, as well as it helps them learn better social
skills and increase self-esteem. It is true that in some cases, it is important for the DEOW to
learn the details of facts, formulas, or other information. Nevertheless, this cannot become a
dominant course, because it discourages any analytical assessment of the specific
information and the search for causes and consequences. It does not allow analysis,
synthesis, comparison or evaluation to link past experiences to any new information and thus
creating new knowledge. The association of NTS and technical know-how is very positive,
as is the case for the individual's social skills as well as a set of skills in a whole team
compared to his level of technical knowledge and individual skills (Brunckhorst, et al, 2015).
So, it is necessary to compare the ship captain and the DEOW non-technical navigational
skills in order to identify topics that need to be improved.
Furthermore, NTS are a set of cognitive and social human skills that are combined and used
together with technical skills. NTS are shown during routine and non-standard procedures.
Accident and routine analysis helps assess how NTS affect the work environment and
people.
Training programs that focus on NTS, such as leadership or situational awareness, to prevent
human errors and industrial accidents are important to develop these skills. With reference
to the evaluation of training, almost all experts indicated that NTS training could be
evaluated at the four levels of the “Kirkpatrick’s evaluation model”, which can be applied
before, during and after training to demonstrate the value of training to the organization. The
four levels are; (i) Reaction: To what extent participants interact positively with the learning
event, (ii) Learning: To what degree participants acquire the knowledge, skills and attitudes
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that are intended based on their participation in the learning event, (iii) Behaviour: To what
degree do participants apply what they learned during training when they return to work?,
and (iv) Results: The degree to which the targeted outcomes result from the training, support
package and accountability (Schuermann & Gohl, 2016).
1.2 Statement of the Problem
Technical improvements in ships’ design and other systems have reduced the chances of
mechanical failures at sea that may be severed enough to cause major accidents. In addition,
the upgrading studies, which are required for all ranks of DEOW, raised their technical skills,
aside with the experience gained during their contracts onboard ships. As a result, the
majority of marine accidents, such as groundings, collisions and others, are attributed to
human errors. Human errors could occur as a result of two sets of skills: both TS – which
DEOW gained them as explained earlier - and NTS, or behavioral performance.
Interpretation of NTS in modern pedagogy requires a new approach. It is important to
understand not only the nature of these skills, but also to find out how to assess them. These
problems are linked to the integration of new knowledge and skills, innovations in education
in the field of humanitarian cooperation and the achievement of competency training during
study.
There is a scarcity of studies that assess the effectiveness of NTS in the maritime education,
especially the courses dealing with Bridge Resource Management (BRM), Engine-room
Resource Management (ERM) and Leadership. Moreover, usually each course may be
delivered by maritime academies and institutes in an inadequate time span that is not enough
to improve the behavioral performance within this short time.
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1.3 Research Aim and Objectives
The aim of this study was inspired from the fact that the training of DEOW has traditionally
focused on the development of individual technical skills rather than on non-technical skills
such as communication, situational awareness, team management, leadership, Decision
Making and management skills that are all crucial for safe operations. Furthermore, in the
draft amendments to part B (page 54) under evaluation of competence, Standard of Training,
Certification and Watch-keeping (STCW) convention states:
“The criteria for evaluating competence (column 4 of table A-II/1) identify, primarily in
outcome terms, the essential aspects of competent performance. They are expressed so that
assessment of a candidate’s performance can be made against them and should be
adequately documented in the training record book”
Moreover, it is noted from STCW amendments Manila 2010 that efficiency in BRM and
ERM may be evidenced through the approval of on-the-job experience. If there is ambiguity
about how competencies are evaluated, these evidence may not be strong. Also, who will
implement the approval? How clear and consistent are they with respect to evaluation
criteria?
Thus, the aim is to assess the trainees’ satisfaction who attended the NTS courses and their
corresponding organizations.
From the aim, it is possible to digress to the objectives as follows:
1. To identify the relevant marine officers NTS linked to the marine accidents
2. To investigate how development of NTS skills could contribute to the effectiveness
of shipping operations and enhancement of safety onboard ships.
3. To provide a framework for evaluating the NTS of DEOW
4. To develop an assessment system, which serves to improve trainees' performance
through training programs using the framework to be developed herein.
5. To enable the marine industry to assess the performance of the deck and engine room
teams and to improve selection, training and promotion processes and procedures for
DEOW.
8
1.4 Study Variables
For the purpose of this study to determine the satisfaction of NTS courses, dependent and
independent variables were considered as per STCW 1978/2010 amendments. Figure (1.1)
illustrates respondents' satisfaction as a dependent variable that is affected by five
independent variables. The adopted independent variables are; effective communication,
leadership and cooperation, situational awareness, workload management and decision
making.
Figure (1-1): Conceptual framework for dependent and independent variables of the study
Effective
communication
Leadership and
cooperation
Situational
awareness
Workload
management
Independent variables
Dependent variable
Decision
making
Sat
isfa
ctio
n o
f re
sponden
ts
9
The formula used for obtaining the relation between dependent and independent variable is
as follows:
S = f (C, L, A, W, D)
Where: S: Respondents' satisfaction
C: Effective Communication
L: Leadership and Cooperation
A: Situational Awareness
W: Workload Management
D: Decision Making
1.5 Methodology
Respondents to the questionnaire are the marine officers who were enrolled in NTS courses
and their associated managers. The marine officers are two groups BRM and ERM.
AASTMT delivered both ERM and BRM courses according to the IMO model course in 5-
days at the Complex Simulator Center (CSC) center for the BRM, while the ERM course at
the College of Maritime Transport and Technology (CMTT). The course are divided to three
days for lectures, and two days for simulator training. Details for both BRM and ERM
courses can be found in appendix A.
All data analysis were computed by the SPSS program and examined for statistical
significance. The analysis of the data involved selected descriptive and inferential statistics’
tools. The paired-samples t-tests were utilized to determine the difference between the means
of the sets of data. Means and standard deviations were computed. T-test and regression
analysis were applied to test the hypotheses. The Importance Performance Analysis (IPA)
model was also applied to assess marine officers’ perceptions of important organization
value proposition attributes.
10
1.6 Research Hypotheses
In connection with the research objectives, ten research hypotheses were constructed (five
of them were directed to the Trainees and another similar five hypothesis to their associated
organizations) as follows:
First Hypothesis (Trainees) H1T: Effective communication has a significant impact on the
satisfaction of trainees for the NTS course.
Second Hypothesis (Trainees) H2T: Leadership and cooperation has a significant impact
on the satisfaction of trainees for the NTS course.
Third Hypothesis (Trainees) H3T: Situational awareness has a significant impact on the
satisfaction of trainees for the NTS course.
Fourth Hypothesis (Trainees) H4T: Workload management has a significant impact on the
satisfaction of trainees for the NTS course.
Fifth Hypothesis (Trainees) H5T: Decision-making has a significant impact on the
satisfaction of trainees for the NTS course.
Other five similar hypotheses were carried out for organization:
First Hypothesis (Organizations) H1O: Effective communication has a significant impact
on the satisfaction of Organizations for the NTS course.
Second Hypothesis (Organization) H2O: Leadership and cooperation has a significant
impact on the satisfaction of Organizations for the NTS course.
Third Hypothesis (Organization) H3O: Situational awareness has a significant impact on
the satisfaction of Organizations for the NTS course.
Fourth Hypothesis (Organization) H4O: Workload management has a significant impact
on the satisfaction of Organizations for the NTS course.
Fifth Hypothesis (Organization) H5O: Decision-making has a significant impact on the
satisfaction of Organizations for the NTS course.
11
1.7 Structure of the thesis
The thesis is an assemblage of five chapters. Chapter one provides a brief background,
motives, aim and objectives of the research. It also furnishes a statement confirming the
problem encountered, accompanied with the hypothesis and a pile of questions to be
answered within the thesis. It ends with the structure of the thesis.
Chapter two reviews the relevant literature on the current field of study. It includes accidents
caused by human error and the importance of NTS in the marine industry and most important
safety industries. A detailed review of NTS key knowledge (awareness of status and
decision-making) and social (leadership and teamwork) is presented that provides the basis
for the current research.
Chapter three summarizes the comprehensive research methodology based on the
questionnaire targeting experienced DEOW to measure the effectiveness of the training
courses and to provide behavioral signs of teamwork, leadership, managerial and decision-
making skills. In addition, evaluation models have been reviewed to identify the suitable
model to be used for this research. A questionnaire has been developed to find out to what
extent the DEOW can benefit from the courses.
Chapter Four provides the data analysis and discusses the results of the research in detail. In
addition, it discusses the statistical tools to achieve the objectives.
Chapter five presents the conclusions and recommendations of the overall research
Chapter Two
Literature Review
2.1 Introduction
2.2 Causes of Marine Accidents
2.3 Non-Technical Skills
2.4 Available Methods to Evaluate NTS Courses
2.5 Chapter Summary
13
Chapter Two: Literature Review
2.1 Introduction
The maritime industry has become safer over the last two decades, as the safety record improved
during this period; however, accidents continue to occur. Analysts and researchers have found
many reasons, such as below-level seafarers' training, technical failure, fatigue, stress and human
error (Akhtar & Utne, 2014). The technical failures and training of seafarers were discussed in
detail in STCW95 and the measures taken positively affected the industry. More recently, IMO
introduced the STCW Manila amendment 2010, part of which focuses on NTS training, in an
attempt to eliminate or minimize the effects of human error (IMO, 2018). The effectiveness and
assessment of NTS training was measured in many studies, especially in aviation and medicine,
and has been found to be mostly effective.
Although there is no unique definition of safety, the American Standards Institute has
identified safety as free from unacceptable risks that is “risks with a very high probability”
(Hollnagel, 2014). Safety is a construct that may be difficult to assess and interpret where
there are different perceptions of safety among maritime stakeholders. The assessment and
measurement of marine accident safety may be difficult as the marine industry consists of
many different types of ships in complex environments (Lu & Tseng, 2012).
The scope of this chapter is to review and analyze literature based on the different types of
studies related to the evaluation of NTS in different industries, to verify the different skills
assessed and the models used. The literature review approach is based on consideration of
the theoretical arguments of the different methods and models used in the evaluation of
training courses. Moreover, previous researches are discussed in terms of research
objectives, methodologies and measures for evaluating the training courses.
This chapter is divided into three sections; the first discussed NTS in the marine industry,
which includes cognitive skills and social skills with an explanation of each to see what is
more important to the safety of ships. The second reviewed the various models used to
evaluate the NTS to see which model is mostly used for evaluation and more suitable for
marine officers. Finally, a review of the studies on the assessment of the efficacy of NTS to
detectability in previous research is presented.
14
2.2 Causes of Marine Accidents
Accidents in the marine industry are not recent as the main factor contributing to most of
these accidents is human error (Safahani, 2015). Analysis showed that human errors account
for about 75% of the value of nearly 15,000 claims of marine liability insurance claims
analyzed over five years, equivalent to more than $ 1.6 billion (Allianz, 2018). Adams (2018)
defined human error as: “an error made by a human”, and he added that it is a possible answer
to the questions: "What caused the accident?" Or "How did a ship collapse?" This does not
mean that the vessel has been broken because of human error. But when a person evaluates
an unfortunate incident from a device or system, it may be because of a human error. It may
also be an incorrect combination of manufacturing defect, or large number of other
possibilities.
In addition, Reason (2013) defined human error as “all those occasions in which a planned
sequence of mental or physical activities fails to achieve its desired goal without the
intervention of some chance agency”. Thus, it could be reckoned as an improper or
undesirable human decision or behavior which reduces or has the ability to reduce
effectiveness, safety or performance of the system.
Moreover, Barnett, et al. (2018) reviewed 150 accident reports from the Australian
Transportation Safety Bureau (ATSB), and classified the causal factors in root cause
groupings, which included a risk group (30 %), a situational awareness group (27.5 %), a
management group (24.5 %), indirect human error group (15 %), and the rest could be
classified as an act of God. Their study concluded that the majority of accidents were not
caused by technical problems but they occurred due to the failure of the officers onboard to
respond appropriately to the situation.
Currently, there has been a growing recognition in human factor literature that part of the
responsibility for human error lies with designers and operators, not just end-users of the
socio-technical system (Johnson, 2011). The socio-technical system includes many levels of
decision-makers involved in safety oversight through laws and regulations, which aim to
educate, guide or restrict labor force behavior through rules and equipment design to
improve their safety performance (Rasmussen, 1997).
15
For instance, the disaster of M/V Herald of Free Enterprise in 1987 represents one of the
recent disasters in which the Captain showed poor awareness skills in the situation when the
ship sailed with open bow doors and overturned just outside the port of Zeebrugge. There
was more of this incident than human error, as reported in the incident investigation report,
such as the vessel’s design vulnerability, shipboard failure to adhere to procedure, disregard
of a prior significant incident and office management failure. All other factors involved in
the accident increased the likelihood and seriousness of the consequences of human error
(Saeed, 2015).
Figure (2-1): Swiss cheese model describing organizational model of human error
Source: Reason (2013)
Based upon research examining failures, Reason (1997) developed an organizational model
of human error commonly described as the ‘Swiss Cheese’ model shown in Figure (2-1).
According to this metaphor in a complex system, hazards are prevented from causing
casualties through a series of barriers. Each barrier has unintended weaknesses, or holes, and
thus similarity with Swiss cheese. These weaknesses are not constant, i.e. the holes open and
close at random. These acts are normally committed by the system operator, e.g., pilot,
maintenance personnel, or DEOW.
16
The underlying conditions are failures or controls that allow or encourage the end user in
some cases to commit the unsafe act that leads to the accident. Potential conditions include
issues such as poor design, oversight failure and lack of training. The underlying conditions
arise from decisions taken by manufacturers, designers and managers that may be existed in
the system for many years before any accidents occur (Reason, 2013).
Apart from engaging in human error in various safety accidents in the maritime industries,
there are other factors, such as safety culture and safety environment involved. The most
effective way to change a workplace safety culture is to change the behavior of people
working in the organization. Culture is signified by "natural behavior", and specifically
means how people usually behave whereas carrying out their duties and responding to the
daily challenges of their work environment.
The nature of the multinational crewing onboard ships nowadays, which means different
languages, cultures and behaviors, could be reflected on the safety management of ships.
Thus, this will need a new approach and subjects of training for seafarers. So, the best safety
intervention, based on a scientific analysis of behaviors that enhance or limit human
performance, is BRM and ERM courses which focus on NTS (Flin, et al. 2017).
2.3 Non-Technical Skills
One of the four pillars of the maritime industry with Safety Of Life At Sea (SOLAS 74),
Maritime Pollution (MARPOL 73/78), and Maritime Labor Convention (MLC 2006) is
Standard of Training, Certification, and Watch keeping (STCW 78) as amended in 1995, and
Manila 2010. According to the last major amendments in Manila 2010, new requirements
for DEOW to have competence in NTS of resource management, managerial skills, and
leadership have been included.
In the same direction, Deaitt (2015) explained that he conducted a research to determine
whether the broad competence criteria outlined in the STCW amendments will be
consistently interpreted by a group of maritime industry stakeholders in the context of the
behaviors they expect to see and hear or experience in demonstrating standards of
compliance. As per STCW 1978/2010 amendments, Table (2-1) determines the allocation,
assignment and prioritization of resources; effective communication; obtaining and
maintaining awareness of the situation, which is the essence of the knowledge,
17
understanding and skills that every officer must have to maintain the safety of navigation as
clarified in Table (2-1). This means it includes requirements for DEOW to show competence
in the NTS of situational awareness, effective communication, leadership and managerial
skills; such as workload management and decision making.
Table (2-1): Specification of minimum standards of competence for officers in charge
of a navigational watch on ships of 500 gross tonnage or more. Function:
Navigation at the operational level (Table A-II/1).
Column 1 Column 2 Column 3 Column 4
Competence Knowledge,
understanding and
proficiency
Methods for
demonstrating
competence
Criteria for evaluating
competence
Maintain a
safe
navigational
watch
Bridge resource
management
Knowledge of bridge
resource
management
principles, including:
1. allocation,
assignment, and
prioritization of
resources
2. effective
communication
3. assertiveness and
leadership
4. obtaining and
maintaining
situational
awareness
Assessment of
evidence
obtained from one or
more of the
following:
1. approved training
2. approved in-service
experience
3. approved simulator
training
Resources are allocated
and assigned as needed in
correct priority to perform
necessary tasks
Communication is clearly
and unambiguously given
and received
Questionable decisions
and/or actions result in
appropriate challenge and
response
Effective leadership
behaviors are identified
Team member(s) share
accurate understanding of
current and predicted
vessel state, navigation
path, and external
environment
Source: IMO, (2011)
While technical skills and knowledge are important in all high-risk organizations, Long
(2010) identified many other characteristics that are equally important to the success of
DEOW. Long (2010) said that disregard, vigilance, judgment, intuition, and leadership are
attributes of great value to the DEOWs as knowledge and technical skills.
18
These features are examples of what psychologists have described as non-technical skills.
Long (2010) added that NTS are "cognitive and social skills that complement technical skills
and contribute to the performance of safe and effective tasks". These skills are not ambiguous
or new to the maritime society. NTS include skills such as leadership and cooperation, work
load management, effective communication, situational awareness and decision-making.
The best DEOWs already possess these skills or develop them through experience. NTS in
mattress control help to respond to situations in an efficient and timely manner.
Moreover, Flin et al. (2003) in their study considered the NTS; situational awareness,
teamwork, decision making, leadership, management and communication skills as their field
of study. While Saeed et al. (2016) studied resource management, leadership and teamwork
at operational level and leadership and managerial skills at management level to be assessed
in the marine simulator to identify the importance of the NTS for marine safety. Thus, this
study, which included both operational and managerial level considered the five NTS;
effective communication, leadership and cooperation (teamwork), situational awareness,
workload management and decision making to be assessed.
Moreover, Conceição (2017) defined NTS as cognitive, social and interpersonal resource
skills that complement technical skills and contribute to safe and effective board
performance. Also, Oxford Academy adopts the following definition:
“The use and co-ordination of all the skills, knowledge, experience and resources available
to the ships’ team, to accomplish or achieve the established goals of safety and efficiency of
the passage” (Safahani, 2015).
However, there are no suggestive guidelines for classifying the NTS system, because their
association and appearance are strongly associated with the context of work. Thus, the
categorized NTS were in literature as shown in Figure (2-2) (IMO, 2011).
19
Figure (2-2): NTS categorization and its dimensions
Source: IMO, (2011)
Non- Technical Skills (NTS)
Cognitive skills
Situational Awareness
Problem Solving and Decision Making
Managing Stress
Deal with Fatigue
Vigilance
Judgment
Social skills
Communication
Teamwork
Leadership
Co-operation
Management Skills
Task Management
Workload Management
20
2.3.1 Cognitive skills
National Council on Measurement in Education (2018) defined cognitive skills as "the
ability of an individual to perform the various mental activities most closely associated with
learning and problem solving”. Also, it defined cognition as "the mental action or process of
acquiring knowledge and understanding through thought, experience, and the senses". It
encompasses many aspects of intellectual functions and processes such as attention,
formation of knowledge, memory and working memory, judgment and evaluation, reasoning
and problem solving and decision making, comprehension and production of language.
Cognitive processes use existing knowledge and generate new knowledge; they mainly refer
to things like memory, the ability to learn new information, speech, and understanding of
written material.
The most common dimensions of cognitive skills include; situational awareness, problem
solving, decision making, managing stress, deal with fatigue, vigilance, and judgment.
2.3.1.1 Situational Awareness
Situational Awareness (SA) is the recognition of environmental elements and events with
respect to time or space, understanding its meaning and dropping its position after changing
some variables such as time or a predetermined event. It is also a study area concerned with
understanding the critical environment of decision makers in complex and dynamic areas of
aviation, air traffic control, ship navigation, power station operations, military command and
control, and emergency services such as firefighting and police (Lundberg, 2015).
The definition of SA could be divided into three parts: (i) understanding elements in the
environment, (ii) understanding the situation and (iii) dropping the future situation.
Achieving a complete, accurate and modern SA is essential as the technological and
theoretical complexity of the human decision maker as a source of concern. Consciousness
of the situation has been recognized as a critical but often elusive basis for the success of
decision-making across a wide range of complex and dynamic systems (Flin & O'Connor,
2001).
Cooper, et al. (2014) reviewed direct and indirect measures of situation awareness as part of
a NTS assessment applicable for emergency settings. The study concluded that in simulated
21
studies, situation awareness of emergency situations tends to be suboptimal indicating the
need for improved training techniques to enhance awareness and improve decision-making.
In the same direction, Wright, et al. (2018) concluded that SA's direct measurement can
provide important information on the perceptual and cognitive processes of medical
practitioners.
2.3.1.2 Problem Solving and Decision Making
Decision Making (DM) is the process of reaching a decision based on appropriate provisions.
DM depends on identifying the problem, recognizing solutions and options, evaluating all
solutions and options based on clear criteria, assessing the risks involved, and ultimately
reaching the best decision. It is considered as a cognitive process resulting in a choice of
belief or a course of action among many alternative possibilities. Each decision process
produces a final choice which may or may not induce action. DM can be seen as a problem-
solving activity that is terminated by a solution that is ideal or at least satisfactory. It is
therefore a process that can be more or less rational and can be based on explicit or implicit
knowledge and beliefs (Hall, et al, 2007).
When trying to make a good decision, a person must weigh the pros and cons of each option
and consider all alternatives. In order to make an effective decision, a person must be able
to predict the outcomes of each option as well and based on all these elements, he could
select the most suitable option for that particular situation.
Nura and Osman (2012), in their research on decision-making measurement strategies and
tools, exposed organizations to different techniques of measuring decisions. Meta-analysis
was used on how to measure effective decisions in organizations, from quantitative
perspectives (scientific application) and theory (social sciences). They summed up that the
majority of decisions taken from the 18th to the 19th century were neither programmed nor
measured while most decisions were measured in the latter part of the 20th century until the
21st century. They also found that although decisions are measured based on the uniqueness
of an organization (especially culture and goal), organizations are not limited to adopting
any measurement strategy of their choice, as there is no better way to measure decisions.
2.3.1.3 Managing Stress (MS)
22
Stress management is a wide range of psychological techniques and remedies aimed at
controlling the level of stress in a person especially chronic stress and is usually for the
purpose of improving daily performance (Bower & Segerstrom, 2004). Stress occurs when
one realizes that the demands imposed on him - like work, school, or relationships - go
beyond his ability to cope. Some stress may be useful at times which leads to enhanced
motivation and energy to help people overcome situations like tests or deadlines (APA,
2018).
However, by finding positive and healthy ways to manage stress when it occurs, many of the
negative health effects can be reduced. Everyone is different, according to the ways they
choose to manage their stress. Some people prefer to practice hobbies such as gardening,
playing music and creating art, while others find comfort in more solitary activities:
meditation, yoga and walking. Here are five healthy methods that psychological research has
proven to help reduce stress in the short and long term:
1. Take a break from stress. It may seem difficult to get away from a big business
project, a crying child, or a growing credit card bill.
2. Exercise. It is beneficial to the mind just like the body. Walking for 20 minutes,
running, or swimming in the midst of a difficult time can give an immediate effect
that can last for several hours.
3. Smile and laugh. Our brains are connected to our emotions and facial expressions.
When people are stressed, they often carry a lot of stress in their faces. So laughter or
smiles can help relieve some of this tension and improve the situation.
4. Access to social support. Contact a friend, or send an email. When one shares his
fears or feelings with someone else, it helps relieve stress.
5. Meditation. Meditation and conscious prayer help the mind and body relax and
concentrate.
On the other hand, effective stress management helps one breaks stress in his life, so that he
is happier, healthier and more productive. But stress management is not one fit for everyone.
So, it is important to experience and know what is best for every individual.
Moreover, stress affects our ability to do our jobs effectively and affects how we work with
others. This can have a serious impact on our professional lives, our overall welfare and our
relationships (Bower, 2004).
23
2.3.1.4 Deal with fatigue
Fatigue does not have a clear scientific definition, but it generally feels tired and unable to
function effectively. Specifically, a fatigued person will be less alert, less able to handle
information and will have slower and less labor-intensive reaction times than a person who
does not suffer from exhaustion. P & I Club has had to deal with many cases over the years
that were either directly linked to crew fatigue or played an important role. These ranged
from minor personal injuries to major fires, collisions and foundations.
Fatigue has a severe effect on the human body which can lead to long term physical and
mental problems. It is also a question of whether the ship's working environment is good
enough to entice crew members to return after departure time. The industry still faces a major
challenge in maintaining an experienced crew and making the job a long-term, attractive
career choice. The experienced seafarers are invaluable to the safe operation of ships and the
lucrative mission in which they participate (Jackson, et al, 2013).
Impaired perception of fatigue affects individuals regardless of occupation. However, some
professions are associated with unique factors that can disrupt or reduce sleep and thus cause
fatigue. The marine environment is unique in the ways observed because most seafarers live
on ships where they work and work with fixed timetables and disturbances for periods of
rest are not uncommon. In addition, many seafarers, especially engineers and deck workers
require in-depth knowledge over time to see system performance, ship navigation, and
determine the effects of changes in the state of the sea and wind on the performance of ships.
Among many other mission requirements, will be Fatigue.
Seafarers also tend to maintain unique work schedules, some of which operate for six hours
at work, referred to as the "watch clock", from midnight to 0600, or from 0600 to noon, then
6 hours from noon to 1800 or 1800 to mid-night. The schedule is known as six, six or six on
six off, for six hours on duty and six hours of service. During times of observation, while
ships are docked, seafarers may participate in other work-related activities as well. Under
the best conditions, in such a schedule, seafarers' sleep will be interrupted by eight hours of
continuous sleep that is ideal for less than six hours after one, two or more changes after the
other. Other seafarers maintain schedules of four hours, usually from midnight to 0400, from
0400 to 0800, or from 0800 to noon, and again after 12 hours for four hours. This table,
24
referred to as four and eight people, requires four hours in service, followed by eight hours
of observation, but also in service. At each time scheduled, seafarers will work at the same
time of day followed by the observation period and work at night between these time periods.
The schedule will be kept as long as the ship is serving at sea, a time frame that can last for
several weeks or months.
Therefore, to investigate the role that fatigue may have played in an accident, investigators
must first prove that the navigator was tired at the time. Research on the causes of fatigue
mainly refers to the presence of four non-medical causes of exhaustion, and insufficient sleep
in the hours immediately preceding an event, resulting in severe stress and loss of sleep in
the days or nights preceding the accident leading to chronic fatigue and longtime awake on
the task that leads to tiredness from the effects of prolonged waking and task requirements
over time, shifting work or changing the time zone that leads to rapid daily sleep disturbance
(Strauch, 2015).
The majority of labors are reluctant to express their feeling of fatigue, which is unmeasured
problem. Also, there are many instruments for fatigue measurement, because of the
widespread effects of fatigue on human skills, definitional difficulties of fatigue, and
multiple causes of fatigue. However, as a first step to manage fatigue in workplace, so fatigue
and their causes should be measured in the industrial settings. Thus, the organization must
decide which instrument to measure fatigue will be used (Haghighi & Yazdi, 2015).
2.3.1.5 Vigilance
Vigilance can be defined as “sustained concentration" and also it could be defined as the
ability to maintain a concentration for long intervals (Helton et al., 2007). Within this time,
the individual tries to discover the appearance of a particular motive. The individual
monitors the signal stimulus that may occur at an unknown time. The study of vigilance has
expanded since the 1940s, mainly because people interact more with machineries for
applications that include monitoring and detecting rare events and weak signals. These
applications include air traffic control, inspection, quality control, automatic navigation,
military and border surveillance, and rescue operations (Sternberg, 2009).
Vigilance research conducted with subjects across a range of age conflicts about the ability
to maintain vigilance and constant attention with age. In 1991, Parasuraman and Giambra
25
reported a trend towards reduced detection rates and increased false alarms with age when
comparing groups between 19 to 27, 40 to 55, and 70 to 80 years. In 1993, Deaton and
Parasuraman reported that after the age of 40, a trend towards lower detection rates and
higher false alarm rates in both cognitive tasks and sensory functions occurred, with higher
and lower mental workloads respectively. Berardi (2001) reported no differences in overall
vigilance levels and the ability to draw attention over time when comparing people aged
(above 40) and younger. Age-dependent differences in cognitive tasks may vary depending
on the type of task and workload, and some differences in detection and false alarms may be
due to reduced sensitivity of sensory organs (Berardi, 2001).
Clark et al. (2019) identified a set of personal and objective measures of individual
differences in personality, performance on short vigilance skills, and attitudes toward a
mission that can predict performance in realistic tasks to detect combat threat.
Also, they found to confirm previous findings suggesting that personality traits are, at best,
no more than modest predictions of vigilance. However, modern research had shown that
some personality factors have the ability to predict and overcome stress during wakefulness
which may contribute to their usefulness in the context of performing a long and continuous
monitoring task.
2.3.1.6 Judgment
Good judgment can be beneficial for almost any job. But in some cases, it can be their
business responsibility to sink or survive, or even a matter of life or death. For example, the
seafarer relies on good governance for proper judgment, and quick decisions. The ability to
use good judgment in making decisions is one of the most important skills a person can
possess. On a daily basis, s/he may be angry by mundane decisions that may change his/her
life. Good decisions are made on many aspects of his/her life, including work, health,
education, family, and personal relationships. Using good judgment requires a sound
mindset, a desire to think through issues and confidence in themselves (Zeigler, 2015).
Analyzing the elements of the decision, persons may face in their minds to think about their
goals, their preferences, the potential consequences of their decision, and any potential
swaps. Assess the uncertainty and any risks that come with their decision in a logical and
coherent process. This process should help clarify the decision and guide the way to the right
26
choice, this could include potential pros and cons. People can improve their ability to good
judgment early by investigating the choices they made in the education stage in the
University, their successes as well as their mistakes. Good judgment is often subjective and
difficult to be defined. It's hard to know where judgment comes from, however critical
thinking and analytical skill are basic sets of good judgment (Wilkens, 2018).
Captains and other responsible titles must exercise good judgment in all their decisions, as
the effective decision-making plays an important role in developing good judgment skills.
Originally, they may need to carefully select a list of key points to become a base of
judgment. The development of good judgment is based on the ability of them to look at all
aspects of the problem or issue and to evaluate all options before making a final decision.
Good judgments are usually:
Fact-Based
The facts form the basis of all sound judgments, while it may be self-evident, it is very easy
to put judgments on personal opinions, assumptions and biases. Before making a judgment,
they must take the time to solidify the truth and eliminate any opinions, assumptions or
biases, where possible, and all facts should be fully documented.
Objective
Good judgment is based on an objective evaluation of the facts, also they must be careful to
ensure that their emotions, assumptions, expectations, opinions and personal bias do not
affect their objectivity. Wherever possible, they should get out of the immediate situation to
see the facts from the perspective of the other person and gain objective insights into possible
solutions.
Fair and Balanced
Good judgment requires that all parties and views have to be carefully weighed and
considered by them. One mistake in making good decisions is to consider only one aspect of
the issue and thus to limit objectivity with personal opinions, assumptions or biases. When
this happens, the decision is deliberately narrowed toward one side of the problem without
fully considering other views and ideas. When they focus on moral judgments, they must
examine all aspects of the issue and make sure that the inputs they think are balanced. When
27
objective facts and views are evaluated objectively, the manager can reach a fair judgment
(Zeigler, 2015).
2.3.2 Social skills
Social skills are the skills that facilitate interaction and communication with others verbally
and non-verbally where rules and social relationships are created, through gestures, body
language and our personal appearance. Personal skills are necessary to communicate with
each other (Dowd, 2017).
2.3.2.1 Communication
Communication is the act of conveying the intended meanings of an entity or group to
another through the use of mutually understood signs and semiotic rules.
The communication channel can be visible, audio, tangible (as in Braille) and haptic, or
olfactory, or electromagnetic, or biochemical. Human communication is unique for its
intensive use of abstract language. The development of civilization has been closely linked
to progress in communications (Ferguson et al., 2014).
Elizabeth et al. (2006) recognized the importance of interpersonal and communication skills
in the practice of medicine, and explained that medical organizations now require
competence and efficient communication skills. To develop and apply a standardized model
for assessment of communication skills, authors described a process model for the
development and institutionalization of communication skills assessment. Consensus was
built on communication skills competencies by working with course leaders and examination
managers. A unified framework of competencies was selected to teach and evaluate
communication skills.
Furthermore, the authors adapted an assessment framework based on the Bayer–Fetzer
Kalamazoo Consensus Statement, which adapted the patient and an additional tool and
satisfaction to present the patient's views in the assessment of learners. A model of education
leaders and others involved in the assessment design is presented in communication skills.
By offering an implementation approach, authors hope to provide guidance for the successful
integration of communication skills assessment.
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2.3.2.2 Teamwork
Teamwork in its simplest form is an activity in which members of the organization work
towards a common goal or set of goals. Teamwork in the workplace today can happen
personally or (increasingly) online. It is worth mentioning that today's teams are much
different than in the past.
For example, today's teams are more diverse and dynamic, and have unique skill sets that
bring new challenges and opportunities. As a result, each project that requires teamwork can
serve as an opportunity for personal growth and professional development. The acquisition
of digital knowledge or the ability to use Information and Communication Technologies
(ICTs) has become increasingly important in team settings where technology dominates the
workplace (Zimmer, 2018).
Coordination and teamwork depend on team support and an open and effective
communication. These are actually the skills of dealing with others. The leader must provide
an atmosphere conducive to collective communication (Flin et al, 2008).
The study conducted by Britton (2015) aimed at developing a sustainable tool for assessing
individual teamwork skills with the aim of refining and measuring these skills over time.
Survey conducted by the Association of American Colleges and Universities (AAC&U)
found that 71% of employers indicated the importance of "teamwork” skills and the ability
to collaborate with others in a variety of settings. The study concluded that the initial
evidence suggested that teamwork improves over time when it is taught and initiated
anonymously.
Moreover, Otmar & Esther (2018) discussed the issue raised regarding the popular teamwork
assessments which have been strongly criticized on the grounds of poor psychometric
properties and their disconnection with conceptual models of teamwork. Authors used the
meta-analysis to reach the result of the study indicated that the resulting measure exhibits
adequate internal-factor structure and appropriate psychometrics across raters.
2.3.2.3 Leadership
The quality of leadership depends on strong will, trust and emphasis. It also requires
planning and coordination as positive skills. A successful manager must be able to manage
29
time and maintain standards. The appropriate leader must be able to resolve disputes
efficiently and successfully. Leadership is a field of research and practical skill that includes
the ability of an individual or organization to "lead" or guide individuals, teams or
organizations as a whole. The specialized literature discusses different views, different from
the Eastern and Western approaches to leadership and also (within the West) the United
States in contrast to European attitudes.
The American academic community defines leadership as "a process of social influence that
one can use to help others and support them in accomplishing a common mission."
Leadership taken from a European and non-academic perspective includes a vision of a
leader that cannot be moved only through common goals, but also through the search for
personal power. Leadership can be derived from a combination of several factors (Scouller,
2011).
In 2012, Barry reviewed and analyzed the psychological characteristics of a global sample
of students (n = 77,387) to investigate the reliability and health of student leadership
inventory. There are modest internal reliability coefficients across a number of different
dimensions. Predictability of the tool is supported, although the tool is able to distinguish
between effective and ineffective leaders using self-data. Some significant differences were
found on the basis of gender, race, nationality, or institutional level of respondent (secondary
vs college).
In another context, Alice and Garee, (2009) considered the lack of research to evaluate the
outcomes of leadership development programs and the lack of an appropriate assessment
tool. Thus, they represented the first attempt to provide a comprehensive way to evaluate
and measure leadership development programs at the post-program level. The program
includes short elements and open-ended items, which are three common metrics for
measuring individual, organizational and community outcomes, respectively. The scale was
developed to measure the results of the leadership program after participants left the
program. Participants are asked to evaluate the results of their leadership experience on a
Likert scale. This is important because the analysis indicated that the effects of the program
were not limited to a certain group of individuals who were older, younger, male or female
or from a particular region.
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2.3.2.4 Co-operation
Persons can be trying to manage a cooperative work without members who have cooperative
skills such as trying to drive a car without driving lessons, with the added complications that
many of them are trying to drive at once. Collaborative skills can be described as
understanding how to work effectively with others on an equal basis with common goals and
objectives (Brown, 2013). Collaborative skills are the set of skills that one need to be able
to collaborate effectively; working with others in a joint, non-hierarchical organizational
structure that runs democratically. It has been suggested that emotional intelligence is a
necessary basis for the development of cooperative skills. In addition, if someone assumes
that what is meant by this is self-knowledge, self-awareness, thinking, empathy and social
awareness, common sense suggests such qualities are indeed necessary (COOP, 2012).
Cooperation in the workplace is a combination of many skills to achieve collective
achievement. Even in teams where some members are competitors in nature, there are simple
things which can inspire real collaboration. The following four tips are necessary for
building team cooperation:
a) Focus on team goals: maintain the team goals, explain how each person contributes
to the team's mission, and encourage team members to be more cooperative as
individuals to be more competitive as a team.
b) Team members focus on doing their best: Make sure that the members know they are
put on the team not to show what they can do personally, but to help make the team
successful. Identify each person's strengths from the point of view of how these strengths
will be combined with others to help the team achieve the desired results.
c) Team reward: Through the distribution of cooperative rewards rather than
competition. Also celebrate as a group when the team defeats its "opponent" (such as
solving a major problem) and recognize individual contributions to this victory.
d) Do not restrict cooperation: Apply the team concept beyond the same team, and
encourage team members to find ways to collaborate with other departments and
external entities to uncover new ideas and new ways of doing things (CRM, 2018).
Cooperative learning as an example of the skill of cooperation to be measured in the
university classrooms, in order to promote teamwork among students, improve performance,
develop personal competencies, and influence their position in work after completion of the
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study (Benito, et al, 2018). They proposed to create a Questionnaire of Group Responsibility
and Cooperation in Learning Teams (QGRCLT) consisting of 375 students. They found high
significant correlations between the Learning Team Potency Questionnaire and the total
score and the factors of the QGRCLT. This tool will evaluate cooperative skills and offer
faculty information in order to prepare students for teamwork.
2.3.2.5 Management skills
Management skills can be almost anything a person can manage others effectively, while other
skills may vary depending on the industry. There are many skills that are comprehensive in
almost every business. Management skills are significant for many different levels of the
organization’s positions, from senior leadership to middle supervisors (Career Builder, 2017).
Most management skills are related to five basic, fundamental functions: planning, organizing,
coordinating, directing, and oversight (Doyle, 2018).
a) Planning: Individual managers may or may not participate in the formulation of
company policy and strategy, but both groups still need planning. In both cases, a
manager needs to understand what his resources are, develop schedules, budgets and
assign tasks and areas of responsibility.
b) Organizing: It generally means creating structures to support or complete a plan.
This may involve creating a new system of reporting to, building a strategy and
planning on how to move through a project, how to move towards deadlines and how
to measure parameters.
c) Coordinating: Managers should know what is happening, what should happen, and
what is available to accomplish the assigned tasks. If someone is wrong, or if
someone needs help, or if the problem or lack of exploitation of a resource is
overlooked, the manager should notice and correct the problem.
d) Directing: It is the part where a person takes responsibility and tells people what to
do, which is known as delegation, issuing orders, and making decisions.
e) Oversight: It means tracking what is going on and identifying anything that is right
out of place. It may include anything from reviewing business models and checking
inefficiency to verify that the project is on time and on budget. It is the maintenance
phase of management.
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In 2015, James conducted a survey of nearly 2,500 Small and Medium sized Enterprises
(SMEs) in England to examine the correlation between leadership and management skills,
the application of best management practices, and how these factors correlate with business
performance and employment growth. The study found that changes in leadership and
management skills are related to changes in SME performance. Either directly or indirectly
by increasing the tendency to adopt best management practices.
2.3.2.6 Ask management
Task management is the ability to rank and focus on one task at a time and accomplish it.
Task management means managing a task through its life cycle that is planning, testing,
tracking and reporting (Tran, 2015). In addition, it helps individuals achieve their goals and
groups to collaborate and achieve collective aims. Those tasks may be characterized by
complexity (from the lowest to the highest), different priorities (from the lowest to the
highest) and different urgencies (from the lowest to the highest). Task management means
to choose the most important tasks for the day and make sure to accomplish. This way one
can focus on the tasks that bring him the greatest value. The first aspect of a task manager is
to describe his tasks in detail, so he can evaluate them by simply looking at their own
parameters (Mayer, 2017).
Moreover, task management may be the first item people think of when they think of a
project manager. It is very important because they can improve productivity and reduce
project costs if they do so effectively. If one thing is very important to be successful as a
project manager, it is the ability to plan and manage tasks. Despite, most people cannot do
multitasking well, as multitasking has more negative than positive effects. Switching
between tasks prevents people from accessing the "zone" or "flow" which facilitates
productivity and creativity. Instead, people who do a lot of tasks are easily distracted and
nervous because they cannot finish any of the tasks. Effective task manager means that they
must complete only one task at a time and then go to the next (Tran, 2015). Having a good
task management system means having a high productivity rate.
2.3.2.7 Workload management
Stress is a fact of life in the workplace, and there is a direct relationship between time and
workload management. So, it could be said that the greater the workload and the shorter the
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time frame to deal with, the greater the stress. The ability to handle stress is directly related
to the time efficiency and workload management, rather than work or time itself. Training
on workload management revolves around how to prioritize effectively, negotiate realistic
workloads and manage expectations. Equipped with these skills and an understanding of
how to take "time out", even on a busy day, you will be able to accomplish the task and
remain sensible (Plough, 2017).
Nowadays in highly stress workplaces, there is much to be gained by developing knowledge,
skills and confidence with regard to time and workload management. Improving life style
could be fulfilled by developing basic skills such as personal organization, balance of
life/work and workload management. Few people are trained in workload management.
However, each job in the world requires balancing a series of "tasks" related to time.
Experience shows that very few people have a realistic plan for each day, while most of the
plans are long lists of unstructured tasks, more than a wish checklist of a plan. (IIDM, 2018)
Furthermore, according to IIDM (2018), time and work management could be explained in
four principles:
a) Too much work is too much work: The main basic principle of time and workload
management is that trying to do more than a person reasonably can, will make all tasks
unproductive. This is summarized in the words "Intelligent work is better than hard
work". When people have too much work, it makes sense to use common sense in
strategic planning for ways to finish it rather than rushing to work faster or harder.
b) Managing energy as well as time: When dealing with stress, it is important to
maintain long-term energy levels. Many long-term tasks start with high observation,
but fade before completion because energy was not kept high. Lack of energy kills
motivation and destroys self-esteem. This is why it is important to separate the
stimulation levels over the length of the work.
c) Skills not qualities: It is wrong to assume that people who are more efficient at the
right time and manage the workload are born with these qualities. Rather, these skills
could be gained over time with specific practices.
d) Investing time to save time: The fourth principle is lack of planning. It is important
to devote productive time to thinking, planning, analyzing and strategizing. This is
the means to enable control of the work.
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So, to manage the workload on a daily basis, a person should not be afraid to start doing
something when he has only a limited time period. Instead of spending those hours that he
usually spends waiting at a doctor's office, during your commute or before a club meeting
or exercise, he can spend those times doing some of his workloads. This way, when he sits
to focus only on his work, much is done for him already.
2.4 Available models to assess NTS courses
Long (2010) described the organizations that may be adversely affected by failures in
complex human technology systems as high-risk industries. The common factor of High
Reliability Organizations (HROs) is that although reliability failures involve the possibility
of death, loss or damage to environmental assets or disasters, they have developed unique
characteristics that enable them to adapt to unforeseen events. That is required to develop a
model for increasing the understanding of the human operators, in our case DEOW, by
identifying the nontechnical skills that are important to safe and effective operation.
Many organizations are not convinced that their methods of assessing the training are
effective enough, despite the fact that there is a model for evaluation of the training that has
been common for decades, namely the Kirkpatrick’s model of the fourth level. From the
participants' direct reactions to the training experience to the regulatory impact, either by the
trainees themselves or by the organizations (Blanchard et al., 2000). Part of this discussion
is how institutions and organizations can assess the impact of training and development.
In this review, a critical overview of the various models of assessing training courses. Also,
review some research evidence on the training evaluation that highlights issues related to
evaluation at different levels were reviewed. First, four different models have been
investigated hereafter Table (2-2) to determine which model is more convenient to be used
for training courses’ evaluation in the current study.
Table (2-2): Models for training courses’ evaluation
Author (s) Year No. of
levels
Levels’ names Name of the
model
Kirkpatrick 1954 4 Reaction, Learning, Behavior,
and Result
Kirkpatrick model
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Hamplin 1974 5 Reaction, Learning, Job
Behavior, functioning
Organization, and Ultimate
value
Hamblen model
Kaufman, Keller
and Watkins
1995 6 Input, Process, Micro
(acquisition), Micro
(performance), Macro (relates to
the results level and examines),
and Mega
The
Organizational
Elements Model
(OEM)
Kearns, P. and
Miller, T.
1997 4 Reaction, Learning, behavior,
and Bottom line added value
The KPMT model
2.4.1. Kirkpatrick Model: Donald Kirkpatrick established a model in 1954, and over the
past 65 years, this model has served the field of training and development in assessing and
evaluating the effectiveness of training. The model was originally designed to measure the
effectiveness of training initiated by companies and proposes a linear adjustment model for
training effectiveness. The Kirkpatrick model can be applied before, during and after training
to demonstrate the value of the training to the organization. There are four sequential levels
in the model; (i) reaction, (ii) learning, (iii) behavior, and (iv) results. That is, the highest
level (level 4) can only be achieved if the lower levels are met (Joo, 2017). In addition, it
provides a useful framework for assessing the impact of training intervention on an
organization by considering training evaluation at multiple levels.
2.4.2. Hamblen model: In 1974, Hamblen established his training model, and identified the
process of evaluation of training and development as "any attempt to obtain information
(feedback) on the effects of the training program and to assess the value of the training in the
light of that information” (Ahmad, 2009). Moreover, Rae (2002) explained that for the Hamblen
model to be effective, any assessment plan should be tailored to the needs of training users and
should include validation of the training. These methods are possible for external training as well
as training in the company. Hamplen model consists of five levels; (i) reaction, (ii) learning, (iii)
Job behavior, (iv) functioning, and (v) ultimate value.
2.4.3. The Organizational Elements Model (OEM): In 1995, Kaufman, Keller and
Watkins explained that the training model should include societal input as a criterion for
evaluation in the assessment process. They claimed that industrial organizations in particular
36
are increasingly connected to the interpretation of social consequences such as pollution and
safety (Hannum & Kaufman, 2019).
Their model included the following six levels: The levels included in this model are: (i)
input, (ii) process, (iii) micro (acquisition), (iv) micro (performance), (v) macro (relates to
the results level and examines), and (vi) mega (an additional level which looks at societal
Outcomes). The model emphasizes that evaluation at all levels should be planned and
designed before any intervention is implemented.
2.4.4. The KPMT model: Kearns, P. and Miller, T. (1997) argued that clear objectives are
an essential element of the training evaluation model. They differ in their goal of providing
a "toolkit" to help residents work through the process of setting baseline targets through
interrogation techniques, evaluating existing training and using process maps to determine
the value added of organizations. They also argued that training can only bring added value
to organizations if businesses do not perform effectively or there is a market opportunity that
can be exploited. To determine the minimum benefits, pre-training measurements should be
in place; only when the training is to bring someone to the level of the job (Carless, 2001).
The KPMT model contains four levels, starting at the beginning of the training cycle by
identifying business needs rather than training needs, which focus on clarifying objectives
from a business perspective rather than from the trainees’ perspective. The four levels are;
(i) Reaction, (ii) Learning, (iii) behavior, and (iv) Bottom line added value, measured in
relation to the base level measures taken.
It is seen from the previous review that all the reviewed models are based on Kirkpatrick’s
model which indicates that this model is the most convenient model to be used to evaluate
the NTS training courses for marine officers. Also, the review showed that although there
are a surplus of models designed to improve the Kirkpatrick’s model, there are similarities
in many of the models’ details. For instance, many of the modifications to Kirkpatrick model
levels differ slightly from meanings or interpretation. For example, KPMT model may have
more accurately described the behavior of learning transfer, other useful additions include
further details on the various tools and techniques to be used at each level and areas of
analysis, as well as the need to work more closely with managers within the organization
and provide feedback on evaluation results (Tamkin, et al, 2002).
37
In addition, some models clearly indicate that there is a need to identify the reasons for the
assessment and that the tools and techniques used will change depending on why the
evaluation is taking place and who it is for. Other models suggest that there is a need to focus
more clearly on the different types of results that the training and development activity seeks,
and to design this technology with the organization to ensure that the approach is appropriate
for culture and values.
Moreover, all models are implicitly based on the assumption that there are a series of
influences from the development process to individual learning, changing behavior and the
resulting organizational or social impact. However, they rarely provide an explicit model, so
they are all open to criticism that they ignore some of the key variables affecting this series
of events which showed limitations for all these studies. Indeed, the current study has also
concerns about assessing the four levels and had dealt with the third and fourth levels of
Kirkpatrick’s model only which are more important to the study. In addition, the review
showed that most of the researchers who dealt with the assessment of training courses used
the Kirkpatrick’s model as shown in appendix B.
There are numerous studies which attempted to determine how to assess the efficiency of
NTS courses. Therefore, the following literature review concerned with the development
occurred through the associated papers and research:
O'Connor (2002) studied how the training courses of Crew Resources Management (CRM)
were evaluated in 48 published studies on aviation and other industries and the reported
results. Training evaluation techniques were rated in terms of feedback, learning, attitudes,
behavior and organizational effects. The Kirkpatrick hierarchy was adopted to evaluate
training and to examine the impact of CRM training interventions on four different levels:
interaction, learning, behavior, and organizational influences. Using the paper questionnaire
method, it was found that in general, CRM training was received well that led to a positive
change in CRM trainee attitudes and had the desired impact on their behavior. In the forty
eight studies covered by the review, it was found that the techniques used to evaluate CRM
training in these industries tended to be modifications to the methods previously used in
aviation.
38
Salas (2006) provided the state of CRM training evaluations and extended it to areas beyond
aviation cockpits. Also some critical evaluation needs in CRM training were covered. He
reviewed 28 CRM training publications using the Kirkpatrick, 1976 framework for
evaluating training to determine its effectiveness in aviation, medicine, oil production,
marine maintenance, maritime/shipping and nuclear power domains.
Findings indicated that CRM training has produced generally positive feedback from
trainees; however, the impact of training on learning and behavioral changes indicated mixed
results across and within domains. Moreover, the study could ensure that CRM has had an
impact on the minimum institution requirement of safety.
Learning was measured in terms of the desired change in trainees' attitudes towards CRM.
The next level, behavior, evaluated whether the knowledge acquired during training is
transferred to actual behavior at work or in simulation. The highest level of Kirkpatrick
rating, impact of training on the organization was evaluated to determine whether the
training has an impact on the organization's goals.
Experimental studies of O'Connor, (2008) on the effectiveness of CRM training were
subjected to meta-analysis. Sixteen CRM evaluation studies were conducted to meet pre-
criteria for inclusion in meta-analysis. The CRM training metrics analyzed were:
interactions, attitudes, knowledge, and behaviors, and trained participants from CRM
responded positively to CRM (an average of four on a five-point Likert scale). The
Kirkpatrick hierarchy was used as a popular framework to guide training assessment and
data was collected using a paper-based questionnaire.
The meta-analysis results were encouraging with respect to the effectiveness of CRM
training. The feedback on CRM training was positive; significant effects of CRM training
were found for attitudes and behaviors, and the average impact size of knowledge was found
identical to other reviews. To include a meta-analysis study, at least one of the first three
levels of the Kirkpatrick hierarchy should be reported that is interaction learning (attitude
and knowledge) or behavior.
Sharon, (2010) identified many different reasons for the use of organizations to assess the
performance of their employees as part of their operations. Organizations are likely to vary
considerably in the reasons for their use but must have a clear understanding of their purpose
39
so that they can gather the necessary information in an appropriate manner. It is necessary
to consider some practical issues that may affect how evaluations are designed and
implemented. Organizations may need to take a broader look at things that seem difficult to
measure by thinking about how to measure them in more innovative ways. Examples may
include a program that looks at less realistic areas such as communication skills. The most
commonly used method of collecting data is to ask participants to complete the evaluation
forms at the end of the session.
From a set of papers identified by researchers, it is important to link learning to the overall
strategies and business objectives of organizations, especially when people are one of their
sources of competitive advantage. This means that those responsible for learning,
development and evaluation must have a good understanding of strategy and objectives and
discuss key issues with a range of stakeholders. It was clear from that review that evaluation
must be integrated into the design process to ensure that it covers the most appropriate and
realistic areas.
O'Connor (2010) discussed the development of CRM training in US Naval aviation and how
this training is managed in a large organization with many different airframes. He also
discussed evaluating the effectiveness of CRM training and suggested considerations for
improving the program. As was the case with CRM in the field of commercial aviation, an
assessment of the effectiveness of US Navy's CRM training was reported in scientific
publications. Again the Kirkpatrick hierarchy seems to provide a useful framework for
assessing the effects of training intervention on an organization by considering training
assessments at different levels.
Overall, O'Connor concluded that there appears to be a positive impact on the training of
Navy’s CRM at each level of the Kirkpatrick evaluation hierarchy. Moreover, the robust and
scientifically guided CRM training program was believed to represent an important
mechanism for addressing the human element in aviation accidents in the US Navy.
However, these new programs must be evaluated to ensure that they meet the aeronautical
operational requirements.
Salas (2008) used Kirkpatrick's assessment of training as a framework for assessing the
effectiveness of CRM training programs in aviation. Specifically, the review was organized
40
by the type of evidence collected after training (i.e., interaction, learning, behavior, and / or
organizational effectiveness). The review resulted in the identification of 58 studies that
emerged to assess the effectiveness of aeronautical CRM training programs. He then
described the status of the CRM assessment efforts in relation to each level of assessment
identified by Kirkpatrick. Specifically, studies that evaluated training at only one level will
be reviewed first, starting with those that collect interaction data and end with organizational
result/effectiveness data collection. There will then be a briefing review of studies that
evaluated training at multiple levels as argued by Kirkpatrick. Although some have argued
in the past that there was no evidence that CRM was effective, this review concluded that
some evidence existed. The image that emerged after reviewing the evidence in the current
frame indicated that CRM training was effective. CRM training programs seemed to produce
positive feedback for participants, learning, and applying behavior gained through
simulations or online/on-the-job. The review showed that although there were still some
rough points in terms of evaluating CRM training programs that have been implemented,
trends seemed to suggest that CRM training had an impact on multiple aspects of individuals
and program completion teams.
Chang (2010) examined the Kirkpatrick training assessment model by evaluating the sales
training program that was taking place in an institution in the hospitality industry. Also, he
addressed these issues by examining the impact of the Kirkpatrick’s assessment model, with
a special assessment of the relationships between the four levels. He attempted to examine
training intervention based on performance data before and after the comparative
intervention. There were, however, extensive and multiple data for evaluating different
variables such as knowledge, skills, functionality, and organizational influence.
Relationships between variables were demonstrated. Moreover, he supported his ideas by
implementing all four levels of evaluation as fully as possible in the Organization.
Implementation at levels 1 and 2 will not only be a valid indicator for levels 3 and 4. The
implementation of the upper levels only will not verify learner interaction (level 1) or
learning (level 2). Results indicated that learning occurred (level 2) in training, improved
functionality (level 3), and organizational results were achieved (level 4). The first recurring
assumption in the literature is that the levels are arranged in ascending order and that the
model has a hierarchical character. Therefore, higher levels are more valuable and important
than lower levels.
41
Rouse (2011) provided concrete tips that health information management instructors can
apply in the process of evaluating the effectiveness of their courses and programs. The study
used the Kirkpatrick evaluation model to provide a framework that health management
instructors can use to improve the standard course evaluation form.
Röttger (2015) assessed the effectiveness of classroom–based Bridge Resource Management
(BRM) training for junior naval officers, where general principles of human behavior and
performance in teams and under pressure were transferred to them. For the 117 study
participants, assessment criteria were evaluated at all levels as determined by Kirkpatrick
that is assessment of personal training, knowledge, attitudes, behavior, and performance
while commanding a vessel during real practice in the world.
BRM participants gave a better assessment of personal training and more knowledge of
BRM than controls. The training did not result in differences between groups in relation to
BRM-related attitudes, or the presentation of non-technical skills or overall success in
practice. In the design of both BRM and CRM training courses, the effective application of
general principles in a particular context must be determined and application must be
emphasized during training.
The USCG (2015) Training Division provided guidelines for the conduct of standardized
evaluations of performance-based resident courses and other performance interventions
administered in the Coast Guard training system. Assessment data was used to help make
critical training decisions and future design decisions. For the purpose of the Standard
Operating Procedures (SOP), the Kirkpatrick model is used as a model for Coast Guard
assessments. Formative assessment is an ongoing process of data collection to improve the
program, product or instruction during the design and development phase. Formative
evaluation has been applied to both educational products and educational process.
There was a strong correlation between Level 1 and 2 evaluations. There is a strong
correlation between the assessment of Level 3 and 4. If the learner is able to perform the new
skill in the job, it is likely to have a positive impact on the organization. Evaluating high
quality is a waste of time. However, it guarantees the application while working and ensures
that subsequent results are maximized.
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Schuermann & Gohl (2016) sought to determine the current status of CRM in aviation and
other industries by providing detailed information on training programs and to clarify what
works well in training and what does not. Semi-structured interviews were conducted to
answer the research questions. All interviews were conducted by the interviewer and lasted
25 minutes to 1 hour. Interviews were recorded to protect all information. He focused on
cross-industry findings by presenting results based on expert interviews. With reference to
the evaluation of training, almost all experts indicated that it was not possible to evaluate
CRM training at the four levels of the Kirkpatrick assessment model. This finding
corresponds to the meta-analysis of Salas et al. (2008) who have hardly found studies that
evaluated CRM training at all four levels. Qualitative interviews, he perceives, are a valuable
tool to find comprehensive information.
Louise (2017) evaluated training to see if managers at the health care establishment feel that
the training they received was sufficient to implement performance management initiatives.
A single method of qualitative interviews was used to facilitate a more accurate analysis of
managers' views and perceptions in order to achieve the research goals and objectives of the
study.
Training reduces organizational risk, promotes organizational change, builds teams,
promotes communication and distributes information and knowledge during skills
development. Training empowers individuals through a systematic approach that expands
and influences their knowledge, attitudes and skills that enhance individual, collective and
organizational effectiveness. Reaction assessment considers the multiple reactions of
different participants. Evaluate the results of assessing whether the goals are achieved at
immediate, intermediate, and ultimately levels. The Kirkpatrick’s Training Assessment
Model assesses effectiveness by looking at participants' reactions, attitudes and behavior
after training.
2.5 Chapter summary
This chapter focused on reviewing the causes of marine accidents, and it indicated that the
NTS and not the TS are the main causes of such accidents (ABS, 2004). Thus, a review of
the different NTS has been presented, including both cognitive and social skills.
43
Moreover, to carry out the assessment of the effectiveness of NTS training courses, different
models of assessment had been reviewed. However, it was found that Kirkpatrick’s
evaluation model is the most efficient and widely acknowledged one. The Kirkpatrick model
emphasizes assessment of reaction, learning, behavior, and outcome levels. Although the
Kirkpatrick’s model was never intended to describe exactly what to assess and how to do, it
provides an overview of how to proceed. The model is still serving as the most widely used.
Also, it provides bases and standards that other techniques are used and compared. Assessing
the impact and effectiveness of courses is essential so that strengths, weaknesses and
improvements can be identified. The Kirkpatrick assessment framework, proposed and
developed over 65 years, has been used as a key model for identifying and targeting training
interventions in business, military and industry alike.
Also, the review clarified that the other models stem from Kirkpatrick’s model. The literature
suggested that the model is very useful in identifying the different points at which
measurement can occur. The review has also highlighted some interrelated skills that affect
the effectiveness of training and the transfer of learning. However, the reviewed studies
mostly concentrate on the evaluation process to level one and two only, and neglect the upper
levels three and four. For the marine industry, however, the upper levels are more important
to make sure that the effectiveness of such courses will reflect onboard ships, thus increasing
safety of operation.
Finally, the review clearly indicated that there is a need to clearly identify the reasons for the
assessment because the tools and techniques used will be changed depending on the reasons
for the evaluation and who is the person concerned. In addition, Kirkpatrick’s evaluation
model is a composite model, which is used only after the implementation of the training
program. The model is used to assess the merits and values of the training program and to
provide a summary report of the training results. Thus, contributing to its continuation and/or
improvement. It is evident from the literature review that marine safety development is
needed for accountability in marine officers’ development and resulted impact will continue
to grow. One of the greatest challenges is the creation, development and use of evaluation
models.
Chapter Three
Research Design and Methodology
3.1 Overview
3.2 Questionnaire Design and Development
3.3 Population and Sample Size
3.4 Data Collection
3.5 Methods of Data Analysis
3.6 Research Hypothesis
3.7 Importance Performance Analysis
3.8 Chapter Summary
45
Chapter Three: Research Design and Methodology
3.1 Overview
A meta-analysis of trainees’ data was conducted to examine the relationship between
specified NTS courses and the effectiveness of training in organizations. Kirkpatrick’s
model was utilized as the framework with its four levels as an evaluation criteria. This
chapter also discussed the methodological rationale and data collected and different methods
of analysis.
3.2 Questionnaire Design and Development
A questionnaire based on Kirkpatrick’s modal technique was designed as an effective tool
to collect data and assess the satisfaction of NTS training provided by AASTMT.
Kirkpatrick’s evaluation model Level 3, is rarely used as the sole instrument for making
decisions about training interventions, so including stakeholders should be considered as
additional evaluation for Level 4 “triangulate” or augment Level 3 data. Thus, the
questionnaire should be circulated for both trainees and shore staff to measure the
satisfaction of both levels behavior and results.
A detailed review of the previous studies in the same field had been viewed to verify each
statement of the questionnaire as given in Table (3-1). The sources for each statement used
in the designed questionnaire are provided in Table (3-1).
46
Table (3-1): Sources of the questionnaire’s statements
No. Statements Source
1 Trainee has the ability to communicate well for technical
proficiency and safety.
Saqip, (2018), Wealth Foundations,
(2018)
2 Trainee personal problems cannot adversely affect his
performance.
Saqip, (2018), Wealth Foundations,
(2018)
3 Trainee feels obligated to mention psychological stress or
physical problems to other personnel before or during a duty.
O’Connor, (2012)
4 It is from trainees’ responsibilities towards the crew to identify
emergencies during the pre-sailing brief.
O’Connor, (2012), Saqip, (2018),
Wealth Foundations, (2018)
5 When the trainee is in charge, he must explain the plans and
procedures and must be sure that the information is understood
by others and can be implemented.
O’Connor, (2012)
6 Trainee helps new staff get up to speed quickly, gives people
challenging job assignments, and monitors performance.
O’Connor, (2012), The JARTEL group,
(2012)
7 Trainee provides people with assignments to develop their skills,
gives timely coaching, acts as a role model for development.
The JARTEL group, (2012)
8 Trainee must be aware of, and sensitive to, the personal problems
of other team members.
O’Connor, (2012)
9 Trainee could be able to consider the personal work styles for
effective team coordination.
The JARTEL group, (2012)
10 Trainee is aware of the extent of the change in behavior,
knowledge and skill level.
The JARTEL group, (2012)
11 Trainee is able to explain the contribution that learning and
development makes to his/her team.
The JARTEL group, (2012)
12 Trainee feels he/she fits better for the job. O’Connor, (2012)
13 In critical situations, trainee relies on his superiors to tell him
what to do.
O’Connor, (2012)
14 Trainee is less effective when stressed or fatigued. O’Connor, (2012)
15 Many improvements have been made to our organization
interventions as a result of learning and development evaluation
information.
The JARTEL group, (2012), Saqip,
(2018), Wealth Foundations, (2018)
16 Trainee is able to apply what he/she learned in the course on the
job during emergency situations (drills).
O’Connor, (2012)
17 Trainee should alert others to their actual, or potential, work
overload.
Priority Matrix, (2018), Queensland
Teacher’s union, (2018)
18 Trainee will inform other team members when the workload
becomes (or is about to become) excessive.
Priority Matrix, (2018)
Queensland Teacher’s union, (2018)
19 Trainee and managers take joint ownership for learning and
development.
Priority Matrix, (2018), Queensland
Teacher’s union, (2018)
20 Senior management reviews the contribution of learning and
development activities in achieving the company's goals and
objectives as a result of attending the course.
Priority Matrix, (2018), Queensland
Teacher’s union, (2018)
21 Trainee's ability to make good decisions in emergencies has
become as it is in routine situations.
O’Connor, (2012), The JARTEL group,
(2012), Wealth Foundations, (2018)
22 A regular debriefing of procedures and decisions after any task
is an important part of developing and maintaining effective
team co-ordination.
O’Connor, (2012)
23 Trainee became less likely to make personnel judgment errors in
an emergency.
Saqip, (2018), Wealth Foundations,
(2018)
24 There is noticeable and measurable change in the activity and
performance of the trainee when back in his/her role.
The JARTEL group, (2012)
25 The change in behavior and the new knowledge level of the
trainee is sustained.
Saqip, (2018), Wealth Foundations,
(2018)
26 Overall, I am satisfied with this course. O’Connor, (2012)
47
A cover page was attached to the questionnaire to explain mainly the purpose of this
questionnaire and give instructions on how the user will fill the questionnaire in brief.
The questionnaire was constructed to have two main sections:
1. The first section asks for demographics data to classify the respondents according to
their company name, nationality, type of the training course and field, current maritime
rank, age and years of experience.
This part of the questionnaire was designed to provide a thorough demographic
characteristics of the marine officers’ and their company managers (the respondents) at the
same time to provide initial information that are extremely helpful during the interpretation
of the results and hypotheses testing.
2. The second section was designed to achieve the research objectives through 26
statements that was developed for the Marine Officers’ NTS Questionnaire (MONTSQ).
The statements were refined number of times and the questionnaire was reviewed for
clarity of instructions, completeness of alternatives, and the use of appropriate language
and terms.
The questionnaire was shortened somehow by modifying and reducing some statements
related to the number and type of skills to decrease the response time according to a pilot
study recommendations. The final version of the questionnaire contained 26 statements
covering five variables. The 26 statements include: 5 statements dealing with effective
communication, 6 statements dealing with leadership and cooperation, 5 statements dealing
with situational awareness, 4 statements dealing with workload management, 5 statements
dealing with decision-making, and 1 overall satisfaction statement.
A complete final copy of the constructed questionnaire is given in Appendix (B). The
questionnaire statements scale used 5-point Likert scale from 1 to 5, to indicate the level of
agreement or disagreement using the following scales: 1=strongly disagree, 2=Disagree,
3=Neutral, 4=Agree, 5 =strongly agree.
The questionnaires used the 5-point Likert scale to determine the length of each scale
(minimum and maximum value) as shown in Table (3.2). The range is calculated by (5− 1 =
48
4) then divided by 5 (4 ÷ 5 = 0.80). Then, this number is added to scale to determine the
range of each scale and its evaluation.
Table (3-2): The range of 5-point Likert scale and its scale evaluation
Ranking Level of
agreement The range
Scale evaluation
1 strongly disagree 1 – 1.80 Very Poor
2 Disagree 1.81 – 2.60 Poor
3 Neutral 2.61 – 3.40 Acceptable
4 Agree 3.41 – 4.20 Good
5 strongly agree 4.21 – 5 Very Good
Procedure. The MONTSQ was distributed to the marine officers who attended the BRM
and ERM training courses at AASTMT during the period from (October 2012) to (October
2017). This period covers the period from the beginning of such courses’ delivery at
AASTMT to the time of executing the adopted questionnaire. The trainees’ shipping
companies were contacted by the researcher to assign a contact person to distribute the
MONTSQ questionnaire for all the trainees (Marine Officers either onboard ships or in
leave) and the other set for the responsible shore staff for evaluating the gained results from
attending the course.
3.3 Population and Sample size
The population for this study was all marine officers who attended the BRM and ERM
courses at AASTMT, either in the CSC or the simulator in the CMTT. The total enrolled
trainees population was 314 trainees up to the start time of this study and they present two
groups, marine officers who got their courses at their own expense and do not belong to a
specific shipping company, while the second group is the marine officers who are belonging
to a specific shipping company.
The sample of this study was limited to the marine officers who are holding a job in a specific
company. Therefore, the number of marine officers who are employed in specific company
was 187 trainees.
49
Sample Size
Depending on the type of research involved, some experts considered the sample size of 30
is a minimum guideline for correlational, causal-comparative, and true experimental
research (Gay, 1996; Gay & Airasian, 2002). For regression types of analytic work, a good
rule of thumb is 15 participants per variable (Tabachnick & Fidell, 2001) which means at
least 75 participants if we consider five variables.
As there were 187 participants in this study as the sample size, the statistical power
requirements have been met.
3.4 Data Collection
The data were retrieved from the trainees of CMTT and also from the CMC. A survey was
performed on 187 marine officers to collect information in regard with their training
activities and their attitudes about NTS courses. The percentage of the returned questionnaire
response rate was 67.4% since there were 126 respondents who only answered from the total
sample (187 marine officers).
Questionnaires were mailed to the corresponding companies that sent their Marine Officers
to attend NTS courses at AASTMT. The responses data were collected after four to six
months from the time of course completion. During 45 days from the time of mailing the
questionnaires, the responses from either the company or the trainees were received
electronically via email. Most of the questionnaires were filled, scanned and re-sent while
others were filled electronically. All the questionnaires were sent through the contacted
companies except only one company where their participants responded personally.
All returned questionnaires were reviewed for stray marks and other damages. Response
files were created by entering data into an EXCEL sheet, then transferred for further
advanced statistical analysis package.
Questionnaires were sent by e-mail and only 252 (126 marine officers + 126 associated shore
staff managers) were returned. Undeliverable questionnaires were because of the move of
few marine officers who left their addresses or/the mail forwarding timeout period had
expired. There was no error found in the received questionnaires from both trainees and
50
shore staff of the company. This represents the actual percentage rate of the received
responses as 67.4% (252/374).
3.5 Methods of Data Analysis
First, data from MONTSQ were entered into Statistical Package for the Social Sciences, 24
(SPSS) to perform the relevant analyses. But before entering the data into SPSS, names and
codes were assigned to each variable because all data in SPSS should be entered as numbers.
The analysis was maintained by SPSS program. Statistical measures such as means and
standard deviations were computed as well as frequencies, tabulation, correlation, regression
and t-test analysis.
The data used in this study were first checked for its validity and reliability, thus, analyzed
to test the ten hypotheses that guided this study. The analysis of the entered data included
descriptive and inferential statistics. The descriptive statistics mainly introduced the mean
and the standard deviation. For inferential statistics, the paired-samples t-tests were utilized
to determine the difference between the means of the two data sets (trainees and
organizations) after testing the hypotheses.
This rigorous approach used a statistical power analysis by identifying appropriate sample
size, the level of statistical significance (alpha), the amount of power desired in a study, and
the effect size involved in statistical inference (Cohen, 1992; Creswell, 2005). A significance
level is a probability level that reflects the maximum risk to take that any observed
differences are due to chance (Creswell, 2005). It is usually set at .05 (Cohen, 1992;
Creswell, 2005; Newman, 1994). Two-tailed test of significance was utilized as the research
adopted a non-directional hypotheses.
Descriptive statistics
Descriptive statistics always arrange and summarize data thus providing useful information
in the form of well the known statistical measures, graphs and tables. There are two main
statistical measures, its central tendency and dispersion. There are many ways to find the
typical values of central tendency measures and the most used are the arithmetic mean,
median and mode. The most common measures of dispersion width are range, the standard
51
deviation and the variance. The standard deviation is simply the square root of the variance,
so getting one of them means researcher got the other one (Newman, 1994).
For the analysis of the questionnaire’s items, the response scale ranged from 1 to 5. For each
item of response, the following measures will be calculated: mean, minimum, maximum and
standard deviation. Then, the standard deviation is used for determining how disperse the
agreement on certain item was among the respondents. If the value of standard deviation is
small that indicates a firmly agreement but if it is large that means data are more dispersive
around its mean.
The frequencies of the questionnaire categorical data were demonstrated in tables or graphs
to describe the following:
• Number of organizations/trainees involved in this study.
• Number of marine officers who attended the NTS training courses.
• Age classification of respondents
• Current rank of respondents
• Years of experience of respondents
These information provided an initial overview of the demographic data.
Questionnaire validity and reliability testing
Validity is defined as the extent to which data collected accurately measure what they were
intended to measure (Saunders and Thornhill, 2003). To fulfill the validity procedures, the
content validity check was performed; the questionnaire was validated by a panel of experts
(pilot study) consisting of three academic staff members and seven senior trainees (captains
and chief engineers). Based on expert suggestions, changes were made to improve the
content and the clarity of the questionnaire. After collecting pilot study data, statistical
analysis was employed to ensure the validity of the questionnaires by calculating Pearson’s
correlation coefficient (r) between each statement and the total statements of the
questionnaire and between the total of each dimension and the total statements of the whole
questionnaire.
Reliability is a concept used to evaluate the quality of the research. It indicates how well a
method, technique or test measures something. It is important to consider reliability when
52
researchers are creating their own research design, planning their methods and writing up
their results.
Reliability test is important as it refers to the consistency across the parts of a measuring
instrument (Huck, 2007). A scale is said to have high internal consistency reliability if the
item of a scale “hang together” and measure the same common measure on internal
consistency ”reliability”.
Cronbach’s alpha simply provides an overall reliability coefficient for a set of questions.
Cronbach’s alpha reliability coefficient normally ranges between 0 and 1. The closer
coefficient is to 1.0, the greater is the internal consistency of the items in the scale. It is
viewed as the most appropriate measure of reliability when making use of Likert
scale/multiple Likert questions in a survey/questionnaire that form a scale and to determine
if the scale is reliable.
According to Ueno and George (2003), Cronbach’s alpha coefficient less than 0.6 is
considered poor while coefficient 0.7 and more is considered acceptable. However, the most
agreed value on a minimum internal consistency is coefficient of 0.7 (Nick, 2007).
Correlation analysis
Pearson’s correlations coefficient represents the relationship between pairs of data sets. The
correlation coefficient provides the direction and strength of the relationship between two
selected variables. The correlation coefficient is denoted by “r”. To find r, the following
formula could be used:
Where: N: Quantity of Information
Σx: Total of the First Variable Value
Σy: Total of the Second Variable Value
Σxy: Sum of the Product of & Second Value
Σx2: Sum of the Squares of the First Value
53
Σy2: Sum of the Squares of the Second Value
Direction means the two variables either directly or inversely proportional. Its numerical
value ranged between (0.0 to 1.0). It is a useful tool to know the nature of the relationship
between the variables under study.
Turning to the questionnaire, first it is needed to find out the correlation coefficient between
each two interval variables from the following five variables:
1- Effective communication;
2- Leadership and cooperation;
3- Situational awareness,
4- Workload management, and
5- Decision-making
Looking at these five variables, the correlation analysis will show how each one of them
could affect the effectiveness of the course on DEOW.
The correlation illustrates the direction and strength of a relationship between two variables.
A negative correlation leads to inverse relationship: high scores on one variable are linked
with low scores on another.
Followed to this data test, it’s required to determine whether or not the correlation is statistically
significant (unlikely to have occurred by chance). A value approaching zero indicates the
absence of any linear relationship between the two considered variables. Table (3-3) shows the
strength scale of the correlation coefficient according to the value of r:
Table (3-3): Strength scale of correlation
Strength of relationship Value of r
Very weak 0 ≤ r < 0.3
Weak 0.3 ≤ r < 0.5
Moderate 0.5 ≤ r < 0.7
Strong 0.7≤ r < 0.9
Very strong 0.9 ≤ r < 1
Source: Newman, I., & Newman, C. (1994)
54
3.6 Research Hypotheses Testing
Hypothesis testing is a form of statistical inference that uses data from a sample to draw
conclusions about a population parameter. Hypothesis is mainly a tentative assumption about
a parameter. To formulate the assumptions two hypotheses are always defined; the first one
called “null hypothesis” and is noted by H0, while the second called “”alternative
hypothesis” and is noted by H1.
Figure (3-1): Research hypotheses and variables
The hypothesis testing procedure involves using sample data to determine whether to accept
or reject H0. If H0 is rejected then alternative hypothesis H1 should be accepted. In conducting
the hypothesis testing, level of significance for the test called (α) should be specified and
commonly α = 0.05 or α = 0.01. While there is another concept known as “P-value” is often
called the observed level of the significance of the test. If the P-value is less than α, then H0
can be rejected and then, accept H1. Hypotheses testing are useful to examine if the variables
affect each other and whether it is statistically significant or not.
Sat
isfa
ctio
n O
rgan
izat
ions
Sat
isfa
ctio
n T
rain
ees
Trainees
Organization
55
Regression Analysis
In statistical modeling, regression analysis is a set of statistical process for estimating the
relationship among variables. Regression analysis is used to understand the relationship
between the independent variables and the dependent variable, and to explore the forms of
these relationships.
Regression analysis is a reliable method of identifying which variable has more impact on a
topic of interest. The process of performing a regression allows to determine confidently
which factors matter most, which factors can be ignored, and how these factors influence
each other. It is used when researcher wants to predict a continuous dependent variable from
a number of independent variables. If the dependent variable is dichotomous, then logistic
regression should be used.
The multiple linear regression equation is as follows:
,
where is the predicted or expected value of the dependent variable, X1 through Xp are p
distinct independent or predictor variables, b0 is the value of Y when all of the independent
variables (X1 through Xp) are equal to zero, and b1 through bp are the estimated regression
coefficients. Each regression coefficient represents the change in Y relative to a one unit
change in the respective independent variable. In the multiple regression situation, b1, for
example, is the change in Y relative to a one unit change in X1, holding all other independent
variables constant
Multiple regression explains the relationship between multiple independent (predictor)
variables and one dependent. A dependent variable is modeled as a function of several
independent variables with corresponding coefficients, along with the constant term.
Multiple regression requires two or more predictor variables, and this is why it is called
multiple regression. There are several types of multiple regression analysis (e.g. standard,
hierarchical, set wise and stepwise) only stepwise will be used in this study.
Stepwise regression focuses on the best combination of independent variables that would
predict the dependent variable. In stepwise regression, predictor variables are entered into
56
the regression equation one at a time based upon statistical criteria. At each step in the
analysis, the predictor variable that relatively contributes the most to the prediction equation
in terms of increasing the multiple correlations.
Few assumptions should be checked for multiple regression such as normality and
collinearity, stepwise regression always resolves multi-collinearity. It inspects the predictors
and chooses the ones that really contribute to predicting our dependent variable and excludes
those who don’t.
3.7 Importance-Performance Analysis
Importance-Performance Analysis (IPA) procedure is a practical and useful method that can
help policymakers to improve the performance. A study by Tsoukatos (2008) demonstrated
the potential of IPA as a decision-making tool for service management. The study concluded
that service managers, regardless of industry, should use IPA as an aid in making their
decisions to allocate quality efforts and resources. In addition, IPA can be used to evaluate
the effectiveness of allocating service quality resources according to customer requirements.
Moreover, IPA can produce valuable recommendations for optimal resource deployment to
improve service performance in areas of high customer interest.
In this study the average value of each variable attributes was considered by direct evaluation
by trainees and organizations, followed by calculation in the specified coordinate system,
where the horizontal axis represents performance, and the vertical axis represents importance
(Martilla & James, 1977), and the results are presented in a four-quadrant grid Figure (3-2)
known as IPA procedure.
The ''Performance'' was considered by the evaluation of organizations’ perception of the
quality of NTS courses delivered by the marine institutions, while the ''importance'' refers to
the assessment of those NTS courses importance by trainees.
IPA is an easy methodology that can help the organization that selects experts focus their
resources or reallocate them according to the features that fall under each category. IPA may
allow extension professionals to identify the characteristics of an issue, or a resource that
should receive the most attention (Warner, et al., 2016).
57
Additionally, the benefit of the IPA is that it generates a clear view of how important certain
elements are in comparison with how satisfied they are to the organization (Martilla &
James, 1977). Since this method was presented by Martilla & James (1977) and due to its
simplicity and stress-free application, it is a widely accepted method for measuring service
quality. They added that IPA model is a useful tool to assess competitive rank and enable
ordering of available strategies to enrich client satisfaction.
Concentrate Here
(high importance and low
satisfaction with performance)
Keep Up The Good Work
(high importance and high
satisfaction with performance)
Low Priority
(low importance and low
satisfaction with performance)
Possible Overkill
(low importance and high
satisfaction with performance)
Figure (3-2): Importance-Performance Matrix
Source: Martilla & James (1977)
IPA is considered a simple and practical method. It has been used in various industries for
more than 40 years such as; tourism (Hudson, Hudson, & Miller, 2004; Oh, 2001; Wade &
Eagles, 2003), education (Nale, Rauch, Wathen, & Barr, 2000), medical service (Piñeiro,
Boubeta, & Mallou, 2006; Yavas & Shemwell, 2001), production (Matzler, Bailom,
Hinterhuber, Renzl, & Pichler, 2004), traffic and transportation (Tam & Lam, 2004),
services (Joseph, Allbright, Stone, Sekhon, & Tinson, 2005), and others. Although the
original IPA is a very useful and valuable method, over the years, it has been subject of
numerous modifications and criticism by many researchers (Abalo, Varela, & Manzano,
2007; Bacon, 2003; Deng, Kuo, & Chen, 2008; Feng M. et al., 2014; Johns, 2001; Kuo,
Chen, & Deng, 2012; Lin, Chan, & Tsai, 2009; Matzler et al., 2004).
PERFORMANCE
IMP
OR
TA
NC
E
58
As a result of applying IPA, a matrix is the output of this method, which is created by plotting
individual attributes' importance’s mean values and satisfaction’s mean values, both will be
paired and used as coordinates for the plotting on a two-dimensional graph having four
quadrants (Hugo & Lacher, 2014). Each quadrant is divided by the performance of attribute
from high to low (in horizontal axis) and the importance of attribute from high to low (in
vertical axis). According to Martilla & James (1977), the four quadrants are illustrated in
Figure (3-2) as;
Quadrant (1) Keep up the Good Work, this quadrant has high importance and high
performance that indicates all attributes located in it means that the clients value such
attribute as relevant to the service presented. Moreover, clients also are satisfied with the
service, and must maintain such attribute to achieve maximum benefits, and it is important
to sustain ideal level of possessions to suit its maximum benefits.
Quadrant (2) Concentrate Here, includes the attributes with high importance and low
performance, which indicates the critical performance deficits whereby the importance
attribute fails to satisfy the clients. In this quadrant such attribute should become a priority
to be attained first, and immediate actions should be taken otherwise it may become a major
weakness that affect negatively in the clients satisfaction.
Quadrant (3) Low Priority, includes the attributes with low importance and low
performance, which demonstrates that the attribute underachieving and doesn’t require any
further actions, as it does nothing to the improvement of the services in the eyes of clients
who used it.
Quadrant (4) Possible Overkill, includes the attributes with low importance and high
performance, which shows that the attributes were successfully achieved but suitably
deemed inappropriate by the clients. Hence, it is important to redefine the need to assign
more resources to such attribute, and to shorten these resources allocation and divert the
efforts to the other attribute that needs immediate action.
In this thesis, descriptive statistics to the questionnaire revealed the mean and standard
deviations related to respondents' reply for each statement. Thus, the mean values of the
importance and performance scores of the attributes were plotted on the four quadrants plot.
The median values then, are used as a measure of central tendency to divide the x-and y-axis
59
into four quadrants on a scatter plot and create the origin. Martilla and James (1977)
explained that the median is considered a better measure of central tendency especially when
the dividing scales are five-point scales.
By conducting the questionnaire, and consulting existing literature on the topic, the
researcher identified the 25 statements, and the mean ratings derived from their descriptive
statistics are depicted in chapter four. The mean ratings from the descriptive statistics for
trainees and organizations were plotted as the mean importance placement of the vertical
axis, while the mean ratings for organization were plotted as the mean performance
placement of the horizontal axis on the IPA grid in Figure (3-1).
3.8 Chapter Summary
Various ways were considered to describe the data from the questionnaire. In addition, it
was seen that categorical data described using frequencies, and that interval data may be
described using central tendency, and dispersion measures. When data is extremely skewed
to one end of the scale, the median may be a more reliable measure of central tendency than
the mean. It is not unusual to find out that both mean and median are cited to demonstrate
the reliability of the mean – or otherwise.
This chapter discussed and reviewed the methodological literature of the study, population
and sample, training/intervention program, data collected, and methods of data analysis
including correlations, stepwise, multiple regression and IPA. Next, the detailed of the data
analysis results are presented in Chapter 4.
Chapter Four
Analysis, Results and Discussions
4.1 Overview
4.2 Descriptive Statistics
4.3 Descriptive Analysis
4.4 Data Reliability Testing
4.5 The Hypothesis Testing
4.6 Importance – Performance Analysis
4.7 Discussion
4.8 Chapter Summary
61
Chapter Four: Analysis, Results and Discussions
4.1 Overview
This chapter begins by presenting the descriptive statistics for the demographics data
followed by frequencies of the response data. Other statistical data analysis was employed
by examining the reliability and validity of the questionnaire, and testing the hypotheses
followed by correlation and regression analysis. At the end, importance-performance
analysis was applied and discussed.
4.2 Demographic statistics
The demographic statistics of the trainees were classified as shown in the following tables
which describe respondents’ number, profession (course type), age, and experience.
Table (4-1) presented the demographic data collected from the respondents of the survey.
The classification of Marine Officers (Trainees) in both BRM and ERM is represented in
numbers with a total of 126 respondents. The average age was around 40 years, with about
15 years of experience on the average.
62
Table (4-1): Frequency summary of demographic data for trainees
Demographic data
Course Name BRM Frequency ERM Frequency Frequency
Current Rank
Master 16 Ch. Eng. 12 28
Ch. Mate 18 2nd Eng. 15 33
2nd Mate 20 3rd Eng. 13 33
3rd Mate 19 4th Eng. 13 32
Total 73 Total 53 126
Age
From 20 to less than 30 years 38
From 30 to less than 40 years 41
From 40 to less than 50 years 25
More than 50 years 22
Total 126
Experience
Less than 5 years 25
From 5 to less than 10 years 29
From 10 to less than 15 years 30
From 15 to less than 20 years 19
More than 20 years 23
Total 126
a) Number of respondents
It’s worth mentioning that the number of respondents from the trainees is equal to number
from the respondents of the organizations because the organization evaluation was done only
to their marine officers who actually responded to the questionnaire. Therefore, a total of
252 questionnaires have been received from trainees (126) and their corresponding
organizations (126) giving a total number of respondents of 252.
b) Course type
Table (4-2) and Figure (4-1) showed that the BRM course graduates and their companies
were 146 (73x2) respondents representing 57.9% (146/252) of the sample. While ERM
course graduates and their companies were representing 42.1% of the sample. This means
that there are 73 trainees who were enrolled in BRM and responded to the questionnaires
63
while 53 trainees were enrolled in ERM courses. Each trainee was assessed by his own
company by answering the questionnaire.
Table (4-2): Respondents according to course type data (Trainees and corresponding
organization)
Frequency
Trainees
Frequency
Organization Percent
BRM 73 73 57.9
ERM 53 53 42.1
Total 126 126 100.0
Figure (4-1): Frequency and percent of respondents according to course type (BRM
and ERM)
C) Trainees’ Age
Table (4-3) and Figure (4-2) showed age categories of trainees. The age distribution percent
demonstrated that most of the trainees’ age ranked between 30 to more than 50 representing
69.8% of the total. The maximum class percentage of trainees’ age is (32.5%) and lies
between 30 to less than 40 years, while the minimum class percentage of trainees’ age
(17.5%) for ages more than 50 years.
BRM73
57.9%
ERM53
42.1%
COURSE TYPE
64
Table (4-3): Trainees’ data according to age classification
Frequency Percent
From 20 to less than 30 years 38 30.2
From 30 to less than 40 years 41 32.5
From 40 to less than 50 years 25 19.8
More than 50 years 22 17.5
Total 126 100.0
Figure (4-2): Trainees’ data according to age classification
D) Years of Experience
Table (4-4) and Figure (4-3) showed that the trainees who had years of experience between10
to 15 years represents 23.8% as the maximum percentage class of experience. While the
minimum class percentage is 15.1% (from 15 to less than 20 years) of the total number of
trainees. Most of the trainees have experience in their work mostly more than 10 years of
experience with percentage ratio 57.2%.
30.2%32.5%
19.8%17.5%
FROM 20 TO LESS THAN 30 YEARS
FROM 30 TO LESS THAN 40 YEARS
FROM 40 TO LESS THAN 50 YEARS
MORE THAN 50 YEARS
AGE
Percent
65
Table (4-4): Trainees’ data according to the experience period
Frequency Percent
Less than 5 years 25 19.8
From 5 to less than 10 years 29 23.0
From 10 to less than 15 years 30 23.8
From 15 to less than 20 years 19 15.1
More than 20 years 23 18.3
Total 126 100.0
Figure (4-3): Trainees’ data according to years of experience classification
4.3 Descriptive Analysis
Descriptive analysis was done for each variable of the five adopted variables considering
firstly the analysis of trainees and their organizations. The five adopted variables in this study
are: effective communication, leadership and cooperation, situational awareness, workload
management and decision making that proposed to affect satisfaction of NTS courses. The
analysis includes the frequencies distribution, mean and standard deviation for each
statement and for each variable.
19.8%
23%
23.8%
15.1%
18.3%
Experience
Less than 5 years From 5 to less than 10 years From 10 to less than 15 years
From 15 to less than 20 years More than 20 years
66
4.3.1 Effective communication
4.3.1.1 Descriptive analysis for trainees’ data
Figure (4-4) showed that 99.2% of the trainees responded “agree” (this agreement is split as;
74.6% for strongly agree, and 24.6% for agree), i.e. trainees have the ability to communicate
well for technical proficiency and safety. 88.1 % of the trainee respondents approved that
after attending the course, trainee personal problems cannot adversely affect his
performance. While 78.3% feel obligated to mention psychological stress or physical
problems to other personnel before or during a duty.
In addition, 90.5% from the trainee respondents believe that it is from their responsibilities
towards the crew to identify emergencies during the pre-sailing brief. 94.4% when in charge,
they must explain the plans and procedures and be sure that the information are understood
by others and can be implemented as shown in Figure (4-4).
From these results, it can be stated that about 91.9% of the trainees’ respondents decided
that “effective communication” is considered as an influencing variable in the efficiency of
the NTS training course.
Figure (4-4): The frequency percent of the “Effective Communication” for trainees
74
.6
48
.4
45
.2 49
.2 52
.3
24
.6
39
.7
42
.1
41
.3
42
.1
0.8
7.1 9
.5
9.5
5.6
0
4.8
3.2
0 00 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
EFFECTIVE COMMUNICATION (TRAINEE)
Strongly Agree Agree Neutral Disagree Strongly Disagree
67
Furthermore, it is clear from Table (4-5) that the trainee respondents considered that the first
St. is the most important followed by the fifth St. The value of the mean response per
statement clarifies that the communication during emergency situations is the most important
for the respondents either in the safety briefing before sailing or the safety information to be
clearly delivered by the trainer and well understood by the crew. The overall mean for the
5-statements (4.56) indicates the importance of “effective communication” on the ships’
safety.
Table (4-5): Mean, Standard Deviation and Frequency for effective communication
statements (Trainee)
Statement Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee has the ability to
communicate well for
technical proficiency and
safety.
4.74 .758 94 31 1 0 0
After attending the course,
trainee personal problems
cannot adversely affect his
performance.
4.35 .968 61 50 9 6 0
Trainee feels obligated to
mention psychological stress
or physical problems to other
personnel before or during a
duty.
4.29 .893 57 53 12 4 0
It is from trainees’
responsibilities towards the
crew to identify emergencies
during the pre-sailing brief.
4.40 .864 62 52 12 0 0
When the trainee is in charge,
he must explain the plans and
procedures and must be sure
that the information is
understood by others and can
be implemented.
4.50 .826 66 53 7 0 0
Total 4.56 .862 340 239 41 10 0
68
4.3.1.2 Descriptive analysis for organizations’ data
Figure (4-5) indicated that 73.8 % of the organization respondents “agree” (this agreement
is split as; 50% for strongly agree, and 23.8% for agree) that the trainee has the ability to
communicate well for technical proficiency and safety. 77.7 % of the organizations
respondents approved that after attending the course, trainee personal problems cannot
adversely affect his performance. While 76.2 % feel obligated to mention psychological
stress or physical problems to other personnel before or during a duty.
76.9 % from the organization respondents believe that it is from trainees’ responsibilities
towards the crew to identify emergencies during the pre-sailing brief. While 76.1 % when in
charge, they must explain the plans and procedures and be sure that the information are
understood by others and can be implemented.
Figure (4-5): The frequency percent of the “Effective Communication” for
organization
From these results, it can be stated that about 76.1 % of the organization respondents agreed
that “effective communication” is considered as an influencing variable in the efficiency of
the NTS training course.
Furthermore, it is clear from the Table (4-6) that the organization respondents considered
that the first St. is the most important followed by the second St. According to the mean
value of each statement, the communication during emergency situations revealed as the
50
40
.4
39
.7
39
.6 42
.8
23
.8
37
.3
36
.5
37
.3
33
.3
24
.6
18
.3 21
.4
20
.7
21
.5
1.6 4 2.4
2.4
2.4
0 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
EFFECTIVE COMMUNICATION
(ORGANIZATION)
Strongly Agree Agree Neutral Disagree Strongly Disagree
69
most important for the organization respondents either in the safety briefing before sailing
or the safety information to be clearly delivered by the trainer and well understood by the
crew. The overall mean for the 5-statements (4.17) indicates the importance of “effective
communication” on the ships’ safety.
Table (4-6): Mean, Std. Deviation and Frequency for effective communcation
(Organization)
Statement Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee has the ability to
communicate well for
technical proficiency and
safety.
4.22 1.089 63 30 31 2 0
After attending the
course, trainee personal
problems cannot
adversely affect his
performance.
4.14 1.011 51 47 23 5 0
Trainee feels obligated to
mention psychological
stress or physical
problems to other
personnel before or
during a duty.
4.16 .973 50 46 27 3 0
It is from trainees’
responsibilities towards
the crew to identify
emergencies during the
pre-sailing brief.
4.14 .935 50 47 26 3 0
When the trainee is in
charge, he must explain
the plans and procedures
and must be sure that the
information is understood
by others and can be
implemented.
4.17 .961 54 42 27 3 0
Total 4.17 .994 268 212 134 16 0
70
Figure (4-6): Comparison of results for the Effective Communication variable from
trainees and organization point of view
Figure (4-6) shows that the percentage of trainees that strongly agree and agree is higher
than the corresponding percentage for the organization except for St. 3. While for neutral,
disagree and strongly disagree, the percentage of trainees is smaller than the organization for
all statements. Which means that trainee feels obligated to mention psychological stress or
physical problems to other personnel before or during a duty.
4.3.2 Leadership and cooperation
4.3.2.1 Descriptive analysis for trainees’ data
Figure (4-7) showed that 96.8% of the trainees responded “agree” (this agreement is split as;
60.3% for strongly agree, and 36.5% for agree), i.e. trainee helps new staff get up to speed
quickly, gives people challenging job assignments, and monitors performance. 91.3 % of the
trainee respondents approved that trainee provides people with assignments to develop their
skills, gives timely coaching, acts as a role model for development. While 88.1% aware of,
and sensitive to, the personal problems of other team members.
In addition, 89.7% from the trainee respondents believe that trainee could be able to consider
the personal work styles for effective team coordination. 88.1% trainee is aware of the extent
50
40
.4
39
.7
39
.6
42
.8
74
.6
48
.4
27
.8
49
.2
52
.3
23
.8
37
.3
36
.5
37
.3
33
.3
24
.6
39
.7
42
.1
41
.3
42
.1
24
.6
18
.3
21
.4
20
.7
21
.5
0.8 7
.1 9.5
9.5
5.6
1.6 4 2.4
2.4
2.4
0
4.8
3.2
0 00 0 0 0 00 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
EFFECTIVE COMMUNICATION
(TRAINEE/ORGANIZATION)
Strongly Agree Org. Strongly Agree Trainee Agree Org.
Agree Trainee Neutral Org. Neutral Trainee
Disagree Org. Disagree Trainee Strongly Disagree Org.
Strongly Disagree Trainee
71
of the change in behavior, knowledge and skill level. Also, 91.3% decided that trainees are
able to explain the contribution that learning and development makes to their teams.
Figure (4-7): The frequency of the “leadership and cooperation” for trainees
It is clear from Table (4-7) that the trainee respondents considered that the first St. is the
most important followed by the second St. The value of the mean response per statement
clarifies that trainee helps new staff get up to speed quickly, gives people challenging job
assignments, and monitors performance, hand in hand with developing their skills are most
important for the safety. While the sensitivity to the personal problems of other team
members is most less important. The overall mean for the 6-statements (4.46) indicates the
importance of “leadership and cooperation”.
60
.3
61
.9
50
.8
51
.6
46
56
.4
36
.5
29
.4
37
.3
38
.1 42
.1
34
.9
3.2
8.7 1
1.9
10
.3
11
.9
8.7
0 0 0 0 0 00 0 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5 S T . 6
LEADERSHIP AND COOPERATION (TRAINEE)Strongly Agree Agree Neutral Disagree Strongly Disagree
72
Table (4-7): Mean, Std. Deviation and Frequency for leadership and cooperation
(Trainee)
Statement Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee helps new staff get up
to speed quickly, gives people
challenging job assignments,
and monitors performance.
4.57 .771 76 46 4 0 0
Trainee provides people with
assignments to develop their
skills, gives timely coaching,
acts as a role model for
development.
4.50 .859 78 37 11 0 0
Trainee must be aware of, and
sensitive to, the personal
problems of other team
members.
4.39 .900 64 47 15 0 0
Trainee could be able to
consider the personal work
styles for effective team
coordination.
4.44 .854 65 48 13 0 0
Trainee is aware of the extent
of the change in behavior,
knowledge and skill level.
4.38 .845 58 53 15 0 0
Trainee is able to explain the
contribution that learning and
development makes to his/her
team.
4.48 .821 71 44 11 0 0
Total 4.46 .842 412 275 69 0 0
4.3.2.2 Descriptive analysis for organizations’ data
Figure (4-8) indicated that 75.4% of the organizations responded “agree” (this agreement is
split as; 47.6% for strongly agree, and 27.8% for agree), i.e. the trainee helps new staff get
up to speed quickly, gives people challenging job assignments, and monitors performance.
80.1 % of the organization respondents approved that trainee provides people with
assignments to develop their skills, gives timely coaching, acts as a role model for
development. While 73% aware of, and sensitive to, the personal problems of other team
members.
73
74.6% from the organization respondents believe that trainee could be able to consider the
personal work styles for effective team coordination, and 69% trainee is aware of the extent
of the change in behavior, knowledge and skill level. While, 77% approved that trainee is
able to explain the contribution that learning and development makes to his team.
Figure (4-8): The frequency of the “Leadership and cooperation” for organization
From these results it can be stated that about 74.87 % of the organization respondents agreed
that “Leadership and Cooperation” is considered as an influencing variable in the efficiency
of the training course.
Furthermore, it is clear from Table (4-8) that the organization respondents considered that
the first St. is the most important followed by the second St. According to the mean value of
each statement, the communication during emergency situations revealed as the most
important for the respondents either in the safety briefing before sailing or the safety
information to be clearly delivered by the trainer and well understood by the crew. The
overall mean of the 6-statements (4.14) indicates the importance of “leadership and
cooperation” on the ships’ safety.
47
.6
37
.2 39
.7
31
.7
33
.3
43
.6
27
.8
42
.9
33
.3
42
.9
35
.7
33
.4
21
.4
18
.3 23 23
.8 29
.4
19
.8
3.2
1.6 4
1.6
1.6 3.2
0 0 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5 S T . 6
LEADERSHIP AND COPERATION
(ORGANIZATION)
Strongly Agree Agree Neutral Disagree Strongly Disagree
74
Table (4-8): Mean, Std. Deviation and Frequency for leadership and cooperation
(Organization)
Statement Mean Std.
Deviation
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee helps new staff
get up to speed quickly,
gives people challenging
job assignments, and
monitors performance.
4.23 1.031 60 35 27 4 0
Trainee provides people
with assignments to
develop their skills, gives
timely coaching, acts as a
role model for
development.
4.17 .962 47 54 23 2 0
Trainee must be aware
of, and sensitive to, the
personal problems of
other team members.
4.12 1.082 50 42 29 5 0
Trainee could be able to
consider the personal
work styles for effective
team coordination.
4.07 .944 40 54 30 2 0
Trainee is aware of the
extent of the change in
behavior, knowledge and
skill level.
4.11 .915 42 45 37 2 0
Trainee is able to explain
the contribution that
learning and
development makes to
his/her team.
4.16 .981 55 42 25 4 0
Total 4.14 .989 294 272 171 19 0
75
Figure (4-9): Comparison of results for the leadership and cooperation variable from
trainees and organizations pint of view
Figure (4-9) shows that the percentage of trainees that strongly agree and agree is higher
than the corresponding percentage for the organization except for St. 2&4. While for neutral,
disagree and strongly disagree, the percentage of trainees is smaller than the organization for
all statements.
4.3.3 Situational awareness
4.3.3.1 Descriptive analysis for trainees’ data
Figure (4-10) showed that 92.1% of the trainees responded “agree” (this agreement is split
as; 54.8% for strongly agree, and 37.3% for agree), i.e. they fit better for the job. 82.5 % of
the trainee respondents approved that in critical situations, trainee relies on his superiors to
tell him what to do. While 88.1% are less effective when stressed or fatigued.
In addition, 93.6% from the respondents believe that many improvements have been made
to their organization interventions as a result of learning and development evaluation
information. While, 92.1% are able to apply what he learned in the course on the job during
emergency situations.
47
.6
37
.2 39
.7
31
.7
33
.3
43
.6
60
.3
61
.9
50
.8
51
.6
46
56
.4
27
.8
42
.9
33
.3
42
.9
35
.7
33
.436
.5
29
.4
37
.3
38
.1 42
.1
34
.9
21
.4
18
.3 23 23
.8 29
.4
19
.8
3.2
8.7 1
1.9
10
.3
11
.9
8.7
3.2
1.6 4 1.6
1.6 3.2
0 0 0 0 0 00 0 0 0 0 00 0 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5 S T . 6
LEADRESHIP AND COOPERATION
(TRAINEE/ORGANIZATION)
Strongly Agree Org. Strongly Agree Trainee Agree Org.
Agree Trainee Neutral Org. Neutral Trainee
Disagree Org. Disagree Trainee Strongly Disagree Org.
Strongly Disagree Trainee
76
Figure (4-10): The frequency of the situational awareness for trainees
Table (4-9): Mean, Std. Deviation and Frequency for situational awareness (Trainee)
Statements Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee feels he/she fits
better for the job.
4.45 .850 69 47 9 1 0
In critical situations,
trainee relies on his
superiors to tell him
what to do.
4.27 1.082 65 39 14 7 1
Trainee is less effective
when stressed or
fatigued.
4.37 .969 68 43 9 5 1
Many improvements
have been made to our
organization
interventions as a result
of learning and
development evaluation
information.
4.38 .787 56 62 8 0 0
Trainee is able to apply
what he/she learned in
the course on the job
during emergency
situations (drills).
4.35 .837 54 62 10 0 0
Total 4.36 .905 312 253 50 13 2
54
.8
51
.6 54
44
.4
42
.9
37
.3
30
.9 34
.1
49
.2
49
.2
7.1 1
1.1
7.1
6.4 7.9
0.8
5.6
4
0 00 0.8
0.8
0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
SITUITIONAL AWARENESS (TRAINEE)
Strongly Agree Agree Neutral Disagree Strongly Disagree
77
Furthermore, it is clear from Table (4-9) that the trainee respondents considered that the first
St. is the most important followed by the third St. The value of the mean response per
statement clarifies that the trainees are feeling better for the job after attending the course.
The overall mean of the 5-statements (4.36) indicates the importance of “leadership and
cooperation”.
4.3.3.2 Descriptive analysis for organizations’ data
Figure (4-11) indicated that 81.7% of the organizations responded “agree” (this agreement
is split as; 50.7% for strongly agree, and 31% for agree), i.e. the trainee feels he fits better
for the job. 69.8 % of the organization respondents approved that in critical situations, trainee
relies on his superiors to tell him what to do. While 70.6% is less effective when stressed or
fatigued.
74.6% from the organization respondents believe that many improvements have been made
to their organization interventions as a result of learning and development evaluation
information. While 75.4% are able to apply what he learned in the course on the job during
emergency situations (drills).
Figure (4-11): The frequency of the “Situational awareness” for organization
50
.7
43
.6
30
.1
30
.9
28
.631
26
.2
40
.5 43
.7 46
.8
15
.9
23
.8
20
.6
21
.4 23
.8
2.4 4
.8
8.8
4
0.8
0 1.6
0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
SITUITIONAL AWARENESS (ORGANIZATION)
Strongly Agree Agree Neutral Disagree Strongly Disagree
78
Furthermore, it is clear from Table (4-10) that the organization respondents considered that
the first St. is the most important followed by the second St. The value of the mean response
per statement clarifies that the trainees are feeling better for the job after attending the course.
The overall mean of the 5-statements (4.07) indicates the importance of “leadership and
cooperation”.
Table (4-10): Mean, Std. Deviation and Frequency for situational awareness
(Organization)
Statements Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee feels he/she fits better
for the job.
4.32 .966 64 39 20 3 0
In critical situations, trainee
relies on his superiors to tell
him what to do.
4.06 1.132 55 33 30 6 2
Trainee is less effective when
stressed or fatigued.
3.92 1.062 38 51 26 11 0
Many improvements have been
made to our organization
interventions as a result of
learning and development
evaluation information.
4.02 .935 39 55 27 5 0
Trainee is able to apply what
he/she learned in the course on
the job during emergency
situations (drills).
4.03 .849 36 59 30 1 0
Total 4.07 .989 232 237 133 26 2
79
Figure (4-12): Comparison of results for the “Situational Awareness” variable from
trainees and organizations point of view
Figure (4-12) shows that the percentage of trainees that strongly agree and agree is higher
than the corresponding percentage for the organization except for St. 3. While for neutral,
disagree and strongly disagree, the percentage of trainees is smaller than the organization for
all statements.
4.3.4 Workload management
4.3.4.1 Descriptive analysis for trainees’ data
Figure (4-13) showed that 88.1% of the trainees responded “agree” (this agreement is split
as; 47.6% for strongly agree, and 40.5% for agree), i.e. they should alert others to their actual,
or potential, work overload. 81.8% of the respondents approved that they will inform other
team members when the workload becomes (or is about to become) excessive. While 84.9%
will take joint ownership for learning and development. Also, 76.2% from the respondents
believe that senior management reviews the contribution of learning and development
activities in achieving the company's goals and objectives as a result of attending the course.
50
.7
43
.6
30
.1
30
.9
28
.6
54
.8
51
.6
54
44
.4
42
.9
31
26
.2
40
.5 43
.7 46
.8
37
.3
30
.9 34
.1
49
.2
49
.2
15
.9
23
.8
20
.6
21
.4
23
.8
7.1 1
1.1
7.1
6.4 7.9
2.4 4
.8 8.8
4
0.8
0.8 5
.6
4
0 00 1.6
0 0 00 0.8
0.8
0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
SITUETIUONAL AWARENESS
(TRAINEE/ORGANIZATION)
Strongly Agree Org. Strongly Agree Trainee Agree Org.
Agree Trainee Neutral Org. Neutral Trainee
Disagree Org. Disagree Trainee Strongly Disagree Org.
Strongly Disagree Trainee
80
Figure (4-13): The frequency of the workload management for trainees
Furthermore, it is clear from Table (4-11) that the respondents considered that the first St. is the
most important followed by the second St. The value of the mean response per statement reflects
the benefit from the course in achieving the goal and objectives of the company regarding the
safety measures as a result of attending the training course. The overall mean for the 4-statements
(4.41) indicates the importance of workload management”.
Table (4-11): Mean, Std. Deviation and Frequency for workload management
(Trainee)
Statements Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee should alert others to their
actual, or potential, work overload.
4.52 .715 71 51 3 1 0
Trainee will inform other team
members when the workload
becomes (or is about to become)
excessive.
4.44 .786 67 48 11 0 0
Trainee and managers take joint
ownership for learning and
development.
4.37 .744 55 62 9 0 0
Senior management reviews the
contribution of learning and
development activities in achieving
the company's goals and objectives as
a result of attending the course.
4.32 .854 54 58 14 0 0
Total 4.41 .775 247 219 37 1 0
47
.6
43
.7
35
.7
30
.2
40
.5
38
.1
49
.2
46
2.4
8.7
7.1 1
1.1
0.8
0 0 00 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4
WORKLOAD MANAGEMENT (TRAINEE)
Strongly Agree Agree Neutral Disagree Strongly Disagree
81
4.3.4.2 Descriptive analysis for organizations’ data
Figure (4-14) indicated that 75.4% of the organizations responded “agree” (this agreement
is split as; 43.7% for strongly agree, and 31.7% for agree), i.e. they should alert others to
their actual, or potential, work overload. 76.2% of the respondents approved that they will
inform other team members when the workload becomes (or is about to become) excessive.
While 75.4% will take joint ownership for learning and development.
In addition, 76.2% from the organization respondents believe that senior management
reviews the contribution of learning and development activities in achieving the
organizations’ goals and objectives as a result of attending the course.
Figure (4-14): The frequency of the workload management for organization
Furthermore, it is clear from Table (4-12) that the organization respondents considered that
the first St. is the most important followed by the second St. According to the mean value
per each statement, the benefit from the course in achieving the goal and objectives of the
company regarding the safety measures as a result of attending the training course. The
overall mean for the 4-statements (4.15) indicates the importance of “workload
management”.
43
.7
41
.3
39
.6
35
.7
31
.7 34
.9
35
.8 40
.5
23
.8
23
23
21
.4
0.8
0.8 1.6 2.4
0 0 0 0S T . 1 S T . 2 S T . 3 S T . 4
WORKLOAD MANAGEMENT
(ORGANIZATION)
Strongly Agree Agree Neutral Disagree Strongly Disagree
82
Table (4-12): Mean, Std. Deviation and Frequency for workload management
(Organization)
Statements Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee should
alert others to their
actual, or potential,
work overload.
4.18 .999 55 40 30 1 0
Trainee will
inform other team
members when the
workload becomes
(or is about to
become) excessive.
4.17 .938 52 44 29 1 0
Trainee and
managers take
joint ownership for
learning and
development.
4.13 .943 50 45 29 2 0
Senior
management
reviews the
contribution of
learning and
development
activities in
achieving the
company's goals
and objectives as a
result of attending
the course.
4.10 .854 45 51 27 3 0
Total 4.15 .934 202 180 115 7 0
83
Figure (4-15): Comparison of results for the workload management variable from
trainees and organizations point of view
Figure (4-15) shows that the percentage of trainees that strongly agree and agree is higher
than the corresponding percentage for the organization. While for neutral, disagree and
strongly disagree, the percentage of trainees is smaller than the organization for all
statements.
4.3.5 Decision-making
4.3.5.1 Descriptive analysis for trainees’ data
Figure (4-16) showed that 98.4% of the trainees responded “agree” (this agreement is split
as; 66.7% for strongly agree, and 31.7% for agree), i.e. they are able to make good decisions
in emergencies as it is in routine situations. 95.2 % of the respondents approved that a regular
debriefing of procedures and decisions after any task is an important part of developing and
maintaining effective team co-ordination. While 96% is less likely to make personnel
judgment errors in an emergency. In addition, 91.3% from the trainee respondents believe
that there is noticeable and measurable change in the activity and performance of the trainee
when back in his role. While, 92.1% is able to change in behavior and the new knowledge
level of the trainee is sustained.
43
.7
41
.3
39
.6
35
.7
56
.3
53
.2
43
.7
42
.9
31
.7
34
.9
35
.8 40
.5
40
.5
38
.1 49
.2
46
23
.8
23
23
21
.4
2.4 8
.7
7.1 1
1.1
0.8
0.8 1.6 2.4
0.8
0 0 00 0 0 00 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4
WORKLOAD MANAGEMENT
(TRAINEE/ORGANIZATION)
Strongly Agree Org. Strongly Agree Trainee Agree Org.
Agree Trainee Neutral Org. Neutral Trainee
Disagree Org. Disagree Trainee Strongly Disagree Org.
Strongly Disagree Trainee
84
Figure (4-16): The frequency of the decision making for trainees
Table (4-13): Mean, Std. Deviation and Frequency for decision making (Trainee)
Statements Mean Std.
Deviation
Frequency
Strongly
agree Agree Neutral Disagree
Strongly
disagree
Trainee's ability to make
good decisions in
emergencies has become
as it is in routine
situations.
4.65 .712 84 40 2 0 0
A regular debriefing of
procedures and decisions
after any task is an
important part of
developing and
maintaining effective
team co-ordination.
4.57 .814 78 42 6 0 0
Trainee became less
likely to make personnel
judgment errors in an
emergency.
4.52 .820 70 51 5 0 0
There is noticeable and
measurable change in
the activity and
performance of the
trainee when back in
his/her role.
4.47 .894 70 45 11 0 0
The change in behavior
and the new knowledge
level of the trainee is
sustained.
4.52 .896 75 41 10 0 0
Total 4.55 .827 377 219 34 0 0
66
.7
61
.9
55
.5
55
.5
59
.5
31
.7
33
.3 40
.5
35
.8
32
.6
1.6 4.8
4
8.7
7.9
0 0 0 0 00 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
DECISION MAKING (TRAINEE)
Strongly Agree Agree Neutral Disagree Strongly Disagree
85
Furthermore, it is clear from Table (4-13) that the trainee respondents considered that the
first St. is the most important followed by the second St. the value of the mean response per
statement indicates the response from the marine officers who attend the training course
became more effective in emergency situations as they respond in the routine work. Also,
indicate that their behavior in the activity and performance of the trainee when back in their
role is changed. The overall mean for the 5-statements (4.55) indicates the importance of
“decision making”.
4.3.5.2 Descriptive analysis for organizations’ data
Figure (4-17) indicated that 73.8% of the organizations responded “agree” (this agreement
is split as; 50% for strongly agree, and 23.8% for agree), i.e. their ability to make good
decisions in emergencies has become as it is in routine situations. 77.7 % of the respondents
approved that a regular debriefing of procedures and decisions after any task is an important
part of developing and maintaining effective team co-ordination. While 76.2% are less likely
to make personnel judgment errors in an emergency.
In addition, 76.9% from the organization respondents believe that there is noticeable and
measurable change in the activity and performance of the trainee when back in his role.
76.1% is able to change in behavior and the new knowledge level of the trainee is sustained.
Furthermore, it is clear from Table (4-14) that the organization respondents considered that
the second St. is the most important followed by the first St. According to the mean value of
each statement, the response from the marine officers who attend the training course became
more effective in emergency situations as they respond in the routine work. Also, indicate
that their behavior in the activity and performance of the trainee when return to their role is
changed. The overall mean for the 5-statements (4.20) indicates the importance of “decision
making”.
86
Figure (4-17): The frequency of the decision making for organization
Table (4-14): Mean, Std. Deviation and Frequency for decision making (Organization)
Statements Mea
n
Std.
Deviatio
n
Frequency
Strongl
y agree
Agre
e
Neutr
al
Disagr
ee
Strong
ly
disagre
e
Trainee's ability to make good
decisions in emergencies has
become as it is in routine
situations.
4.25 1.009 63 33 28 2 0
A regular debriefing of procedures
and decisions after any task is an
important part of developing and
maintaining effective team co-
ordination.
4.21 1.090 58 37 30 1 0
Trainee became less likely to
make personnel judgment errors
in an emergency.
4.17 1.037 46 49 29 2 0
There is noticeable and
measurable change in the activity
and performance of the trainee
when back in his/her role.
4.20 .907 50 58 16 2 0
The change in behavior and the
new knowledge level of the
trainee is sustained.
4.17 1.001 57 36 31 2 0
Total 4.20 1.009 274 213 134 9 0
50
40
.4
39
.7
39
.6 42
.8
23
.8
37
.3
36
.5
37
.3
33
.3
24
.6
18
.3 21
.4
20
.7
21
.5
1.6 4 2.4
2.4
2.4
0 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
DECISION MAKING (ORGANIZATION)
Strongly Agree Agree Neutral Disagree Strongly Disagree
87
Figure (4-18): Comparison of results for the decision making variable from trainees
and organizations point of view
Figure (4-18) shows that the percentage of trainees that strongly agree and agree is higher
than the corresponding percentage for the organization except for St. 4. While for neutral,
disagree and strongly disagree, the percentage of trainees is smaller than the organization for
all statements.
4.3.6 Course Overall satisfaction
The statistics shown in Figure (4-19) of the “satisfaction Statement”, “Overall, I am satisfied
with this course”, indicated the overall opinion of the respondents about the benefits gained
from attending the course and the impact of the course on the performance of the marine
officers when they were back to their jobs. Majority of the trainees 96% agreed (this
agreement is the sum of 63.5 % for strongly agree, and 32.5% for agree), i.e. the course is
valuable and it is useful for the marine officers to attend it. While 85.7% of the respondents
from the organizations (shipping companies) agreed (this agreement is the sum of 59.5 %
for strong agree, and 26.2% for agree) to the benefit and the value of the course. In addition,
it is clear from Figure (4-19) that the average of both trainees and organizations evaluations
was almost strongly agree on the satisfaction of the course.
50
46
36
.5
39
.7
45
.2
66
.7
61
.9
55
.5
55
.5
59
.5
26
.2
29
.4 38
.9 46
28
.6
31
.7
33
.3 40
.5
35
.8
32
.6
22
.2
23
.8
23
12
.7 24
.6
1.6 4.8
4 8.7
7.9
1.6
0.8 1.6
1.6
1.6
0 0 0 0 00 0 0 0 00 0 0 0 0
S T . 1 S T . 2 S T . 3 S T . 4 S T . 5
DECISION MAKING
(TRAINEE/ORGANIZATION)
Strongly Agree Org. Strongly Agree Trainee Agree Org. Agree Trainee
Neutral Org. Neutral Trainee Disagree Org. Disagree Trainee
Strongly Disagree Org. Strongly Disagree Trainee
88
Figure (4-19): The frequency of the overall course satisfaction (Trainee/Organization)
4.3.7 Summary of descriptive statistics for the adopted variables in the
questionnaire
Table (4-15): Summary statistics of all the independent variables from the two points
of view (trainees and organizations)
Variable
Trainees’ responses Organizations’ responses
Mean St. dev. Coff. of
variation Rank Mean St. dev.
Coff. of
variation Rank
Effective
Communication 4.56 0.862 0.19 1 4.17 0.994 0.24 2
Leadership and
Cooperation 4.46 0.842 0.19 3 4.14 0.989 0.24 4
Situational
Awareness 4.36 0.905 0.21 5 4.07 0.989 0.24 5
Workload
Management 4.41 0.775 0.18 4 4.15 0.934 0.23 3
Decision Making 4.55 0.827 0.18 2 4.20 1.009 0.24 1
Table (4-15) illustrates the importance of the variables from both trainees’ and
organizations’ perspective. Effective communication was ranked as the first variable in
importance for the trainees and decision making comes as the second variable in importance.
On the other hand, it’s vice versa for the organizations where effective communication
comes in the second importance and decision making is ranking as the first in importance.
59.50% 63.50%
26.20%32.50%
14.30%4% 0% 0% 0% 0%
O R G . T R A I N E E O R G . T R A I N E E O R G . T R A I N E E O R G . T R A I N E E O R G . T R A I N E E
S T R O N G L Y A G R E E A G R E E N E U T R A L D I S A G R E E S T R O N G L Y D I S A G R E E
OVERALL STATEMENT
89
Leadership and cooperation was ranked as the third variable in importance while workload
management was ranked as the fourth variable in importance for trainees. But, for
organizations, leadership and cooperation was ranked as the fourth variable, while workload
management came as the third variable in evaluating the performance.
Coefficient of variation had been used in this study to standardize the heterogeneity measure
to improve comparability. The values of the coefficient of variation that measure dispersion
of data as well as the standard deviations gave nearly the same values showing very slight
variability between both trainees and organization. Both trainees and organizations are
strongly satisfied with the course and have established that situational awareness is the least
important variable.
The mean of the satisfaction of trainees was 4.60 that is higher than the mean of
organizations 4.45, which indicates that the trainees were more confident by the course and
are more satisfied than organizations. This result coincides with the logic that the trainees
attended the course for the first time and discovered the positive points in the course, while
the organization’s expectations of the course’s benefits was very high than the results they
evaluated.
4.4 Data Reliability Testing
Reliability of data was carried out by using Cronbach’s Alpha. Table (4-16) showed that all
the variables have a reliability (> 0.70). It was also found that the overall questionnaire
reliability was 0.978 confirming the high reliability of the questionnaire, i.e. the internal
consistency among the statements and the studied variables of the questionnaire has high
reliability.
90
Table (4-16): Reliability Statistics and value of Cronbach’s Alpha
Variable Cronbach’s
alpha
Effective communication 0.843
Leadership and cooperation 0.867
Situational awareness 0.794
Workload management 0.798
Decision-making 0.883
Overall Satisfaction 0.895
The questionnaire 0.957
4.5 The Hypothesis Testing
Statistical tools such as correlation analysis, regression analysis and pair-wise T-test using
the SPSS program V24 were used to figure out which research hypotheses could be accepted
for trainees or organizations responses’ data. This procedure was carried out twice to
investigate the satisfaction levels, one for the trainees and the other for the organization point
of view. The analysis tested the five hypotheses representing the 5-adopted variables for
each category (Trainees/Organization) as described in chapter three.
4.5.1 Testing hypotheses associated with trainees responses’ data
The correlation analysis, as well as simple and multiple regression analysis were employed
to test the relationship between the five adopted variables; effective communication,
leadership and cooperation, situational awareness, workload management and decision
making from one side and also their impact on satisfaction on NTS training courses.
4.5.1.1 Correlation analysis between the study variables for trainees
The correlation between the five main variables is shown in Table (4-17). All correlation
Coefficients between each two variable are significant, positive and varied from 0.590
moderate correlation between workload management and situational awareness to a strong
correlation 0.811 between effective communication from one side, leadership and
cooperation and also, effective communication with decision making.
91
Table (4-17): Correlation between the five main variables (Trainees)
Variable Effective
Communication
Leadership
and
Cooperation
Situational
Awareness
Workload
Management
Decision
Making
Overall
course
satisfaction
Effective
Communication 1
Leadership and
Cooperation 0.811 1
Situational
Awareness 0.695 0.660 1
Workload
Management 0.746 0.723 0.590 1
Decision
Making 0.811 0.720 0.690 0.728 1
Overall course
satisfaction 0.677 0.716 0.593 0.733 0.809 1
4.5.1.2 Testing the impact of the study variables on trainees satisfaction for NTS
courses
Simple, multiple and stepwise regression analysis were carried out for the trainees responses
to test the study hypotheses.
First Hypothesis (Trainees) H1T:
The first hypothesis H1T was formulated as:
H1T: Effective communication has a significant impact on the satisfaction of trainees for
the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-18) shows the
following results.
92
Table (4-18): Simple Regression test for the impact of “effective communication”
(Trainees)
Unstandardized
Coefficients
Standardized
Coefficients t r R2
P-value
Sig. B
Std.
Error Beta
1
(Constant) 2.791 0.403 6.918
0.677 0.459 0.000 Effective
Communication 0.401 0.089 0.376 4.521
The impact of “effective communication” on trainees’ satisfaction on the NTS course is
given in Table (4-18) where the coefficient of determination (R2) equals 45.9%. This means
that 45.9% of the variance in trainees’ satisfaction can be explained by the independent
variable “effective communication”. R2 is also known as the explained variance. The
observed significancy P-value is (0.000 < 0.05) that means “effective communication” has
a positive significant impact on trainees’ satisfaction at 95% confidence level.
Second Hypothesis (Trainees) H2T:
The second hypothesis H2T was formulated as:
H2T: Leadership and cooperation has a significant impact on the satisfaction of trainees for
the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-19) shows the
following results:
Table (4-19): Simple Regression test for the impact of “leadership and cooperation”
(Trainees)
Model
Unstandardized
Coefficients
Standardize
d
Coefficients T0 r R2
P-
value
Sig. B Std. Error Beta
1
(Constant) 2.350 0.378 6.214
0.716 0.512 0.000 Leadership and
Cooperation 0.499 0.083 0.474 6.001
93
The impact of “leadership and cooperation” on trainees’ satisfaction on the NTS course is
given in Table (4-19) where the coefficient of determination (R2) equals 51.2%. This means
that 51.2% of the variance in trainees’ satisfaction can be explained by the independent
variable “leadership and cooperation”. R2 is also known as the explained variance. The
observed significancy P-value is (0.000 < 0.05) that means “leadership and cooperation” has
a positive significant impact on trainees’ satisfaction at 95% confidence level.
Third Hypothesis (Trainees) H3T:
The third hypothesis H3T was formulated as:
H3T: Situational awareness has a significant impact on the satisfaction of trainees for the
NTS course.
This hypothesis was tested by using simple regression test, and Table (4-20) shows the
following results:
Table (4-20): Simple Regression test for the impact of “situational awareness”
(Trainees)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2
P-
value
Sig. B Std. Error Beta
1 (Constant) 2.705 0.381 7.094
0.593 0.352 0.000 Situational Awareness 0.428 0.085 0.411 5.014
The impact of “situational awareness” on trainees’ satisfaction on the NTS course is given
in Table (4-20) where the coefficient of determination (R2) equals 35.2%. This means that
35.2% of the variance in trainees’ satisfaction can be explained by the independent variable
“situational awareness”. R2 is also known as the explained variance. The observed
significancy P-value is (0.000 < 0.05) that means “situational awareness” has a positive
significant impact on trainees’ satisfaction at 95% confidence level.
Fourth Hypothesis (Trainees) H4T:
The fourth hypothesis H4T was formulated as:
94
H4T: Workload management has a significant impact on the satisfaction of trainees for the
NTS course.
This hypothesis was tested by using simple regression test, and Table (4-21) shows the
following results:
Table (4-21): Simple Regression test for the impact of “workload management”
(Trainees)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2 P-value
Sig. B Std. Error Beta
1
(Constant) 3.391 0.449 7.550
0.733 0.537 0.000 Workload
Management 0.274 0.101 0.237 2.716
The impact of “workload management” on trainees’ satisfaction on the NTS course is given
in Table (4-21) where the coefficient of determination (R2) equals 53.7%. This means that
53.7% of the variance in trainees’ satisfaction can be explained by the independent variable
“workload management”. R2 is also known as the explained variance. The observed
significance P-value is (0.000 < 0.05) that means “workload management” has a positive
significant impact on trainees’ satisfaction at 95% confidence level.
Fifth Hypothesis (Trainees) H5T:
The fifth hypothesis H5T was formulated as:
H5T: Decision-making has a significant impact on the satisfaction of trainees for the NTS
course.
This hypothesis was tested by using simple regression test, and Table (4-22) shows the
following results:
95
Table (4-22): Simple Regression test for the impact of “decision-making” (Trainees)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2 P-value
Sig. B Std. Error Beta
1
(Constant) 1.680 0.341 4.925
0.809 0.654 0.000 Decision
Making 0.640 0.074 0.613 8.633
The impact of “decision-making” on trainees’ satisfaction on the NTS course is given in
Table (4-22) where the coefficient of determination (R2) equals 65.4%. This means that
65.4% of the variance in trainees’ satisfaction can be explained by the independent variable
“decision-making”. R2 is also known as the explained variance. The observed significancy
P-value is (0.000 < 0.05) that means “decision-making” has a positive significant impact on
trainees’ satisfaction at 95% confidence level.
Testing Normality
A data set should be normal or well-modeled by a normal distribution. A normality test is
used to determine if a data set is normal and to compute how likely it is for a random variable
underlying the data set to be normally distributed. An assessment of the normality of data is
a prerequisite for many statistical tests because normal data is an underlying assumption in
parametric testing and it is proved by Normality Test of Kolmogorov, as p -values > 0.05.
Table (4.23): Normality test for variables under study for Trainees
Variable p-value
Effective Communication 0.158
Leadership and Cooperation 0.944
Situational Awareness 0.741
Workload Management 0.904
Decision Making 0.937
From Table (4-23), the variables data of the trainees proved to be normally distributed as
long as p-value is larger than 0.05.
96
Table (4-24) shows the multiple regression analysis for the impact of all the 5-variables
under study together on trainees’ satisfaction. It was found out that decision making has the
most significant positive impact on trainees’ satisfaction followed by workload management
and leadership and cooperation in the presence of other variables (P-value < 0.05). While
both effective communication and situational awareness have insignificant positive impact
on trainees’ satisfaction in the presence of other variables (P-value < 0.05).
Table (4-24): Multiple regression test for the five variables (Trainees)
Model
Unstandardized
Coefficients
Standardized
Coefficients t Sig.
B Std. Error Beta
1
(Constant) .994 .281 3.539 .001
Effective Communication .090 .083 .101 1.075 .284
Leadership and Cooperation .150 .087 .161 1.715 .021
Situational Awareness .054 .080 .054 .674 .501
Workload Management .174 .094 .172 1.855 .006
Decision Making .354 .087 .387 4.073 .000
By comparing the results of the multiple regression with the ranking from the summary
statistics of all the independent variables (Table 4-15), it was noted that despite the decision
making is the most significant positive impact from multiple regression analysis, it got the
second ranking. While the effective communication was second less effective variable, it
was the first ranking according to the mean value. Situational awareness was the last ranking
and in the mean time it was also the last less effective variable.
Stepwise regression analysis method was employed to filter out the insignificant variables
that aren’t affecting satisfaction of trainees. Table (4-25) shows the results after applying
stepwise regression analysis, where it was found that the variables; Decision Making,
Workload Management and Leadership and Cooperation are having significant positive
impact on trainees’ satisfaction as P-values are less than 0.05. The other two variables;
effective communication and situational awareness were filtered out due to their
insignificance.
Table (4-25): Stepwise Regression test for the five variables (Trainees)
97
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2
P-
value
Sig. B Std. Error Beta
1
(Constant) 0.784 0.220 .001
Decision Making 0.466 0.071 0.844 0.712 0.844 0.712 .000
Workload Management 0.231 0.079 0.835 0.698 0.835 0.698 .004
Leadership and
Cooperation 0.174 0.073
0.809 0.654 0.809 0.654 .019
According to the Stepwise Regression test, the impact of “leadership and cooperation” on
Trainees’ satisfaction on the NTS course is given in Table (4-25) where the coefficient of
determination (R2) equals 71.2%. This means that 71.2% of the variance in Trainees’
satisfaction can be explained by the independent variable “leadership and cooperation”.
While the impact of “Workload Management” on Trainees’ satisfaction on the NTS course
is given in Table (4-25) where the coefficient of determination (R2) equals 69.8%. This
means that 69.8% of the variance in Trainees’ satisfaction can be explained by the
independent variable “leadership and cooperation”. Also, the impact of “Decision Making”
on Trainees’ satisfaction on the NTS course is given in Table (4-25) where the coefficient
of determination (R2) equals 65.4%. This means that 65.4% of the variance in Trainees’
satisfaction can be explained by the independent variable “Decision Making”.
4.5.2 Testing hypothesis associated with organization responses’ data
Similar procedure as carried out for the trainees’ data were done for organizations data.
4.5.2.1 Correlation analysis between the study variables for organization
The correlation between the five main variables is shown in Table (4-26). All correlation
Coefficient between each two variables are significant, positive and varied from 0.549
moderate correlation between leadership and cooperation and situational awareness to a
strong correlation 0.789 between workload management and decision making.
Table (4-26): Correlation between the five main variables (Organizations)
Variable Effective
Communication
Leadership
and
Cooperation
Situational
Awareness
Workload
Management
Decision
Making
Overall
course
satisfaction
98
Effective
Communicatio
n
1
Leadership and
Cooperation 0.737 1
Situational
Awareness 0.595 0.549 1
Workload
Management 0.687 0.699 0.593 1
Decision
Making 0.683 0.686 0.662 0.789 1
Overall course
satisfaction 0.641 0.660 0.567 0.672 0.740 1
4.5.2.2 Testing the impact of the study variables on organization satisfaction for NTS
courses
First Hypothesis (Organizations) H1O:
The first hypothesis H1O was formulated as:
H1O: Effective communication has a significant impact on the satisfaction of Organizations
for the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-27) shows the
following results.
Table (4-27): Simple Regression test for the impact of “effective communication”
(Organization)
Unstandardized
Coefficients
Standardized
Coefficients t r R2
P-value
Sig. B
Std.
Error Beta
1
(Constant) 1.996 0.244 8.163
0.641 0.411 0.000 Effective
Communication 0.585 0.057 0.677 10.252
The impact of “effective communication” on Organizations’ satisfaction on the NTS course
is given in Table (4-27) where the coefficient of determination (R2) equals 41.1%. This
means that 41.1% of the variance in Organizations’ satisfaction can be explained by the
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independent variable “effective communication”. R2 is also known as the explained variance.
The observed significancy P-value is (0.000 < 0.05) that means “effective communication”
has a positive significant impact on Organizations’ satisfaction at 95% confidence level.
Second Hypothesis (Organization) H2O:
The second hypothesis H2O was formulated as:
H2O: Leadership and cooperation has a significant impact on the satisfaction of
Organizations for the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-28) shows the
following results:
Table (4-28): Simple Regression test for the impact of “leadership and cooperation”
(Organization)
Model
Unstandardized
Coefficients
Standardized
Coefficients T0 r R2 P- value
Sig. B Std. Error Beta
1
(Constant) 2.350 0.378 6.214
0.660 0.436 0.000 Leadership and
Cooperation 0.499 0.083 0.474 6.001
The impact of “leadership and cooperation” on Organizations’ satisfaction on the NTS
course is given in Table (4-28) where the coefficient of determination (R2) equals 43.6%.
This means that 43.6% of the variance in Organizations’ satisfaction can be explained by the
independent variable “leadership and cooperation”. R2 is also known as the explained
variance. The observed significancy P-value is (0.000 < 0.05) that means “leadership and
cooperation” has a positive significant impact on Organizations’ satisfaction at 95%
confidence level.
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Third Hypothesis (Organization) H3O:
The third hypothesis H3O was formulated as:
H3O: Situational awareness has a significant impact on the satisfaction of Organizations for
the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-29) shows the
following results:
Table (4-29): Simple Regression test for the impact of “situational awareness”
(Organization)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2
P-
value
Sig. B Std. Error Beta
1
(Constant) 2.705 0.381 7.094
0.567 0.321 0.000 Situational
Awareness 0.428 0.085 0.411 5.014
The impact of “situational awareness” on Organizations’ satisfaction on the NTS course is
given in Table (4-29) where the coefficient of determination (R2) equals 32.1%. This means
that 32.1% of the variance in Organizations’ satisfaction can be explained by the independent
variable “situational awareness”. R2 is also known as the explained variance. The observed
significancy P-value is (0.000 < 0.05) that means “situational awareness” has a positive
significant impact on Organizations’ satisfaction at 95% confidence level.
Fourth Hypothesis (Organization) H4O:
The fourth hypothesis H4O was formulated as:
H4O: Workload management has a significant impact on the satisfaction of Organizations
for the NTS course.
This hypothesis was tested by using simple regression test, and Table (4-30) shows the
following results:
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Table (4-30): Simple Regression test for the impact of “workload management”
(Organization)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2 P-value
Sig. B Std. Error Beta
1
(Constant) 3.391 0.449 7.550
0.672 0.452 0.000 Workload
Management 0.274 0.101 0.237 2.716
The impact of “workload management” on Organizations’ satisfaction on the NTS course is
given in Table (4-30) where the coefficient of determination (R2) equals 45.2%. This means
that 45.2% of the variance in Organizations’ satisfaction can be explained by the independent
variable “workload management”. R2 is also known as the explained variance. The observed
significancy P-value is (0.000 < 0.05) that means “workload management” has a positive
significant impact on Organizations’ satisfaction at 95% confidence level.
Fifth Hypothesis (Organization) H5O:
The fifth hypothesis H5O was formulated as:
H5O: Decision-making has a significant impact on the satisfaction of Organizations for the
NTS course.
This hypothesis was tested by using simple regression test, and Table (4-31) shows the
following results:
Table (4-31): Simple Regression test for the impact of “decision-making”
(Organization)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2 P-value
Sig. B Std. Error Beta
1 (Constant) 1.680 0.341 4.925
0.740 0.548 0.000 Decision Making 0.640 0.074 0.613 8.633
The impact of “decision-making” on Organizations’ satisfaction on the NTS course is given
in Table (4-31) where the coefficient of determination (R2) equals 54.8%. This means that
54.8% of the variance in Organizations’ satisfaction can be explained by the independent
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variable “decision-making”. R2 is also known as the explained variance. The observed
significancy P-value is (0.000 < 0.05) that means “decision-making” has a positive
significant impact on Organizations’ satisfaction at 95% confidence level.
Testing Normality
An assessment of the normality of data is a prerequisite for many statistical tests because
normal data is an underlying assumption in parametric testing and it is proved by Normality
Test of Kolmogorov, as p -values > 0.05.
Table (4-32): Normality test for variables under study for Organization
Variable p-value
Effective Communication 0.086
Leadership and Cooperation 0.971
Situational Awareness 0.478
Workload Management 0.245
Decision Making 0.909
From Table (4-32), the variables data of the organization proved to be normally distributed
as long as p-value is larger than 0.05.
Table (4-33) shows the multiple regression analysis for the impact of all the 5-variables
under study together on organizations’ satisfaction. It was found out that decision making
has the most significant positive impact followed by leadership and cooperation and
workload management in the presence of other variables (P-value < 0.05). While both
effective communication and situational awareness got the less effective variables for the
course.
By comparing the results of the multiple regression with the ranking from the summary
statistics of all the independent variables (Table 4-15), it’s noted that decision making was
the most significant positive impact, and in the same time it got first ranking. While the
effective communication was second less effective variable, it was the second ranking for
the mean value. Situational awareness was the last ranking and in the mean time it was also
the last less effective variable.
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Table (4-33): Multiple regression test for the five variables (organizations)
Model
Unstandardized
Coefficients
Standardized
Coefficients t Sig.
B Std. Error Beta
1
(Constant) 0.994 0.281 3.539 0.000
Effective Communication 0.090 .083 0.101 1.075 0.342
Leadership and Cooperation 0.150 0.087 0.161 1.715 0.009
Situational Awareness 0.054 0.080 0.054 0.674 0.544
Workload Management 0.174 0.094 0.172 1.855 0.016
Decision Making 0.354 0.087 0.387 4.073 0.000
Stepwise regression analysis method was employed to differ out the insignificant variables
that aren’t affecting satisfaction of organizations. Table (4-34) shows the results after
applying stepwise regression analysis, where it was found that the variables; Decision
Making, Workload Management and Leadership and Cooperation are having significant
impact on trainees’ satisfaction as P-values are less than 0.05.
Table (4-34): Stepwise Regression test for the five variables (organizations)
Model
Unstandardized
Coefficients
Standardized
Coefficients t r R2 P-value
Sig. B Std. Error Beta
3
(Constant) 1.083 0.267 4.061 .000
Decision Making 0.397 0.080 0.434 4.961 0.755 0.570 .000
Leadership and
Cooperation 0.193 0.080 0.207 2.401
0.743 0.552 .008
Workload Management 0.208 0.090 0.205 2.299 0.710 0.504 .013
According to the Stepwise Regression test, the impact of “Workload Management” on
Organizations’ satisfaction on the NTS course is given in Table (4-34) where the coefficient
of determination (R2) equals 57%. This means that 57% of the variance in Organizations’
satisfaction can be explained by the independent variable “Workload Management”. While
the impact of “Leadership and Cooperation” on Organizations’ satisfaction on the NTS
course is given in Table (4-34) where the coefficient of determination (R2) equals 55.2%.
This means that 55.2% of the variance in Organizations’ satisfaction can be explained by the
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independent variable “Leadership and Cooperation”. Also, the impact of “Decision Making”
on Organizations’ satisfaction on the NTS course is given in Table (4-34) where the
coefficient of determination (R2) equals 50.4%. This means that 50.4% of the variance in
Organizations’ satisfaction can be explained by the independent variable “Decision
Making”.
4.5.3 Testing the mean difference between trainees and organizations’
evaluation
Table (4-35): The mean difference between trainees and organizations’ satisfaction
Mean Range
Trainees 4.49 0.24
Organizations 4.20 0.38
Table (4-35) showed that the trainees’ satisfaction of the course is very good according to
the scale evaluation Table (3-2). While, for the organizations the satisfaction is good
according to the scale evaluation Table (3-2). The range showed the trainees’ satisfaction for
all variables are closer than the organizations’ satisfaction.
Paired T-test for the difference:
Table (4-36): Paired Samples Test
Paired Differences
t df Sig. (2-
tailed) Mean Std.
Dev.
Std. Error
Mean
95% Confidence
Interval of the
Difference
Lower Upper
Pair Trainees -
Organization 0.30480 0.08963 0.01793 0.26780 0.34180 17.002 24 0.000
From Table (4-36), the paired sample test was < 0.05 that means that there is a significant
difference (0.3048) between the mean data of trainees and organization.
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4.6 Importance-Performance Analysis
As discussed earlier in chapter 3, IPA was used to help staff providing NTS training services
at AASTMT to improve their performance. The importance and performance were
considered from the mean value of each statement in the questionnaire as the evaluation of
trainers and organization respectively.
Table (4-37) represented the five variables for this study with their associated mean for each
statement for the corresponding variable. The importance mean for trainees’ evaluation and
performance mean for organizations’ evaluation for each statement were given in Table (4-
37).
Table (4-37): Importance-Performance Mean values for abatements
Variable Statements Perf. Mean (X) Imp. Mean (Y)
Effective
Communication
St. 1 4.22 4.74
St. 2 4.14 4.35
St. 3 4.16 4.29
St. 4 4.14 4.4
St. 5 4.17 4.5
Leadership and
Cooperation
St. 6 4.23 4.57
St. 7 4.16 4.5
St. 8 4.12 4.39
St. 9 4.07 4.44
St. 10 4.11 4.38
St. 11 4.17 4.48
Situational
Awareness
St. 12 4.32 4.45
St. 13 4.06 4.27
St. 14 3.92 4.37
St. 15 4.02 4.38
St. 16 4.03 4.35
Workload
Management
St. 17 4.18 4.52
St. 18 4.17 4.44
St. 19 4.13 4.37
St. 20 4.1 4.32
Decision
Making
St. 21 4.25 4.65
St. 22 4.21 4.57
St. 23 4.17 4.52
St. 24 4.2 4.47
St. 25 4.17 4.52
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Performanc
e
The trainees were asked to express their views and evaluate the course importance after
training, while the study considered the organization evaluation represented the performance
of the trainees after receiving their training.
The median values were used as a measure of central tendency to divide the x-and y-axis
into four quadrants on a scatter plot as indicated in Figure (4-20), which demonstrates the
median values of the questionnaire mean statements where they intersected at the point (4.16,
4.44).
Figure (4-20): Importance-Performance Analysis for statements’ number
The distribution of the twenty five statements on the importance-performance grid is
depicted as in Figure (4-20), and shows that eleven statements lied in quadrant I, “Keep up
the good work” and ten statements lied in quadrant III, “Low priority”. While, the remaining
four statements lied on the axis. In addition, no statements lied in both quadrant II
“Concentrate Here” and quadrant IV “Possible Overkill”.
1
2
3
4
5
6
7
8
9
10
1112
13
14 1516
17
18
19
20
21
22
23
24
25
4.2
4.3
4.4
4.5
4.6
4.7
4.8
3.8 3.9 4 4.1 4.2 4.3 4.4
Im
po
rtan
ce
IIII
mpo
rtan
c
e
107
Performance
Table (4-38): Importance-Performance Mean values for variables
Variables Perf. Mean
(X)
Imp. Mean
(Y)
Effective Communication 4.17 4.46
Leadership and Cooperation 4.14 4.46
Situational Awareness 4.07 4.36
Workload Management 4.15 4.41
Decision Making 4.20 4.55
Table (4-38) represents the five NTS as variables for this study, and the importance mean
and performance mean for each variable extracted from the questionnaire.
The median values that are used as a measure of central tendency are intersected at the point
(4.15, 4.46), that divided the x-and y-axis into four quadrants on a scatter plot to be used for
plotting the attributed for the five variables as indicated in Figure (4-27).
The distribution of the five variables on the importance-performance grid is depicted as in
Figure (4-21), and shows that Decision Making variables lied in quadrant I, “Keep up the
good work” and the variable Situational awareness lied in quadrant III, “Low priority”.
While, Leadership and cooperation, Effective Communication and Workload Management
variables lied on the axis. No variables lied in both quadrants II “Concentrate Here” and IX
“Possible Overkill”
Figure (4-21): Importance-Performance Analysis for variables
Effectve Communication
Leadership and Cooperation
Situitional Awareness
Workload Management
Decision Making
4.35
4.4
4.45
4.5
4.55
4.6
4.05 4.1 4.15 4.2 4.25
Keep up the Good Concentreate
Possible
Low
Im
po
rtan
ce
IIII
mpo
rtan
c
e
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4.7 Discussion
Data had been received, as explained earlier, from 252 respondents used to be categorized
as 126 from trainees, and the other 126 returned questionnaire from the shipping companies,
which the research named them organizations. The statistics of age and years of experience
of trainees showed that around 69.8 % of the respondents’ age is more than 30 years, with
median experience of about 15 years. This gave the researcher a confidence that the trainees
have quite suitable years of experience to evaluate a training course efficiently. The five
variables frequencies and the overall course satisfaction were examined to investigate the
level of satisfaction received from the trainees and organization.
For the first variable (Effective Communication), the total percentage of the agreement by
trainees is 91.9%, while the total percentage of agreement by organization is 76.2%.
While for the second variable (Leadership and cooperation), the total percentage of the
agreement by trainees is 90.9%, while the total percentage of the agreement by organization
is 74.9%.
In addition, the third variable (Situational awareness), the total percentage of the agreement
by trainees is 89.7%, while the total percentage of the agreement by organization is 74.4%.
Also, for the fourth variable (Workload management), the total percentage of the agreement
by trainees is 92.5%, while the total percentage of the agreement by organization is 75.8%.
Moreover, the fifth variable (Decision-making), the total percentage of the agreement by
trainees is 94.6%, while the total percentage of the agreement by organization is 77.3%.
From the author point of view, trainees attended the course for their first time, thus they
found new knowledge for them, so they feel the value of knowledge and when they are back
to their jobs they felt that they benefit from the knowledge gained from the course. They
implemented this knowledge and they felt by the change in behavior in their performance
onboard ships. However, the managers in the organizations, who did not attend the course,
gave the results they felt that trainees gained from the course. The author believed that the
lower rates by the organizations are due to their expectation for higher performance from the
marine officers, this may explain the slight difference in rates between both results.
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Furthermore, for analysis of observations, attention had been paid to extreme opinion that
show a greater contrast between importance and performance because they are key indicators
of customer dissatisfaction (Martilla and James, 1977, p. 79). The scatter plot given in Figure
(4-20) gave the results of the analysis, where most of the points lied in quadrant I (keep up
the good work) and quadrant III (low priority), while nothing lied in both quadrant II
(concentrate here) and quadrant IV (possible overkill).
Within the “keep up with good work” quadrant of the grid, were the attributes of decision
making were represented. This quadrant showed attributes that were of high importance to
delegates and which also performed well. It represents the strong side and competitive
advantages of organizations, whose task is to continue to maintain the quality of those
variables contained therein. Moreover, in the quadrant ‘keep up the good work’ the variable
decision making, was represented by highly ranked factors on the scale of performance
grades. Trainees experience this variable of the NTS courses as very important when
attending the courses.
From figure (4-21), there are obviously many attributes in the "keep up with good work"
category, which is good news for organizations in general. The figure indicated that NTS
courses are on the right track and are effective in meeting important variables for marine
officers and organizations. There are also the variable “effective communication, leadership
and cooperation and Workload Management” close to the axis and Maritime Institutions
must work to move them to the 'keep up the good work' quadrant.
The third quadrant is called ‘low priority’ because the factors in this area were considered
relatively less important, although the actual performance is below the mean score of all the
other attributes’ performances (Lin et al., 2009). The "Low Priority" quadrant was
represented as the attribute of situational awareness. The attribute within this quadrant was
of low importance to delegates and organizations who were also unhappy with the
performance of the trainees. This element does not pose any threat to the organization, but
the manager can think of an option to give more knowledge and information to the situational
awareness part from the course.
4.8 Chapter summary
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The questionnaire reliability was analyzed by Cronbach's Alpha using SPSS version 24.
Additionally, simple, multiple and stepwise regressions was used to test the hypotheses.
Correlations analysis was used to find out the strength and type of the linear relationship
between each two variables.
The IPA was a practical and useful method that contributed to identify the service elements
that resource allocation can contribute to increasing organizational satisfaction.
To assess the impact of each variable on the satisfaction of the respondents about the courses,
hypotheses testing were performed which reflects the extent of utilization from the training
courses in their behavior when the trainees are back at their jobs. The results from the
analysis mostly support the hypotheses in this study, and the difference between the opinion
of the organization and trainees has been illustrated in the evaluation of the importance of
the course.
The hypotheses measured the effectiveness of each variable (NTS) on the satisfaction of the
courses from all respondents. The analysis of the results of the hypotheses from 1 to 5 were
found significant, which means the responders were satisfied on the courses. This reflects
the effect of courses on the improvement of the trainees’ skills after completing the course
and going back to their jobs onboard ships. Some skills tend to be more important than
others.
The variables were ranked according to importance, both when analysis had been taken by
SPSS, and also when IPA had been used as:
1) Decision-making
2) Workload management
3) Leadership and cooperation
4) Effective communication
5) Situational awareness
A significant relationship was found between all the variables.
Chapter Five
Summary, Conclusion and Recommendations
5.1 Summary
5.2 Conclusion
5.3 Research Recommendations
5.4 Future Research
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Chapter Five: Summary, Conclusion and Recommendations
This chapter presented the main findings and conclusion of the current research, followed
by recommendations to marine institutes and shipping companies as well as to researchers
for future work in the same field. It begins by addressing the aim and objectives of the
research. Then, it reveals the importance of research and contribution to theory and practice.
Finally, study limitations are identified, upon which areas for further research are
recommended.
5.1 Summary
Human error is considered as one of the main causes of accidents, which can never be eliminated
but can be reduced through appropriate education and training measures. Efforts in NTS training
implementation and evaluation have been strongly recognized by other critical industries.
However, to improve shipping safety and marine officers’ performance; training and assessing
feedback on NTS are always required to ensure that marine officers have appropriate skills to
minimize, detect and mitigate errors before they run to an accident. Moreover, NTS implications
for shipping companies, employing marine officers; their expectations for incoming staff are
critical to ship safety management. Therefore, improving the NTS workforce in the marine
industry will help ensure success in reducing marine accidents.
In addition, due to this reason IMO has enforced BRM and ERM courses, and also emphasized
the importance of seafarers' NTS for safety in the marine environment. However, no much
research has been done in this area. An important aspect of any skills training programs, such as
BRM and ERM, is the need to create skills transfer to the workplace. However, an effective NTS
programs can increase productivity and help maintain safe conditions in complex and stressful
environments. The consequences of neglecting NTS such as; effective communication,
leadership and cooperation, situational awareness, workload management, and decision making,
can be catastrophic. Consequently, marine industries are reluctant to spend resources on training
officers on the basis of NTS.
Finally, the development of NTS has implications for marine officers themselves. Improving
these skills may have a personal and professional impact, such as being able to become more
proficient in understanding the social, psychological and political factors that provide the
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contextual context in which the maritime industry is developed and updated. Thus, this study
is related to future studies assessing the satisfaction of NTS training on TS performance, and
whether NTS is a general and transformable between crises requiring different TS services.
Achievement of Research Aims and Objectives
Chapter one indicated the aim of this research, which was to find out a method to assess the
efficiency of NTS for DEOW. To achieve this aim five research objectives have been
formulated and, correspondingly, five research questions were raised. To achieve these
objectives, the research methodology outlined has been adopted. Chapter two presented the
literature review, previous models and studies. Moreover, Chapter Three presented data
collection and methodology.
Table (5-1): Research objectives, questions and methodology
Objectives Methodology Chapter
1- To identify the relevant NTS seafarers should
have.
2- To investigate how NTS could be better
evaluated and thus more efficiently
contributing to the effectiveness of shipping
operations and to the development of safety
levels onboard ships.
Analytical descriptive
analysis through critical
literature review
2
3- To provide a framework for evaluating the
NTS of DEOW.
A comparative study of
available assessment models
that have been performed,
and Kirkpatrick’s evaluation
model was chosen
3
4- To develop a system to assess trainees'
performance through training programs using
the framework developed in this thesis.
5- To enable the marine industry to assess the
performance of the deck and engine room
teams and to improve selection, training and
promotion processes and procedures for
DEOW.
- Data collection:
Questionnaire
- Statistical analysis: SPSS
version 24 software
- Analysis of results
(Description analysis,
correlation, simple, multiple
regression to test
hypothesis, stepwise to
model the result & IPA)
4
114
Table 5.1 summarized the research objectives and indicated which part of the research is
concerned with achieving each objective, as well as the methodology used.
Chapter Two achieved the first and second objectives of this research: “To identify the
relevant NTS seafarers should have, and To investigate how NTS could be better evaluated
and thus more efficiently contributing to the effectiveness of shipping operations and the
development of safety levels onboard ships”
The literature review clearly indicated that the development of evaluation models helps to
define a comprehensive model of the description and ultimately train NTS on marine
officers. This, in turn, is based on earlier research that helps build a bridge between current
literature and practice. However, given that BRM and ERM training is one of the factors that
may affect the exercise and effectiveness of DEOW behaviours, it can be argued that the
current evidence on the trainees’ and organizations’ satisfaction of BRM & ERM training
programs is impressive, albeit imperfect. Specifically, what can be said is that BRM & ERM
(generally) produce positive reactions, promote learning, and change desirable behaviour in
the workplace?
Nevertheless, what cannot be answered with certainty is whether the training of BRM &
ERM has little effect on safety. At this point, the study believes that the tools necessary to
determine it exist; what is required is the mandate, access to trainees, resources to achieve
it, and of course, study additional safety measures behind accident rates. Also, the review
indicated that there was a need to identify the reasons for the evaluation and that the tools
and techniques used would change depending on the reasons for the assessment.
In addition, the Kirkpatrick’s evaluation model is a composite model, which occurs only
after the implementation of the training program to assess the merits and value of the training
program. It provides a summary report of the training results to consider its continuation
and/or improvement. It is clear in the literature that the development of maritime safety
requires accountability in the development of marine officers and that the results continue to
grow. One of the greatest challenges is the creation, development and use of evaluation
models.
115
Moreover, the review revealed a gap in previous studies, as the study found that the main
training courses developed by IMO in Manila 2010 were not specifically evaluated in the
maritime industry, even though they are rarely evaluated in aviation and anaesthesia.
Chapter Three details the methodology and techniques that are designed to contribute to the
development and evaluation of NTS required by marine officers. Also, this chapter explained
the reason behind why the researcher used the questionnaire rather than the other methods
for collecting data, and identified the method used for the development of it, the 26
statements questionnaire was developed for this study called the MONTSQ.
Each statement was answered by the participants' approval of the 5-point Likert scale. In
addition, the questionnaire is divided to two parts; first including the demographic data
(respondents, course type, age, and experience), while the second part included the
statements for each variable as indicated in STCW amendments Manila 2010.
Moreover, data collection methods, the sample size and mailing procedure were
demonstrated. It also explained various methods of data analysis by using SPSS version 24
software, where demographic data had been analysed by descriptive analysis. To test the
Hypothesis a regression test had been taken. The regression test is used to determine whether
there is a significant impact of each variable on the satisfaction level.
Furthermore, chapter three achieved the third objective of this research: “To provide a
framework for evaluating the NTS of DEOW” by identifying the different models used in
assessment of the training courses to get the best model to be used, Kirkpatrick’s evaluation
model found that it is the suitable model to be used.
Chapter Four achieved the fourth and fifth research objectives: “To develop a system to
assess trainees' performance through training programs using the framework developed in
this thesis” and “ To enable the marine industry to assess the performance of the deck and
engine room teams and to improve selection, training and promotion processes and
procedures for DEOW”.
SPSS version 24 was used to analyse the data collected from the MONTSQ from the trainees
and shipping companies, both for the demographic data and variables statements to
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determine the usefulness of the method used to assess the effectiveness of the courses on
their satisfaction on the course, which will be reflected on the safety of ships.
The research findings demonstrated that the data analysis revealed that there are strong
correlation between Effective communication and Leadership and cooperation, and also with
Decision-making. That indicates that the effective communication affect the cooperation
among the marine officers, and also it supports them in taking a decision positively, which
will be reflected in the safety measures onboard ships.
5.2 Conclusion
Although, NTS training courses have become essential for ship safety to reduce marine
accident rates in accordance with the requirements of IMO Manila 2010 amendments of
STCW, the appropriate method of evaluating the satisfaction of these courses is yet to be
developed. The literature review revealed that the Kirkpatrick evaluation approach is a
suitable model to apply to the evaluation of BRM and ERM courses. Therefore, the most
important contribution of the current research is the assessment of NTS training courses
using the third and fourth levels of the Kirkpatrick model (behavior and results), as the other
studies in maritime education and training, which is very rare, considered only the first and
second levels (reaction and learning).
Another major contribution of this research is the participation of shipping companies in the
evaluation process through the questionnaire to find out the results of the feedback to the
trainees after attending the training courses, and back to the job onboard ships.
In addition, the implementation of this study contributes to the set of knowledge by:
providing an understanding of NTS courses; providing insight into the importance and
performance of NTS features. Moreover, it provides insight into the organizational
satisfaction of course delegates regarding the component of NTS courses which indicates
the benefit of IPA in measuring and developing organizational satisfaction in this courses.
These contributions enable the researcher to bridge the knowledge gap and add information
about NTS courses. The results of this study were presented through orientation and
discussion of features that fall within each of the four quadrants as identified in the theory
of importance performance by Martila and James (1977).
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Significance of Study
The primary significance of the study is to be a valuable contribution to the much needed pool
of researches on NTS, locally, regionally and worldwide. This study provides a framework for
evaluating the NTS of captains and DEOW as a crucial factor for enhancing safety.
Moreover, NTS are cognitive skills, social and personal resources that complement technical
skills and contribute to the performance of safe and effective tasks. Many high-risk industries
such as medicine, nuclear power plants and civil aviation have established behavioral marker
systems that provide a mechanism for monitoring and evaluating NTS of operators.
However, there is no system currently available to assess the NTS of captains and DEOW.
In addition, it is anticipated that continuing research will validate the effectiveness of the
behavioral markers.
Scope and Limitations of study
This thesis focuses exclusively on NTS, which affect the performance of DEOW during
routine and emergency situations onboard ships. The method used to identify NTS focuses
on the critical or stressful moments that occur during the watch-keeping. However, the
results apply to the full range of activities of DEOW.
This study is based on data set for marine officers who attended NTS courses from the period
between 2012 and 2017. Further studies can be conducted covering more trainees, thus
enlarging the sample size.
The study is also limited to the proper measurement of NTS courses, which may eventually
provide a training tool, where feedback is given to trainees regarding their performance. In
addition, the research didn’t intentionally include the marine officers who aren’t belonging
to a specific shipping company.
5.3 Research Recommendations
Based on the current research findings, it is possible to develop some recommendations for
shipping companies and maritime institutes as follows:
1- MET institution:
• Marine education and training institutes should remain relevant in a rapidly maturing
and vital area that respond to the needs of the maritime industry. They could provide
118
an appropriate range of NTS training courses, while retaining excellent technical
competencies that do not lag behind Industry.
• As a result from this study, which indicated the importance of NTS training courses
for marine officers, new courses should be conducted for the cadets in the simulators
to train them on the managerial skills at early stage of their career.
2- Shipping companies:
• Shipping companies should consider the importance of the NTS training courses for
the safety of their ships, and carry out those courses either in the maritime institutes
or onboard their ships.
• The study showed that the workload management skills got less importance from the
sample of the study, so shipping companies should give it more care, also for the
situational awareness.
5.4 Future Research
Future research is needed to determine the marine safety requirements for a variety of NTS
programs rather than the courses covered in this work.
In addition to the above recommendations directed essentially to the industry, the following
points are judged to merit further investigation.
• More studies should be carried out conducting more NTS by using other methods
rather than questionnaire and compare it with this study.
• To select or include other groups of trainees that can be assessed, to study the causes
of marine accidents related to NTS and how to take measures to eliminate them.
• To expand the set of evaluation criteria by considering other models and different set
of NTS.
• To apply other evaluation model – such as a mathematical model, which could be
Fuzzy logic - and to compare the results.
119
References
Abalo, J., Varela, J., & Manzano, V. (2007). Importance values for Importance–Performance
Analysis: A formula for spreading out values derived from preference rankings.
Journal of Business Research, 60(2), 115-121.
ABS, (2004). ABS review and analysis of accident Databases: 1991-2002 data. American
Bureau of Shipping Technical Report: SAHF 2003-5.1. March 2004
Adams, Chris (2018). Human Error Definition: Glossary of Ergonomics Terms. Retrieved
at March 2018 from: https://www.thoughtco.com/what-is-human-error-1206375
Ahmad, Iftikhar & Din, Sirajud (2009). Evaluating Training and Development. Retrieved at
Feb. 2019 from: https:// www. researchgate. net/ publication/ 234101726_
EVALUATING_TRAINING_AND_DEVELOPMENT
Akhtar, M. & Utne, I. (2014). Human fatigue’s effect on the risk of maritime groundings –
A Bayesian Network modelling approach. Safety Science, 62 (2014), pp. 427-440
Alice M. Black, & Garee W. Earnest, (2009). Measuring the Outcomes of Leadership
Development Programs. Journal of Leadership & Organizational Studies Volume
16 Number 2 November 2009. Pp. 184-196
Allianz, (2018). Safety and Shipping Review 2018 - An annual review of trends and
developments in shipping losses and safety. Allianz Global Corporate & Specialty,
Munich
American Psychological Association (APA), (2018). Five tips to help manage stress.
Retrieved at March 2018 from: http://www.apa.org/helpcenter/manage-stress.aspx
Bacon, D. R. (2003). A comparison of approaches to importance-performance analysis.
International Journal of Market Research, 45(1), 55-73.
Barenett, M., Gatfield, D. & Pekcan, C. (2006). Non-Technical Skills: the vital ingredient in
world maritime technology. Retrieved at February 2018 from: http://www.he-
alert.org/filemanager/root/site_assets/standalone_pdfs_0355-/HE00515.pdf
120
Barry Z. Posner, (2012). Effectively Measuring Student Leadership. Journal of Leavey
School of Business, Santa Clara University, Santa Clara, CA 95030, USA; pp. 221-
234
Benito León-del-Barco, Santiago Mendo-Lázaro, Elena Felipe-Castaño, Fernando Fajardo-
Bullón, and Damián Iglesias-Gallego, (2018). Measuring Responsibility and
Cooperation in Learning Teams in the University Setting: Validation of a
Questionnaire. Retrieved at January 20108 from: https:// www. ncbi. nlm. nih.
gov/pubmed/29593622
Berardi, A., Parasuraman, R. & Haxby, J. (2001). Overall vigilance and Sustained Attention
Decrements in Healthy Aging. Experimental Aging Research 27, PP: 19-39
Bhattacharya, Yogendra (2014). Employee engagement in the shipping industry: a study of
engagement among Indian officers. World Maritime University Journal of maritime
affairs, 2014
Blanchard P., Thacker J. & Way S. (2000). Training evaluation: perspectives and evidence
from Canada. International Journal of Training and Development, Vol. 4(4), pp.
295-304
Bower, J. & Segerstrom, S. (2004). Stress management, finding benefit, and immune
function: positive mechanisms for intervention effects on physiology. Journal of
Psychosomatic Research. 56 (1): 9–11. Retrieved at December 2017 from:
http://www.jpsychores.com/article/S0022-3999(03)00120-X/fulltext
Britton, E., Simper, N., Leger A., & Stephenson J., (2015). Assessing Teamwork in
Undergraduate Education: A measurement tool to evaluate individual teamwork
skills. Assessment & Evaluation in Higher Education, pp. 1-21. Retrived at January
2019 from: http:// www. queensu. ca/ qloa/ sites/ webpublish. queensu.
ca.qloawww/files/files/TeamQ%202-pager.pdf
Brown, Nathan (2013). Co-operative skills: what are they and why do we need them?
Retrieved at January 2018 from: https://www.theguardian.com/social-enterprise-
network/2013/apr/19/cooperative-skills-what-are-they
121
Brunckhorst, O., Shahid, S., Aydin, A., Khan, S., Mcllhenny, C., Brewin, J., Sahai, A., Bello,
F., Kneebone, R., Khan, M. S., Dasgupta, P., Ahmed, K. (2015). The Relationship
Between Technical And Nontechnical Skills Within A Simulation-Based
Ureteroscopy Training Environment. Journal of Surgical Education. DOI:
10.1016/j.jsurg.2015.04.002.
Bué, I., Lopes, C. & Semedo, A., (2015). The use of the Portuguese Naval Academy
Navigation Simulation Leadership training Purposes. Balkema, London, UK,
pp.83‐88.
Carless S A, Robert-Thompson G P (2001). Self-ratings in training programs: an
examination of level of performance and the effects of feedback. International
Journal of Selection and Assessment, Vol. 9 (3), September, pp. 5-21
Chang, Ya-Hui Elegance, (2010). An Empirical Study of Kirkpatrick’s Evaluation Model in
the Hospitality Industry. FIU Electronic Theses and Dissertations. 325.
Clark S., David E., Weldon, K., Benjamin S., Elizabeth L., Joel W., Gerald M., Victor F.,
Tyler S., & Jennifer S., (2019). Measuring Vigilance Abilities to Enhance Combat
Identification Performance. Retrieved at February 2019 from: https:// pdfs.
semanticscholar.org/f152/8403a072dfc23f82b63750d6eaa4d706709a.pdf
Cohen, J. (1992). A power primer. Psychological Bulletin, 112(1), 155-159.
Conceição, V.P. (2017). Development of a Behavioural Marker System for Rating Cadet’s
Non-Technical Skills. The International Journal on Marine Navigation and Safety
of Sea Transportation - Volume 11- Number 2 - June 2017
COOP, (2012). Comments Off on Co-operative skills Categories: About Co-operatives,
Communication skills, coping with conflict, Meetings and decision making.
Retrieved at January 2018 from: http://www.cooperantics.coop/2012/06/04/co-
operative-skills
Cooper, S., Porter J. & Peach, l. (2014). Measuring situation awareness in emergency
settings: a systematic review of tools and outcomes. Retrieved at January 2019
from: https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4753990/
122
CRM, (2018). 4 Tips for Building Team Cooperation. Retrieved at January 2018 from:
http://www.crmlearning.com/blog/index.php/2012/09/4-tips-for-building-team-
cooperation
Creswell, J. W. (2005). Educational research: Planning, conducting, and evaluating
quantitative and qualitative research (2nd ed.). Upper Saddle River, NJ: Pearson
Education.
Davitt, K. and Holford, S. (2015). The development of resource management and leadership
behavioural marker for the merchant navy. Warsash Maritime Academy,
Southampton Solent University, pp. 1-24.
Deaton, J. & Parasuraman, R. (1993). Sensory and Cognitive Vigilance: Effect of Age on
Performance and Subjective Workload. Human Performance, vol. 6, no. 1, pp. 71-
97.
Deepa R. & Baral R. (2019). Importance-performance analysis as a tool to guide employer
branding strategies in the IT-BPM industry. Journal of Organizational
Effectiveness: People and Performance Vol. (6) No. 1, 2019 pp. 77-95
Deng, W.-J., Kuo, Y.-F., & Chen, W.-C. (2008). Revised importance–performance analysis:
three-factor theory and benchmarking. The Service Industries Journal, 28(1), 37-
51.
Dowd, Tom P.; Tierney, Jeff (2017). Teaching Social Skills to Youth: A Step-by-step Guide
to 182 Basic to Complex Skills plus Helpful Teaching Techniques. Boys Town
Press. ISBN 9781889322698 – via Google Books.
Doyle, Alison (2018). Management Skills List and Examples. Retrieved at March 2018 from:
https://www.thebalancecareers.com/management-skills-list-2062427
Elizabeth A. Rider, MSW MD, Margaret M. Hinrichs & Beth A. Lown, (2006). A model for
communication skills assessment across the undergraduate curriculum. Journal of
Medical Teacher. Volume 28, Issue 5, pp127-134
Evangelos Tsoukatos, (2008). Applying importance-performance analysis to assess service
delivery performance. EuroMed Journal of Business, Vol. 3 Iss 2 pp. 144 - 162
123
Feng, M., Mangan, J., Wong, C., Xu, M., & Lalwani, C. (2014). Investigating the different
approaches to importance–performance analysis. The Service Industries Journal,
34(12), 1021-1041.
Ferguson, S., Devereaux; Terrion, Jenepher; Ahmed, Rukhsana; and Jaya, Peruvemba
(2014). Communication in Everyday Life: Personal and Professional Contexts.
Canada: Oxford University Press. p. 464
Flin, R. & O'Connor, P. (2001). Applying crew resource management in offshore oil
platforms. In E. Salas, C.A. Bowers, & E. Edens (Eds.), Improving teamwork in
organization: Applications of resource management training (pp. 217–233).
Hillsdale, NJ: Erlbaum.
Flin R, Martin L, Geosters K, Hoermann J, Amalberti R, Valot C, Nijhuis H (2003).
Development of the NOTECHS (non-technical skills) system for assessing pilots’
CRM skills. Hum Factors Aerosp Saf 3(2): 95–117
Flin, R., O'Connor, P., & Crichton, M. (2008). Safety at the Sharp End: A Guide to Non-
Technical Skills: Ashgate Publishing Limited
Flin, R., Martin, L., Goeters, K. M., Hörmann, H. J., Amalberti, R., Valot, C., & Nijhuis, H.
(2017). Development of the NOTECHS (non-technical skills) system for assessing
pilots’ CRM skills. Human Factors and Aerospace Safety, 3(2), 97–119
Gay, L. R. (1996). Educational research: Competencies for analysis and applications (5th
ed.). Englewood Cliffs, NJ: Prentice Hall.
Gay, L. R., & Airasian, P.W. (2002). Educational research: Competencies for analysis and
applications (7th ed.). Englewood Cliffs, NJ: Prentice Hall.
Haghighi, K. and Yazdi, Z. (2015). Fatigue management in the workplace. Industrial
Psychiatry Journal, Jan-Jun; vol. 24(1), pp: 12–17.
Hall, Crystal C.; Ariss, Lynn; and Todorov, Alexander (2007). "The illusion of knowledge:
when more information reduces accuracy and increases confidence".
Organizational Behavior and Human Decision Processes. 103 (2): PP 277–290.
Retrieved at January 2018 from: https://www.10.1016/j.obhdp.2007.01.003
124
Hannum K. M. & Kaufman, R. (2019). Applying the Organizational Elements Model to
Leadership Development Evaluation. Retrieved at Feb. 20189 from:
https://www.aes.asn.au/images/stories/files/conferences/2008/Papers/p46.pdf
Helton, W. S., Hollander, T. D., Warm, J. S., Tripp, L. D., Parsons, K., Matthews, G., et al.
(2007). The abbreviated vigilance task and cerebral hemodynamics. Journal of
Clinical & Experimental Neuropsychology, 29, 545–552.
Hudson, S., Hudson, P., & Miller, G. A. (2004). The measurement of service quality in the
tour operating sector: A methodological comparison. Journal of travel Research,
42(3), 305-312.
Hugo, N. C., & Lacher, R. G. (2014). Understanding the role of culture and heritage in
community festivals: An importance-performance analysis. Journal of Extension,
52(5) Article 5RIB4. Retrieved at November 2019 from: http:// www. joe. org/
joe/2014october/rb4.php
Human Element Guidance - PART 2, (2016). The Deadly Dozen - 12 Significant People
Factors in maritime safety. UK
IIDM (International Institute of Directors & Managers), (2018). Developing Your Workload
Management Skills. Retrieved at March 2018 from:
http://www.iidmglobal.com/expert_talk/expert-talk-categories/personal-
success/manage_time/id24803.html
IMO, (2011). STCW including 2010 Manila amendments STCW Convention and STCW
Code, 2011. London, Author
IMO, (2018). Rationale and mandate for IMO’s Technical Co-operation Programme.
Retrieved at November 2017 from: http:// www. imo. org/ en/ OurWork/
TechnicalCooperation/Documents/Brochure/English.pdf#search=over%2090%25
%20of%20the%20world%E2%80%99s%20trade%20is%20carried%20by%20sea
Jackson, M. L., Gunzelmann, G., Whitney, P., Hinson, J. M., Belenky, G., Rabat, A., and
Van Dongen, H. P. A. (2013). Deconstructing and reconstructing cognitive
performance in sleep deprivation. Sleep Medicine Reviews, 17, PP: 215-225
125
James, Hayton (2015). Leadership and Management Skills in SMEs: Measuring
Associations with Management Practices and Performance. Enterprise Research
Centre/Warwick Business School, London
Johns, N. (2001). Importance-performance analysis using the profile accumulation
technique. Service Industries Journal, 21(3), 49-63.
Johnson, C. (2011). Human Error, Interaction, and the Development of Safety-Critical
Systems. In G. A. Boy (Ed.), Handbook of Human-Machine Interaction: A Human-
Centered Design Approach (pp. 91-105). Farnham, England: Ashgate Publishing
Limited
Joo, G. Soon (2017). THE KIRKPATRICK MODEL: The end is the beginning. Retrieved at
Feb. 2019 from: https:// www. ial. edu. sg/ content/ ialeads/ pdfs/ The_
Kirkpatrick_Model.pdf
Joseph, M., Allbright, D., Stone, G., Sekhon, Y., & Tinson, J. (2005). Importance-performance
analysis of UK and US bank customer perceptions of service delivery technologies.
International Journal of Financial Services Management, 1(1), 66-88.
Kirkpatrick, D. L. (1976). Evaluation of training. In R. L. Craig & L. R. Bittel (Eds.).
Training and development handbook (pp. 18.1-18.27). New York: McGraw Hill.
Kuo, Y.-F., Chen, J.-Y., & Deng, W.-J. (2012). IPA–Kano model: A new tool for
categorising and diagnosing service quality attributes. Total Quality Management
& Business Excellence, 23(7-8), 731-748.
Lin, S.-P., Chan, Y.-H., & Tsai, M.-C. (2009). A transformation function corresponding to
IPA and gap analysis. Total Quality Management, 20(8), 829-846.
Long, W. Max (2010). Development of the Non-Technical Skills for Officers of the Deck
(NTSOD). A thesis submitted to NAVAL POSTGRADUATE SCHOOL, USA
Louise, Gorman (2017). An Examination of the Performance Management Training Status
of Managers Responsible for the Implementation of Performance Management
Initiatives in a Hospital Setting. MA in Human Resource Management: National
College of Ireland.
126
Lu, C.-S., & Tseng, P.-H. (2012). Identifying crucial safety assessment criteria for passenger
ferry services. Safety Science, 50(7), 1462-1471. Retrieved at December 2017 from:
http://dx.doi.org/10.1016/j.ssci
Lundberg, J. (2015). Situation Awareness Systems, States and Processes: A holistic framework.
Theoretical Issues in Ergonomics Science. Retrieved at December 2017 from:
https://www.tandfonline.com/doi/full/10.1080/1463922X.2015.1008601
Mahwah, NJ: Lawrence Erlbaum Associates, Inc. Hollnagel, E. (2014). Safety-I and safety-
II: the past and future of safety management. Farnham, Surrey, England: Ashgate
Publishing Limited
Martilla, J. A., & James, J. C. (1977). Importance-performance analysis. Journal of
Marketing, 10(1), 13–22.
Matzler, K., Bailom, F., Hinterhuber, H. H., Renzl, B., & Pichler, J. (2004). The asymmetric
relationship between attribute-level performance and overall customer
satisfaction: a reconsideration of the importance–performance analysis. Industrial
marketing management, 33(4), 271-277.
Mayer, Tin (2017). Task Management – 9 Tips to Improve Your Productivity. Retrieved at
March 2018 from: http://www.fromgnometogoliath.com/2017/05/05/task-
management-improve-productivity/
Nale, R. D., Rauch, D. A., Wathen, S. A., & Barr, P. B. (2000). An exploratory look at the
use of importance performance analysis as a curricular assessment tool in a school
of business. Journal of Workplace Learning, 12(4), 139-145.
National Council on Measurement in education, (2018). Cognitive Functioning. Retrieved
at Jan 2019 from: http:// www. ncme. org/ ncme/ NCME/ Resource_ Center/
Glossary/NCME/Resource_Center/Glossary1.aspx?hkey=4bb87415-44dc-4088-
9ed9-e8515326a061#anchorC
Newman, I., & Newman, C. (1994). Conceptual statistics for beginners (2nd. ed.). Lanham,
MD: University Press of America.
127
Nick, Todd G. (2007). "Descriptive Statistics". Topics in Biostatistics. Methods in Molecular
Biology. 404. New York: Springer. pp. 33–52.
Nura, a. and Osman, N. (2012). A Toolkit on effective decision making measurement on
organizations. International Journal of Humanities and Social Science Vol. 2 No. 4
[Special Issue – February 2012]. Pp: 296-303
O’Connor, P., Hormann, H., Flin, R., Lodge, M., Goeters, K., And The Jartel Group (2002)
Developing a method for evaluating crew resource management skills: a European
perspective. International Journal of Aviation Psychology, 12 (3), pp. 265-288.
O’Connor, P., Campbell, J., Newon, J., Melton, J., Salas, E. And Wilson, K. A. (2008). Crew
resource management training effectiveness: A meta-analysis. The international
journal of aviation psychology, 18(4), pp. 353-368.
O’Connor, P., & Cohn, J. (2010). Enhancing human performance in high reliability
organizations: learning from the military. In: P. O’Connor & J. Cohn (Eds.).
Human Performance Enhancements in High-Risk Environments: Insights
Developments, and Future Directions from Military Research (pp. 1–8). Santa
Barbara, CA: ABC- Clio.
Oh, H. (2001). Revisiting importance–performance analysis. Tourism management, 22(6),
617-627.
Otmar Varela & Esther Mead, (2018). Teamwork skill assessment: Development of a
measure for academia. Journal of Education for Business, 93:4, pp. 172-182, DOI:
10.1080/08832323.2018.1433124
Piñeiro, I. A., Boubeta, A. R., & Mallou, J. V. (2006). El análisis de importancia-valoración
aplicado a la gestión de servicios. Psicothema, 18(4), 730-737.
Plough, Caroline (2017). How do you effectively manage your workload every day?
Retrieved at March 2018 from: https://www.quora.com/How-do-you-effectively-
manage-your-workload-everyday
Parasuraman, R. & Giambra, L. (1991). Skill Development in Vigilance: Effects of Event
Rate and Age. Psychology and Aging · July 1991
128
Popper, K. (1959). The Logic of Scientific Discovery. Retrieved at February 2018 from:
http://libweb.surrey.ac.uk/library/skills/Introduction%20to%20Research%20and%
20Managing%20Information%20Leicester/page_51.htm
Prajogo, D.I. and McDermott, P. (2011), “Examining competitive priorities and competitive
advantage in service organizations using importance-performance analysis matrix”,
Managing Service Quality: An International Journal, Vol. 21 No. 5, pp. 465-483.
Rae, L. (2002). Assessing the Value of Your Training: The Evaluation Process from Training
Needs to the Report to the Board. Burlington: Gower Publishing Company
Rasmussen, J. (1997). Risk management in a dynamic society: a modelling problem. Safety
Science, 27(2–3), 183-213. Retrieved at January 2018 from:
http://dx.doi.org/10.1016/S0925-7535(97)00052-0
Reason, J. T. (1997). Managing the risks of organizational accidents. Brookfield, VT:
Ashgate Publishing Limited
Reason, J. (2013). A life in error: from little slips to big disasters. Farnham England: Ashgate
Publishing Limited
Riem, M.E., Marian J. Bakermans-Kranenburga, Marinus H. van IJzendoorn, Dorothe´e
Outa and Serge A.R.B. Rombouts (2012). Attachment in the brain: adult
attachment representations predict amygdala and behavioral responses to infant
crying. Attachment & Human Development, Vol. 14, No. 6, November 2012, pp
533–551
Röttger, Stefan (2015). Effects of a classroom-based bridge resource management training
on knowledge, attitudes, behaviour and performance of junior naval officers. WMU
Journal of maritime affairs. Malmo, SWEEDEN
Rouse, Donald (2011). Employing Kirkpatrick’s Evaluation Framework to Determine the
Effectiveness of Health Information Management Courses and Programs.
Perspectives in Health Information Management.
Saeed, Farhan (2015). FSA Based Analysis of Deck Officers’ Non-Technical Skills in Crisis
Situations. Liverpool John Moores University, PHD thesis.
129
Saeed, F., Wall, A., Roberts, C., Riahi, R & Bury, A (2016). A proposed quantitative
methodology for the evaluation of the effectiveness of Human Element, Leadership
and Management (HELM) training in the UK. WMU Journal of Maritime Affairs,
16 (1). pp. 115-138. ISSN 1651-436X LJMU
Safahani, M. (2015). Human errors and non-technical skills. IRISL Maritime Training
Institute. Retrieved at January 2018 from: www. healert. org/ filemanager/ root/
site_assets/...pdfs...-/he00910.pdf
Salas, E., Wilson, K.A, Burke, C.S., & Wightman, D.C. (2006). Does CRM training work?
An update, extension and some critical needs. Human Factors, 14, 392-412.
Salas, E., DiazGranados, D., Sallie J. Weaver, S, & King, H. (2008). Does Team Training
Work? Principles for Health Care. Academic Emergency Medicine Consensus
Conference, “The Science of Simulation in Healthcare: Defining and Developing
Clinical Expertise,” Washington, DC, May 28, 2008.
Saunders, M.N.K. and Thornhill, A. (2003). Organisational justice, trust and the
management of change: an exploration. Personnel Review 32: 3, 360–74.
Schneemann, F., & Gohl, I. (2016). Analyzing driver-pedestrian interaction at crosswalks:
A contribution to autonomous driving in urban environments. IEEE Intelligent
Vehicles Symposium, Gothenburg, Sweden, 19th-22nd June 2016.
Schuermann, F. & Marquardt, N. (2016). Adaptation of crew resource management training
in high-risk industries. Int. J. of Safety and Security Eng., Vol. 6, No. 2 (2016) 341–
350
Scouller, J. (2011). The Three Levels of Leadership: How to Develop Your Leadership
Presence, Knowhow and Skill. Cirencester: Management Books 2000
Sternberg, Robert (2009). Cognitive Psychology. Belmont: CA: Wadworth Cengage
Learning. p. 142
Strauch, B. (2015). Can we investigate safety culture in accident investigations, or should
we? Safety Science, PP - 77, 102-111.
130
Tabachnick, B., & Fidell, L. (2001). Computer-assisted research design and analysis. Upper
Saddle River, NJ: Pearson Education.
Tam, M.-l., & Lam, W. H. (2004). Determination of service levels for passenger orientation
in Hong Kong International Airport. Journal of Air Transport Management, 10(3),
181-189.
Tamkin P, Hillage J, Willison R (2002). Indicators of Management Capability: Developing
a Framework. Council for Excellence in Management and Leadership
Training Division (FC-T), (2015). Standard Operating Procedures (SOP) for the coast
guard’s training system. Volume 3, TRAINING EVALUATION. Coast Guard Force
Readiness Command. USCG
Tran, Linh (2015). Get Things Done With Task Management (Aspects of Project
Management Part 4). Retrieved at March 2018 from: https:// www. inloox. com/
company/blog/articles/get-things-done-with-task-management-aspects-of-project-
management-part-4/
Wade, D. J., & Eagles, P. F. (2003). The use of importance–performance analysis and market
segmentation for tourism management in parks and protected areas: An application
to Tanzania's national parks. Journal of Ecotourism, 2(3), 196-212.
Warner, L. A., Ali, Chaudhary, A. K. and Lamm, A. J. (2016). Using Importance-
Performance Analysis to Guide Extension Needs Assessment. Journal of Extension,
vol. (54), pp 1-11
Wilkens, Steven (2018). How to Make Good Judgment Decisions. Retrieved at February 2018
from: https://oureverydaylife.com/make-good-judgment-decisions-7806970.html
Wright, M., Taekman, J., & Endsley, M. (2019). Objective measures of situation awareness
in a simulated medical environment. Retrieved at January 2019 from:
https://qualitysafety.bmj.com/content/13/suppl_1/i65
Yavas, U., & Shemwell, D. J. (2001). Modified importance-performance analysis: an
application to hospitals. International Journal of Health Care Quality Assurance,
14(3), 104-110.
131
Yildiz, S. M. (2011). An importance-performance analysis of fitness centre service quality:
Empirical results from fitness centres in Turkey. African Journal of Business
Management, 5(16), 7031.
Zeigler, Art (2015). Sound Judgement in the Workplace. Retrieved at December 2017 from:
https://www.linkedin.com/pulse/sound-judgement-workplace-art-zeigler/
Zimmer, Tim (2018). Importance of Teamwork at Work. Retrieved at March 2018 from:
http://smallbusiness.chron.com/importance-teamwork-work-11196.html
Žogla, I. (2001). Theoretical Basics of Dentistry. Riga: RaKa
Appendices
133
Appendix A: AASTMT’ Course details for BRM and
ERM Courses
(A-1) BRM Training Course Model
College/ Institute/Complex/Center
:المعهد /الكلية/المجمع/المركز Complex Simulator Center
Department/ القسـم : Marine Department
Title/ اسم الدورة : Bridge Resource Management Simulator course
Code/ رمز الدورة : MS0201
Description/
:وصف الدورة
The main tenets of this course relate to the non-technical skills associated
with the social interaction between team members, situation awareness and
decision-making. This is a high fidelity, complex, simulated working
environment.
Objectives/
ورة أهداف الد :
The trainees who successfully complete this course will be able to effectively
contribute to the bridge team during ship maneuvering in normal and
emergency situations. In addition to recognize the value of bridge teamwork
and build greater understanding and awareness of efficient bridge procedures.
They will develop their situational awareness skills to enable them to
anticipate what is coming next in case of handling unexpected and emergency
situations during watch keeping and ship handling
Learning Outcomes/
من الدورة نتائج التعلم :
On completion of training, trainees will have sufficient knowledge and
understanding regarding the non-technical skills:
• Why BRM?
• Objectives of BRM
• Bridge Resources.
• Optimal utilization of all Resources
• Situation Awareness
• Situation Awareness
• Development of Error Chain
• Causes of Casualties and Grounding
• Avoidance of Casualties
• Efficient Bridge Organization
Participants/
:الفئات المستهدفة
▪ Deck officers’ in operation level.
▪ Deck officers’ in management level.
Duration/
فترة الدورة :
5 Days
134
Course Contents/
محتوى المقرر :
1. Familiarization with Simulators Systems
2. Departure Port Said Anchorage Area and Proceeding to PS Channel
3. Un-Berthing Tanker Ship And Proceeding Through Jong Fairway
(Singapore)
4. VLCC Proceeding Through Singapore D.W. Route And Homing To Jong
Anchorage Area
5. Berthing Container Ship At East Keppel Harbour (Singapore)
6. VLCC Proceeding Through D.W. Route Of Dover Strait
7. Berthing Tanker Ship At El Dekhala Port (Egypt)
8. Departure Sultana Shoal Anchorage Area And Berthing Tanker Ship (
Sinki FW- Singapore)
9. VLCC Proceeding Through Gibraltar Strait And Homing To Algeciras
Anchorage Area
Course
Credits/ ساعاتال
للمقرر المعتمدة
Course
Contacts/ ساعاتال
للمقرر الفعلية
30 Hours
Accreditations/ الاعتما
دات
(add the logo of the
accreditation
agency if any)/
)إضافة جهة الاعتماد إن
وجدت(
N/A
Language/
اللغة : English & Arabic
Location/
الموقع : Complex Simulator Center
Class Size/
أقل وأكبر عدد للمتدربين
يمكن تنفيذ الدورة به:
4/8
Trainer
Qualification/
:مؤهلات المدرب
The instructor shall have appropriate training in instructional techniques and
training methods .
▪ The instructors are existing AAST instructors who engaged with several
of STCW courses .
▪ AAST instructors already passed several of academic courses & test to
qualify them to be a member of the academy teaching staff.
Course References /
المراجع العلمية للدورة
1-STCW, as amended Manila (2010), section A.
2- IMO Model Course 1.22
3- Bridge Team Management, A practical Guide. Captain A. J. Swift.
135
(A-2) ERM Training Course Model
College/ Institute/Complex/Center
/الكلية/المجمع/المركز المعهد :
College of Maritime Transport and Technology
Department/ القسـم : Special Courses and Simulators Department
Title/ اسم الدورة : Engine Room Resource Management
Code/ رمز الدورة : ERRM
Description/
:وصف الدورة
The main tenets of this course relate to the non-technical skills
associated with the social interaction between team members,
situation awareness and decision-making. This is a high fidelity,
complex, simulated working environment.
Objectives/
ورةأهداف الد :
The objective of this course is to gain a fundamental understanding
of engine room resource management and to successfully participate
in leadership and team exercises, thereby displaying knowledge of
leadership, managerial skills, and team working skills.
Learning Outcomes/
من الدورة نتائج التعلم :
On completion of training, trainees will have sufficient knowledge
and understanding regarding the non-technical skills inside the
engine room to enable them to:
• Co-operation and teamwork.
• Situational awareness management.
• Decision-making.
• Human factors and human error.
• Crisis management and human behaviour.
• Leadership and workload management.
• Risk assessment and risk management.
• Efficient use of resources and delegation.
• Communications.
• Identification of cause of problem and timely correct response.
• Methodical and logical approach to fault diagnosis and problem
solving.
• Identification and justification of 'assumptions'.
Participants/
:الفئات المستهدفة
▪ Engineer officers’ in operation level.
▪ Engineer officers’ in management level.
Duration/
فترة الدورة : 5 Days
136
Course Contents/
محتوى المقرر :
1. Introduction to ERRM
2. Human Factors and ships accidents’
3. ERM requirements
4. Multi-Criteria Decision Making
5. Situational Awareness
6. The role of teamwork abilities and leadership skills in Engine
Room
7. Effective Communications
8. Assertiveness
9. Groups of Exercises in Engine Room Simulator Course
Credits/ ساعاتال
للمقرر المعتمدة
Course
Contacts/ ساعاتال
للمقرر الفعلية
30 Hours
Accreditations/الاعتماد
ات
(add the logo of the
accreditation agency
if any)/
)إضافة جهة الاعتماد إن
وجدت(
N/A
Language/
اللغة : English & Arabic
Location/
الموقع : Collage of Maritime Transport and Technology
Class Size/
أقل وأكبر عدد للمتدربين
يمكن تنفيذ الدورة به:
4/8
Trainer
Qualification/
:مؤهلات المدرب
▪ B.SC in Marine Engineering, Chief Engineer CoC and sea going
ship experience.
Course References /
المراجع العلمية للدورة
1- STCW, as amended Manila (2010), section A.
2- Maritime Human Resource Institute Engine-room Resource
Management (2012), Japan.
137
Appendix B: Different models used for assessment of training courses
Table (B-1): Different models used for assessment of training courses
No. Date Author Title Objective Method Result Comment
1 2017 Louise
Gorman
MA Thesis
An Examination of
The Performance
Management
Training Status of
Managers
Responsible for the
Implementation of
Performance
Management
Initiatives
in a Hospital Setting
The aim of this
research is a training
evaluation exercise,
to learn if the
managers in this
healthcare facility
feel that the training
and support they
receive is sufficient to
conduct the
Performance
Management
initiatives.
An evaluation of the top four
models Kirkpatrick, Kaufman,
Anderson, and Brinkerhoff will
inform on the most appropriate for
this study. A single method
approach of qualitative interviews
was employed to facilitate a more
thorough analysis of the managers’
opinions and perceptions in order
to fulfil the research aims and
objectives of this study.
Training reduces organisational
risks, promotes organisational
change, builds teams, enhances
communication and distributes
information and knowledge while
developing skills. Training
empowers individuals through a
methodical approach that expands
and impacts their knowledge,
attitude and skills which enhances
individual, team and
organisational effectiveness.
Reaction evaluation considers
the multiple reactions of the
various participants. Outcome
evaluation assesses if the
objectives are achieved at an
immediate, intermediate and
ultimate levels. Kirkpatrick’s
training evaluation model
assesses effectiveness by
looking at the participants’
reactions, their attitude and the
outcome behavior following the
training.
2 2016 V.
SCHUERM
ANN &
Marquardt
ADAPTATION OF
CREW
RESOURCE
MANAGEMENT
TRAINING IN
HIGH-RISK
INDUSTRIES
First, this study seeks
to outline the current
state of CRM in
aviation and other
industries by offering
detailed information
about the training
programmes. Second,
it is essential to
clarify what works
well within the
training and what
does not.
Semi-structured interviews were
conducted to answer the research
questions. All interviews were
conducted by the same interviewer
and lasted 25 minutes to 1 hour.
The interviews were recorded for
safeguarding all information. Then,
recordings were transcribed with
the help of a transcription software.
It focused on cross-industry
findings by presenting the results
based on the experts’ interviews.
Referring to the evaluation of
training, almost all experts pointed
out that it is not possible to
evaluate a CRM training on all
four levels of Kirkpatrick’s
evaluation model. This result
aligns with a meta-analysis from
Salas and his colleagues who
barely found studies that evaluated
CRM training on all four levels.
Qualitative interviews are a
valuable tool for finding out
extensive information. The
current study obtained
numerous results regarding
CRM. This section discusses the
results by considering the
study’s strengths and
limitations.
138
No. Date Author Title Objective Method Result Comment
3 2015 Training
Division
(FC-T)
Coast Guard
Force
Readiness
Command
STANDARD
OPERATING
PROCEDURES
(SOP) FOR THE
COAST GUARD'S
TRAINING
SYSTEM
Volume 3
TRAINING
EVALUATION
This SOP provides
guidelines for
conducting
standardized
evaluations of
performance-based
resident courses and
other performance
interventions
managed within the
Coast Guard training
system. Evaluation
data is used to assist
with making critical
training decisions and
future design
decisions.
For the purpose of this SOP, the
Kirkpatrick Model will be used as
the model for Coast Guard
evaluations. A formative
evaluation is the ongoing process
of collecting data to improve a
program, product, or instruction
during the design and development
stage. Formative evaluation is
applied to both instructional
products and the instructional
process.
There is a strong correlation
between Level 1 and 2
evaluations. There is a strong
correlation between Level 3 and 4
evaluations. If the learner is able
to perform the new skill on the
job, chances are that it will have a
positive impact on the
organization.
High quality evaluation is time
consuming. However, it ensures
on-the-job application and
guarantees subsequent results
are maximized.
4 2015 Stefan
Röttger &
Jens T.
Kowalski
Effects of a
Classroom–Based
Bridge Resource
Management
Training on
Knowledge,
Attitudes,
Behaviour and
Performance of
Junior Naval
Officers
Assessment of the
effectiveness of
classroom–based
bridge resource
management (BRM)
training for junior
naval officers, in
which general
principles of human
behaviour and
performance in teams
and under stress were
conveyed.
For 117 study participants,
evaluation criteria were assessed
on all levels as defined by
Kirkpatrick: subjective training
evaluation, knowledge, attitudes,
and behaviour as well as
performance while commanding a
vessel during a real–world
exercise.
BRM participants showed better
subjective training evaluations and
more BRM–related knowledge
than controls. Training did not
produce differences between
groups regarding BRM–related
attitudes, the demonstration of
non–technical skills or the overall
success in the real–world exercise.
In the design of BRM and CRM
training courses alike, the
effective application of general
principles to a given context
must be defined, and application
must be emphasised during
training delivery.
139
No. Date Author Title Objective Method Result Comment
5 2011 Donald
(Nick)
Rouse
Employing
Kirkpatrick’s
Evaluation
Framework to
Determine the
Effectiveness of
Health Information
Management
Courses and
Programs
The paper provides
concrete tips that
health information
management
instructors can apply
in the process of
evaluating the
effectiveness of their
courses and
programs.
The paper uses Kirkpatrick’s
evaluation framework to present a
model that health information
management instructors can use to
improve upon the standard course
evaluation form. Kirkpatrick’s
model stresses evaluation on the
levels of reaction, learning,
behavior, and results.
Although Kirkpatrick’s model was
never intended to describe exactly
what to evaluate and how to do it,
it does provide an overview of
how to proceed. The model is still
in widespread use. Also, it is the
standard to which other techniques
are compared. Kirkpatrick’s
evaluation framework provides an
excellent framework to determine
strengths and weaknesses of HIM
instruction.
Evaluation of the impact and
effectiveness of courses is
necessary so that strengths and
weaknesses can be identified
and improvements made.
Developed more than 50 years
ago as his dissertation,
Kirkpatrick’s framework for
evaluation has been used as a
basic model for the
identification and targeting of
training-specific interventions
in business, the military, and
industry alike.
6 2010
Ya-Hui
Elegance
Chang
PHD Thesis
An Empirical Study
of Kirkpatrick’s
Evaluation
Model in the
Hospitality Industry
This study examined
Kirkpatrick’s training
evaluation model by
assessing a sales
training program
conducted at an
organization in the
hospitality industry.
This study addresses
these issues by
examining the impact
of Kirkpatrick’s
evaluation model,
with particular
assessments of the
inter-level
relationships between
the four levels.
The attempt is to examine a
training intervention based on
comparative pre- and post-
intervention performance outcome
data. There are, however, extensive
and multiple data to assess the
various variables; that is,
knowledge and skills, job
performance, and organizational
impact. The relationships between
variables may be demonstrated.
It supported his theories by
implementing all four levels of
evaluation as fully as possible at
an organization. The
implementation on only Levels 1
and 2 will not be a valid predictor
of Levels 3 and 4. Implementing
just the higher levels will not
validate the learner’s reaction
(Level 1) or learning (Level 2)
either. The findings indicated that
learning occurred (Level 2) in the
training, job performance
improved (Level 3), and
organizational results (Level 4)
were achieved.
The first assumption frequently
found in the literature is that the
levels are arranged in ascending
order and the model is
hierarchical in nature.
Therefore, the higher levels are
more valuable and important
than the lower ones.
140
No. Date Author Title Objective Method Result Comment
7 2010 Eduardo
Salas et. al
Team Training in
the Skies:
Does Crew
Resource
Management
(CRM) Training
work?
The purpose of this
paper is to use
Kirkpatrick’s
typology for training
evaluation, as a
framework to
evaluate the
effectiveness of CRM
training programs in
aviation. Specifically,
the review is
organized via the type
of evidence collected
after training (i.e.,
reaction, learning,
behaviors, and/or
organizational
effectiveness).
Review resulted in the
identification of 58 studies that
appeared to evaluate the
effectiveness of aviation CRM
training programs. Next provide a
description of the state of CRM
evaluation efforts with respect to
each of the levels of evaluation as
identified by Kirkpatrick.
Specifically, studies that assessed
training at only one level will be
reviewed first, beginning with
those collecting reaction data and
ending with those collecting
results/organizational effectiveness
data. Following this will be a brief
review of studies that assessed
training at multiple levels, as
argued for by Kirkpatrick.
Although some have previously
argued that there is no evidence
that CRM is effective, this review
concludes that some evidence
does exist. And this is important.
The picture that has emerged after
reviewing the existing evidence
within the current framework
suggests that CRM training is
effective.
CRM training programs seem to
produce positive participant
reactions, learning, and
application of learned behavior
via simulators or on-line/on the
job. The current review
illustrated that although there
are still some rough spots in
terms of evaluating
implemented CRM training
programs, trends seem to
indicate that CRM training does
have an impact on multiple
aspects of the individuals and
crews completing the program.
8 2010 O'Connor,
Paul et, al
THE U.S. NAVY'S
CREW
RESOURCE
MANAGEMENT
PROGRAM: THE
PAST, PRESENT,
AND
RECOMMENDATI
ONS FOR THE
FUTURE
The purpose is to
discuss the
development of CRM
training in U.S. Naval
aviation, and how that
training is managed in a
large organization with
many different
airframes and. This also
evaluations of the
effectiveness of Navy
CRM training and
suggests considerations
for improving the
program.
As has been the case with CRM in
commercial aviation, evaluations
of the effectiveness of the U.S.
Navy’s CRM training have been
reported in the scientific literature.
Kirkpatrick’s evaluation hierarchy
provides a useful framework to
assess the effects of a training
intervention on an organization by
considering training evaluations at
different levels.
There would generally appear to
be a positive effect of the Navy’s
CRM training at each of the levels
of Kirkpatrick’s evaluation
hierarchy.
A robust, scientifically-driven,
CRM training program is an
important mechanism for
addressing the human
component of aviation mishaps
in the U.S. Navy. These new
programs must be assessed to
ensure they are meeting naval
aviation’s operational needs.
141
No. Date Author Title Objective Method Result Comment
9 2010 Sharon
Mavin et. al
The evaluation of
learning and
development in the
workplace:
A review of the
literature
The research has
highlighted the many
different reasons why
organisations use
evaluation as part of
their processes and it
is likely that
organisations will
vary significantly in
the reasons why they
use them but they
must have a clear
understanding of their
purpose so that they
can collect the
necessary information
in an appropriate
way.
It is necessary to look at some of
the practical issues which may
impact upon how evaluations are
designed and carried out.
Organisations may need to take a
wider view on things that appear to
be difficult to quantify by
reflecting on how they could be
measured in more innovative ways.
Examples might include
programme looking at less tangible
areas such as communication
skills. The most frequently used
method of data collection is asking
participants to complete evaluation
sheets towards the end of the
session.
It is clear from a range of papers
that researchers have identified the
importance of linking learning
with organisations’ overall
strategies and business objectives,
particularly where their people are
one of their sources of competitive
advantage. This means that those
responsible for learning,
development and evaluation have
to have a good understanding of
the strategy and objectives and
discuss the key issues with a range
of stakeholders.
It is clear from this review that
evaluation should be built into
the design process to ensure that
it will cover the most
appropriate areas and that they
will be realistic.
10 2010 Sharon
Mavin et. al
The evaluation of
learning and
development in the
workplace:
Scanning the
external
environment
This paper leads on
from the desk review
by looking at some
more of the practical
elements related to
effective evaluation
of learning and
development
interventions.
As part of this project all of the HR
Practitioners were asked to review
the CIPD toolkit on Learning
Evaluation and highlight the
strengths and weaknesses of the
ideas posed and the tools that have
been provided. In addition they
were asked to explore which tools
could be contextualised to enable
them to be more useful within the
Higher Education context.
It is evident from this study that a
diverse range of practices exist
within organisations both in the
UK and internationally. An
unexpected outcome however was
that only a very small number of
private sector organisations
provide details of their practices
and supporting policies and
documentation.
Secondary research carried out
by the research team found
limited evidence of specific
evaluation policies or associated
documents.
142
No. Date Author Title Objective Method Result Comment
11 2008 O'Connor,
Paul
Crew resource
management
training
effectiveness: A
metaanalysis
and some critical
needs
Empirical studies of
Crew Resource
Management (CRM)
training effectiveness
were subjected to
meta-analysis.
Sixteen CRM
evaluation studies
were found to fulfill
the a priori criteria for
inclusion in the meta-
analysis.
The metrics of CRM training
effectiveness analyzed were:
reactions, attitudes, knowledge,
and behaviors, CRM trained
participants responded positively
to CRM (a mean of four on a five
point Likert scale). Kirkpatrick’s
hierarchy is used as the popular
framework for guiding training
evaluation, data collected and is
gathered using a paper-based
questionnaire.
The findings from the meta-
analysis are encouraging for the
effectiveness of CRM training.
The reactions to CRM training
were positive, large effects of
CRM training were found for
attitudes and behaviors, and a
medium effect size was found for
knowledge - congruent with other
reviews
For a study to be included in the
meta-analysis, an evaluation
had to be reported from at least
one of the first three levels of
Kirkpatrick’s evaluation
hierarchy: reactions, learning
(attitudes and knowledge), or
behaviors.
12 2006 Eduardo
Salas, et. al
Does Crew
Resource
Management
Training Work?
An Update, an
Extension, and
Some Critical
Needs
This review provides
the state of crew
resource management
(CRM) training
evaluations and
extends it to areas
beyond aviation
cockpits. Some
critical evaluation
needs in CRM
training are also
covered.
Using D. L. Kirkpatrick's (1976)
framework for evaluating training,
we reviewed 28 published accounts
of CRM training to determine its
effectiveness within aviation,
medicine, offshore oil production
and maintenance,
shipping/maritime, and nuclear
power domains.
Findings indicate that CRM
training generally produced
positive reactions from trainees;
however, the impact of training on
learning and behavioral changes
suggest mixed results across and
within domains. Furthermore, we
cannot ascertain whether CRM
has had an impact on the
organization's bottom line (i.e.,
safety).
Learning is measured in terms
of a desired change in trainees'
attitudes toward CRM. The next
level, behaviors, assesses
whether the knowledge learned
during the training is transferred
into actual behaviors on the job
or in a simulation.
The highest level of
Kirkpatrick's typology is the
impact of training on the
organization. Evaluating
training at this level determines
whether the training had an
impact on the goals of the
organization.
143
No. Date Author Title Objective Method Result Comment
13 2002 O'Connor,
Paul
Methods used to
evaluate the
effectiveness of
CRM training: A
literature review
This review paper
examines the methods
used to evaluate Crew
Resource
Management (CRM)
training in 48
published studies
from aviation and
other industries. The
purpose of the review
is to concentrate on
how the CRM
training course is
evaluated and what
results were reported.
The training evaluation techniques
are categorized in terms of
reactions, learning, attitudes,
behaviour and organisational
effects. In this review a similar
framework was adopted by using
Kirkpatrick’s hierarchy for training
evaluation to examine the impact
of CRM training interventions at
four different levels: reactions,
learning, behaviour, and
organisational effects. All of these
used a paper-based questionnaire
method.
It was found that in general CRM
training was well received,
resulted in a positive change in
CRM attitudes, and had the
desired effect on CRM
behaviours.
In the forty eight studies
included in this literature review
it was found that the techniques
used to evaluate CRM training
in these industries have tended
to be adaptations of the methods
which have previously been
used in aviation.
144
Appendix C: Questionnaire
Effect of Non-Technical Skills’ courses on Performance of Marine Officers
Dear Participant,
The objective of this questionnaire is to measure the effect of Non-Technical Skills’ courses
on the performance of marine officers, and to investigate the impact of these courses on their
work behavior after passing these courses. The information you provide will be used for
scientific research purposes to obtain an objective and clear vision, based on implementing
marine Non-Technical Skills’ courses.
Your response will be kept strictly confidential. A summary of the results could be mailed
to you, after being analyzed, if you request.
This survey will take a five minutes to be completed. Please kindly submit your feedback by
email to: [email protected]
Thank you for your kind time and cooperation.
Researcher: Hesham Mahmoud Helal
AASTMT
145
Questionnaire
Effect of Non-Technical Skills’ courses on Performance of Marine Officers
Part A: Demographic data
Company Name: _____________ Nationality: _________________
Name (Optional): ____________ Date: Click or tap to enter a date.
Course Name: BRM ☐ ERM ☐
Current Rank:
• Master ☐ • Ch. Eng. ☐
• Ch. Mate ☐ • 2nd Eng. ☐
• 2nd Mate ☐ • 3rd Eng. ☐
• 3rd Mate ☐ • 4th Eng. ☐
Age:
• From 20 to less than 30 years ☐
• From 30 to less than 40 years ☐
• From 40 to less than 50 years ☐
• More than 50 years ☐
Years of Experience (No. of years):
• Less than 5 years ☐
• From 5 to less than 10 years ☐
• From 10 to less than 15 years ☐
• From 15 to less than 20 years ☐
• More than 20 years ☐
146
Part B: Effectiveness of NTS’ courses:
This form will help us evaluate how well the training has met your expectations and needs. Please
check the square which best corresponds to your answer according to the following scale:
Strongly
Agree Agree Neutral Disagree
Strongly
Disagree
5 4 3 2 1
1. Effective communication 5 4 3 2 1
(St.1) Trainee has the ability to communicate well for
technical proficiency and safety. ☐ ☐ ☐ ☐ ☐
(St.2) After attending the course, trainee personal problems
cannot adversely affect his performance. ☐ ☐ ☐ ☐ ☐
(St.3) Trainee feels obligated to mention psychological
stress or physical problems to other personnel before or
during a duty.
☒ ☐ ☐ ☐ ☐
(St.4) It is from trainees’ responsibilities towards the crew
to identify emergencies during the pre-sailing brief. ☐ ☐ ☐ ☐ ☐
(St.5) When the trainee is in charge, he must explain the
plans and procedures and must be sure that the information
is understood by others and can be implemented.
☐ ☐ ☐ ☐ ☐
2. Leadership and cooperation 5 4 3 2 1
(St.6) Trainee helps new staff get up to speed quickly, gives
people challenging job assignments, and monitors
performance.
☐ ☐ ☐ ☐ ☐
(St.7) Trainee provides people with assignments to develop
their skills, gives timely coaching, acts as a role model for
development.
☐ ☐ ☐ ☐ ☐
(St.8) Trainee must be aware of, and sensitive to, the
personal problems of other team members. ☐ ☐ ☐ ☐ ☐
(St.9) Trainee could be able to consider the personal work
styles for effective team coordination. ☐ ☐ ☐ ☐ ☐
(St.10) Trainee is aware of the extent of the change in
behavior, knowledge and skill level. ☐ ☐ ☐ ☐ ☐
(St.11) Trainee is able to explain the contribution that
learning and development makes to his/her team. ☐ ☐ ☐ ☐ ☐
147
Strongly
Agree Agree Neutral Disagree
Strongly
Disagree
5 4 3 2 1
3. Situational awareness 5 4 3 2 1
(St.12) Trainee feels he/she fits better for the job. ☐ ☐ ☐ ☐ ☐
(St.13) In critical situations, trainee relies on his superiors to tell
him what to do. ☐ ☐ ☐ ☐ ☐
(St.14) Trainee is less effective when stressed or fatigued. ☐ ☐ ☐ ☐ ☐
(St.15) Many improvements have been made to our organization
interventions as a result of learning and development evaluation
information.
☐ ☐ ☐ ☐ ☐
(St.16) Trainee is able to apply what he/she learned in the course
on the job during emergency situations (drills). ☐ ☐ ☐ ☐ ☐
4. Workload management 5 4 3 2 1
(St.17) Trainee should alert others to their actual, or potential,
work overload. ☐ ☐ ☐ ☐ ☐
(St.18) Trainee will inform other team members when the
workload becomes (or is about to become) excessive. ☐ ☐ ☐ ☐ ☐
(St.19) Trainee and managers take joint ownership for learning
and development. ☐ ☐ ☐ ☐ ☐
(St.20) Senior management reviews the contribution of learning
and development activities in achieving the company's goals and
objectives as a result of attending the course.
☐ ☐ ☐ ☐ ☐
5. Decision-making 5 4 3 2 1
(St.21) Trainee's ability to make good decisions in emergencies
has become as it is in routine situations. ☐ ☐ ☐ ☐ ☐
(St.22) A regular debriefing of procedures and decisions after any
task is an important part of developing and maintaining effective
team co-ordination.
☐ ☐ ☐ ☐ ☐
(St.23) Trainee became less likely to make personnel judgment
errors in an emergency. ☐ ☐ ☐ ☐ ☐
(St.24) There is noticeable and measurable change in the activity
and performance of the trainee when back in his/her role. ☐ ☐ ☐ ☐ ☐
(St.25) The change in behavior and the new knowledge level of
the trainee is sustained. ☐ ☐ ☐ ☐ ☐
5 4 3 2 1
(St.26) Overall, I am satisfied with this course. ☐ ☐ ☐ ☐ ☐
Do you have any comments in regard with the training course?
______________________________________________________________________
______________________________________________________________________
______________________________________________________________________
Thanks and best regards
148
استبيان
لتقييم مردود الدورات البحرية الخاصة بالمهارات غير الفنية على أداء
الضباط البحريين
عزيزي المشارك،
تم تصميم هذا الاستبيان لقياس مردود حضور الضباط البحريين دورات المهارات غير الفنية ومدى تأثيرها على سلوكهم
بعد اجتياز الدورة والعودة إلى العمل. وسوف تستخدم هذة المعلومات في أغراض علمية وبحثية, وسوف تسهم الوظيفي
معلومات الاستبيان في التعرف على مدى التحسن في الأداء الوظيفي, وستسهم إجاباتكم في إعطاء صورة صحيحة ورؤية
.هارات غير الفنيةلتقييم مردود الدورات البحرية الخاصة بالم وموضوعيةصادقة
سيتم الحفاظ على اجاباتكم في سرية تامة كما يمكننا إرسال ملخص نتائج الاستبيان إليكم بعد الانتهاء من تحليل البيانات،
.إذا رغبتكم في ذلك
:سيستغرق ملء هذا النموذج خمسة دقائق, يرجى التكرم بإعادته الينا بعد استكماله على البريد الالكتروني
مع فائق شكري وتقديري
الباحث: هشام محمود هلال
الأكاديمية العربية للعلوم والتكنولوجيا والنقل البحري
149
استبيان
الضباط البحريينلتقييم مردود الدورات البحرية الخاصة بالمهارات غير الفنية على أداء
الجزء الأول: البيانات الديموغرافية
___________________ اسم الشركة: _____________________ الجنسية:
________________ الاسم )اختياري(: .Click or tap to enter a dateالتاريخ:
☐ BRM ☐ ERM إسم الدورة:
الرتبة الحالية:
☐ كبير مهندسين • ☐ ربان •
☐ مهندس ثان • ☐ كبير ضباط •
☐ مهندس ثالث • ☐ ضابط ثان •
☐ مهندس رابع • ☐ ضابط ثالث •
السن:
☐ سنة 30لأقل من 20من •
☐ سنة 40لأقل من 30من •
☐ سنة 50لأقل من 40من •
☐ سنة 50أكبر من •
الخبرة )عدد سنين الخبرة البحرية(:
☐ سنوات 5أقل من •
☐ سنوات 10سنوات لأقل من 5من •
☐ سنة 15سنوات لأقل من 10من •
☐ سنة 20سنة لأقل من 15من •
☐ سنة 20أكثر من •
150
الجزء الثاني: مردود دورات المهارات غير الفنية
الاستبيان هذا إعداد غي تم المهارات دورات تلبية مدى لقياس لتقييم وكذلك واحتياجاتك لتوقعاتك نوفره الذي الفنية
التحقق من المربع الذي يتوافق بشكل أفضل مع إجابتك وفقًا للمعايير التالية:مردوده، يرجى
غير موافق
جدا موافق جدا موافق محايد غير موافق
1 2 3 4 5
1 2 3 4 5 الاتصال الفعال -1
(St.1)العمل علي والقدرة الجيد الاتصال علي القدرة لديه المتدرب
السلامة في الكفاءه أجل من الجماعي☐ ☐ ☐ ☐ ☐
(St.2)المتدرب أداء على سلبا تؤثر تعد لم الشخصية المشاكل ان اتضح
الدورة حضوره بعد☐ ☐ ☐ ☐ ☐
(St.3) المشاكل أو النفسي الإجهاد إلى بالإشارة ملزم بأنه يشعر المتدرب
الوردية. أثناء أو قبل منها يعاني التي الجسدية☐ ☐ ☐ ☐ ☐
(St.4)الطوارئ حالات تحديد في الطاقم تجاه مسئولياته يمارس المتدرب
الإبحار قبل ما فترة خلال المحتملة☐ ☐ ☐ ☐ ☐
(St.5)الخطط بشرح يقوم فانه المسئولية موقع في المتدرب يكون عندما
ويستطيعون التعليمات يفهمون الآخرين أن من ويتأكد والإجراءات
تتنفيذها.
☐ ☐ ☐ ☐ ☐
1 2 3 4 5 القيادة والتعاون -2
(St.6) ويغذي الأداء، وكفاءة سرعة على الجدد الموظفين المتدرب يساعد
الأداء. ويراقب الوظيفية، بالمهام للقيام التحدي روح الطاقم أفراد في☐ ☐ ☐ ☐ ☐
(St.7) لتطوير اللازمة بالمهام الأشخاص بتزويد المتدرب يقوم
نموذج بمثابة ويكون المناسب، الوقت في التدريب ويعطي مهاراتهم،
للتطوير. به يحتذى
☐ ☐ ☐ ☐ ☐
(St.8)الآخرين الفريق لأعضاء الشخصية بالمشاكل علم على المتدرب
بها اهتماما ويبدي☐ ☐ ☐ ☐ ☐
(St.9)فريق لايجاد الشخصية العمل أساليب تحديد على قادر المتدرب
ومتعاون فعال☐ ☐ ☐ ☐ ☐
(St.10)ومستوى والمعرفة السلوك في التغيير مدى المتدرب يدرك
المطلوب. المهارة☐ ☐ ☐ ☐ ☐
(St.11)حضور من اكتسبها التي المساهمة شرح المتدرب يستطيع
لفريقه. والتطوير التعلم مجال في الدورات☐ ☐ ☐ ☐ ☐
1 2 3 4 5 تفهم الموقف -3
(St.12)للعمل للجاهزية قبل من أفضل أصبح المستوى أن اشعر ☐ ☐ ☐ ☐ ☐
(St.13)ما ليخبروه رؤسائه على المتدرب يعتمد الحرجة، الحالات في
به القيام يجب☐ ☐ ☐ ☐ ☐
(St.14)متعب أو ضغط تحت يكون عندما فعالية أقل المتدرب ☐ ☐ ☐ ☐ ☐
(St.15)سفن على السلامة معايير على التحسينات من العديد إجراء تم
الدورة من المكتسبة والمهارات للمعلومات كنتيجة الشركة☐ ☐ ☐ ☐ ☐
(St.16)العمل روتين أثناء الدورة في تعلمّه ما تطبيق المتدرب يستطيع
الطوارئ. حالات وأثناء☐ ☐ ☐ ☐ ☐
151
غير موافق
جدا موافق جدا موافق محايد غير موافق
1 2 3 4 5
1 2 3 4 5 الإضطلاع بمسئوليات العمل -4
(St.17)عبء وجود( )أواحتمال وجود إلى الآخرين ينبه المتدرب
العمل. في إضافي☐ ☐ ☐ ☐ ☐
(St.18)عندما الآخرين الفريق أعضاء إعلام على يعمل المتدرب
مفرطًا يصبح( أن وشك على )أو العمل عبء يصبح☐ ☐ ☐ ☐ ☐
(St.19)مجال في المشترك بالتعاون تؤمن العليا والإدارة المتدرب
والتطوير التدريب☐ ☐ ☐ ☐ ☐
(St.20)والتطوير التعلم أنشطة مساهمة العليا الإدارة تستعرض
الدورة لحضور كنتيجة الشركة وأهداف غايات تحقيق في☐ ☐ ☐ ☐ ☐
1 2 3 4 5 صنع القرار -5
(St.21)في الجيدة القرارات اتخاذ على المتدرب قدرة اصبحت
الروتينية المواقف في لقدرته مماثله الطوارئ حالات☐ ☐ ☐ ☐ ☐
(St.22)منتظم بشكل والقرارات الإجراءات مراجعة عملية تعد
الفعال التنسيق على والحفاظ تطوير في مهمًا جزءًا مهمة أي بعد
للفريق
☐ ☐ ☐ ☐ ☐
(St.23)في خاطئة أحكام لإصدار عرضة أقل المتدرب أصبح
الطوارئ حالات☐ ☐ ☐ ☐ ☐
(St.24)بعد المتدرب وأداء نشاط في وملموس ملحوظ تغير هناك
اليه الموكلة بالمهام والقيام العمل إلى العودة☐ ☐ ☐ ☐ ☐
(St.25)أدائه على طرأ الذي التغير على يحافظ المتدرب
الدورة من اكتسبها التي والمعلومات☐ ☐ ☐ ☐ ☐
5 4 3 2 1
(St.26) بصفة عامة أنا راض عن مدى الاستفادة من هذة الدورة ☐ ☐ ☐ ☐ ☐
هل لديك مقترحات خاصة بالدورة؟
______________________________________________________________________
______________________________________________________________________
______________________________________________________________________
Thanks and best regards
152
المستخلص
الكفاءة والربحية لزيادةأصبح النقل البحري في الوقت الراهن صناعة دولية متعددة الثقافات والتكنولوجية مع مطالب قوية
الاقتصادية من تلك الصناعة. ويظهر هذا في تعدد الجنسيات لأطقم السفن في كثير من الأحيان. ومع ذلك، كثيرا ما يذكر
.٪ من جميع الحوادث البحرية 80 حوالي أن العامل البشري هو سبب
ا لتحليل المتبعة والأساليب البشري الخطأ توقعات حساب نظريات تطوير في ورغم كبير حد إلى وإدارتها لأخطاء
في هذه الصناعات بالفعل إلى ةالبشري خطاءالأ حيث أدتصناعات أخرى مثل الطاقة النووية والصناعات الكيميائية.
التي المعرفة حول قضايا مثل نوع الأخطاء المأساوية والكوارث. وقد نتج عن هذا قدر كبير من الحوادث العديد من
.ذا تحدث؟ وكذلك كيف يمكن منعها وتجنبهاارتكبت، وكيف ولما
علاوة على ذلك، فقد شهدت صناعة النقل البحري زيادة في اعتماد تدريب الضباط البحريين كما هو مذكور في تعديلات
Bridge Resource Management لمدونة التدريب والشهادات والنوبة، مثل إدارة موارد غرفة القيادة 2010مانيلا
(BRM) رة موارد غرفة المحركوإدا (ERM) لتحسين العمل الجماعي والتنسيق بين الضباط ،.
المهارات غير التقنية كل من المهارات الاجتماعية والمعرفية مثل الوعي بالمواقف المختلفة، والعمل الجماعي، وتشمل
تسمح المهارات غير التقنية الجيدة وصنع القرار، والقيادة، والمهارات الإدارية، والتواصل. كما أنه في حالة الأزمات،
للضباط البحريين بالتعرف على المشكلة بسرعة وإدارة الموقف والفريق بأمان وفعالية. نتيجة لذلك، فإن تقييم وتصنيف
.لضمان السلامة على متن السفن اضروري يعد المهارات غير التقنية لضباط البحرية
ت السابقة, كما تم تجميع المعلومات من خلال استبيان تم توزيعه على الضباط استخدمت هذه الرسالة أداة مراجعة الدراسا
البحريين لكلا من قسمي السطح والماكينة. تم حساب النسب المئوية للمشاركين بالاستبيان الذين يختارون كل بديل من
المعياري والانحرافات المتوسطات وتم حساب الاستبيان. في لكل سؤال الاستجابة التي بدائل الأسئلة لهذه والوسائط ة
القوة للبياناتتتطلب إدخالات رقمية التقنية حتى يمكن تحديد نقاط المهارات غير تأثير وفعالية دورات . ومن ثم تقييم
والذي يعتمد على تقييم مستويات التفاعل والتعلم والسلوك Kirkpatrick والضعف وإدخال تحسينات. تم اسخخدام نموذج
.مترتبة على حضور الدورات التدريبيةوالنتائج ال
ية للكشف عن وجود اختلافات في عنومحصائية وتم تعيين مستوى الفقا لذلك ، تم تحليل البيانات باستخدام اختبارات إوو
تصورات فعالية المهارات غير التقنية، من بين المهارات الخمسة المشار إليها بمدونة التدريب والشهادات والنوبة. كما
للتحقيق في وجود ارتباطات بين هذه المتغيرات. بالإضافة إلى Pearson’s correlationاستخدام ارتباط بيرسون تم
ذلك تم إجراء التحقق من صحة النتائج باستخدام نموذج تحليل الأهمية والأداء. وقد أسفر البحث أن النتائج تدعم الافتراض
ؤثر بشكل إيجابي على العمل الجماعي لتحسين السلامة البحرية وتقديم يمكن أن ت NTSالقائل بأن الدورات التدريبية
تقديرات للآثار المتوقعة من التدريب.
البحري والنقل والتكنولوجيا الأكاديمية العربية للعلوم
معهد الدراسات العليا البحرية
تقييم تأثير دورات المهارات غير الفنية علي أداء الضباط البحريين التجاريين
كاديمية العربية للعلوم والتكنولوجيا والنقل البحري لاستكمال متطلبات نيل درجة رسالة مقدمة للأ
دكتوراه ال
فى
البحرى تكنولوجيا النقل
"التعليم والتدريب البحري"
إعداد
هلال هشام محمود أحمد
مصر
إشراف
الأستاذ الدكتور/ سعد مصباح عبد الرحمن
كلية النقل البحري والتكنولوجيا
الأكاديمية العربية للعلوم والتكنولوجيا والنقل البحري
محمد السعيد عبدالقادر الأستاذ الدكتور /
كلية النقل البحري والتكنولوجيا
والتكنولوجيا والنقل البحري الأكاديمية العربية للعلوم
2020