GENETICS AND BIOENGINEERING€¦ · COST European Corporation in Science and Technology CV...
Transcript of GENETICS AND BIOENGINEERING€¦ · COST European Corporation in Science and Technology CV...
SELF EVALUATION REPORT
FOR
STUDY PROGRAMME:
GENETICS AND BIOENGINEERING
Faculty of Engineering and Natural Sciences
International University of Sarajevo
January 2018
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Table of Contents
0. INTRODUCTION ........................................................................................................................................... 6 0.1 GENERAL INFORMATION .................................................................................................................... 2
0.2 REALISATION OF SELF-EVALUATION REPORT ............................................................................ 3
SELF-EVALUATION PROCESS AND WRITING OF SELF-EVALUATION REPORT WAS CARRIED OUT BY THE TEAM
CONSISTED OF REPRESENTATIVES OF ACADEMIC STAFF, ADMINISTRATIVE STAFF, STUDENTS FROM EACH
CYCLE AND IT WAS COMPOSED OF THE FOLLOWING MEMBERS: ......................................................................... 4
0.3 ABOUT THE UNIVERSITY ..................................................................................................................... 4
0.3.1 IUS HISTORICAL CONTEXT ......................................................................................................... 5
0.3.2 MISSION, VISION AND CORE VALUES ........................................................................................... 6
0.3.3 IUS ORGANIZATIONAL CONTEXT .................................................................................................. 7
0.3.4 STATISTICS AT a GLANCE ............................................................................................................... 9
CHAPTER 1: ........................................................................................................................................................... 13 STANDARD 1: STUDY PROGRAMME AND PROGRAMME MANAGEMENT ........................................ 13
1.1 ALIGNMENT OF THE STUDY PROGRAMME WITH THE OBJECTIVES OF INSTITUTION . 13
1.2 QUALIFICATION OBJECTIVES OF THE STUDY PROGRAMME ............................................... 17
1.2.1 EDUCATIONAL OBJECTIVES ..................................................................................................... 17
1.2.2 LEARNING OUTCOMES ............................................................................................................... 17
1.2.3 CORRESPONDENCE BETWEEN LEARNING OUTCOMES AND EHEA QF ........................ 20
1.3 NATIONAL AND INTERNATIONAL ACCREDITATION ................................................................ 31
1.4 CONTENTS, STRUCTURE AND SCOPE OF TEACHING METHODS ........................................... 31
1.5 EUROPEAN CREDIT TRANSFER SYSTEM ...................................................................................... 49
1.6 STUDY PROGRAMME VS. QUALIFICATION OBJECTIVES ........................................................ 51
1.7 STUDENTS’ WORKLOAD ..................................................................................................................... 52
1.8 EXAMINATION METHODS ................................................................................................................. 55
1.9 DIPLOMA SUPPLEMENT ..................................................................................................................... 58
1.10 ADMISSION REQUIREMENTS FOR THE STUDY PROGRAMME .......................................... 59
1.10.1 Admission to first study cycle .............................................................................................................. 60
1.10.2. Admission to the second study cycle ................................................................................................... 62
1.10.3. Recognition of Qualifications in Higher Education in European Region ..................................... 64
1.11 INTERNSHIP ....................................................................................................................................... 67
CHAPTER 2 ............................................................................................................................................................ 68 STANDARD 2: STAFF .......................................................................................................................................... 68
2.1 SCIENTIFIC TEACHING AND RESEARCH STAFF ......................................................................... 68
2.2 COMPOSITION OF THE FACULTY.................................................................................................... 74
2.3 HUMAN RESOURCE DEVELOPMENT .............................................................................................. 76
CHAPTER 3 ............................................................................................................................................................ 76
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STANDARD 3: QUALITY ASSURANCE ........................................................................................................... 76 3.1 INSTITUTION’S QUALITY MANAGEMENT SYSTEM ................................................................... 77
3.1.1 QA Bodies ......................................................................................................................................... 79
3.1.2 Stakeholder Participation ................................................................................................................. 81
3.2 STUDY PROGRAMME QUALITY ASSURANCE AND ENHANCEMENT .................................... 82
3.2.1 Curriculum and quality enhancement ............................................................................................. 83
3.2.2 The use of information ..................................................................................................................... 84
3.2.3 Public Information ........................................................................................................................... 85
3.3 PARTICIPATION OF STUDENTS IN REFLECTION TO STUDY PROGRAMME ....................... 85
3.3.1 Feedback Loop and Communication ............................................................................................... 86
CHAPTER 4 ............................................................................................................................................................ 86 STANDARD 4: FUNDING AND INFRASTRUCTURE ..................................................................................... 86
4.1 FUNDING OF THE STUDY PROGRAMME ........................................................................................ 87
4.2 ROOMS AND FACILITES...................................................................................................................... 87
CHAPTER 5 ............................................................................................................................................................ 94 STANDARD 5: RESEARCH AND DEVELOPMENT AND APPRECIATION OF THE ARTS ................... 94
5.1 OBJECTIVES AND PERSPECTIVES FOR RESEARCH AND DEVELOPMENT OF THE STUDY
PROGRAMME .................................................................................................................................................. 94
5.2 SCIENTIFIC STAFF RESEARCH ACTIVITIES ............................................................................... 102
5.3 STUDENT INTEGRATION INTO RESEARCH PROJECTS ........................................................... 107
5.4 ORGANIZATIONAL AND STRUCTURAL FRAMEWORK CONDITIONS W.R.T. R&D ......... 110
CHAPTER 6 .......................................................................................................................................................... 112 STANDARD 6: NATIONAL AND INTERNATIONAL COOPERATION .................................................... 112
6.1 NATIONAL AND/OR INTERNATIONAL COOPERATION ........................................................... 112
6.2 CO-OPERATION PROJECTS ............................................................................................................. 115
REFERENCES ...................................................................................................................................................... 117
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LIST OF TABLES
Table 1: IUS students; country of origin represented in numbers. ________________________________________ 9
Table 2: IUS students; country of origin represented in numbers and the change in the number of faculties. ____ 10
Table 3: IUS academic staff country of origin represented in numbers. __________________________________ 11
Table 4: Country of Origin of GBE students. ________________________________________________________ 11
Table 5: Yearly total investments (BAM) of IUS since academic year 2012-2013. __________________________ 12
Table 6: GBE Curricula structure (Summary). _______________________________________________________ 16
Table 7: Correspondence between SP Learning Outcomes and EQF (First Cycle) ___________________________ 20
Table 8: Correspondence between BHQF and SP Learning Outcomes (First Cycle) __________________________ 22
Table 9: Correspondence between SP Learning Outcomes and EQF (Second Cycle) _________________________ 25
Table 10: Correspondence between BHQF and SP Learning Outcomes (Second Cycle) ______________________ 26
Table 11: Correspondence between SP Educational Objectives (Aims) and Learning Outcomes (First Cycle) _____ 28
Table 12: Correspondence between SP Educational Objectives (Aims) and Learning Outcomes (Second Cycle) ___ 30
Table 13: 1st cycle of GBE Programme Curriculum __________________________________________________ 33
Table 14: List of Area Elective courses of GBE Programme. ____________________________________________ 34
Table 15: Quotas for Required and Elective courses at GBE programme. _________________________________ 35
Table 16: Correspondence between SP Educational Objectives and Required Courses ______________________ 37
Table 17: Correspondence between SP Educational Objectives and University Courses _____________________ 38
Table 18: Correspondence between SP LO and Required Courses _______________________________________ 39
Table 19: Correspondence between SP LO and Elective Courses ________________________________________ 42
Table 20: 2nd cycle of GBE Programme Curriculum. _________________________________________________ 46
Table 21: Correspondence between SP Learning Outcomes and Elective Courses (Second Cycle) ______________ 47
Table 22: Correspondence between SP Educational Objectives and Courses (Second Cycle) __________________ 48
Table 23: Grading scale table. ___________________________________________________________________ 55
Table 24: Conversion table scale. ________________________________________________________________ 56
Table 25: Examination methods according to learning outcomes _______________________________________ 57
Table 26: Examination methods according to learning outcomes of 2nd cycle studies ______________________ 58
Table 27: The equivalence between IUS ELS English language proficiency test and other international English
language proficiency tests. _____________________________________________________________________ 61
Table 28: All the staff involved in the realization of the GBE Study Programme____________________________ 68
Table 29: Numbers and ratios of staff and students in academic year 2015/2016. _________________________ 74
Table 30: IUS's QA framework. __________________________________________________________________ 77
Table 31: Involvement of Stakeholders in IUS QA processes ___________________________________________ 81
Table 32: IUS Databases Subscription. ____________________________________________________________ 90
Table 33: List of scientific instruments in the GBE labs. _______________________________________________ 93
Table 34: ERASMUS+ Exchange Programme Agreements with universities in Romania ____________________ 113
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LIST OF FIGURES
Figure 1: Panorama of IUS showing Building A, B and Research Centre________________________________2
Figure 2: Organizational structure of GBE Programme_____________________________________________14
Figure 3: GBE Educational and Research Space Resources_________________________________________87
Figure 4: Laboratories and GBE Research Facilities________________________________________________89
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LIST OF ABBREVIATIONS
AY Academic Year
BHQF Bosnia and Herzegovina Qualifications Framework
BiH Bosnia and Herzegovina
BSC Balkan Studies Centre
CIP/CIR Centre for Information and Recognition of Qualifications in Higher Education
CNC Computer Numerical Control
COST European Corporation in Science and Technology
CV Curriculum vitae
ECTS European Credit Transfer and Accumulation System
EHEA European Higher Education Area
ELS English Language School
ENIC/NARIC International network of information centers
ENQA European Association for Quality Assurance in Higher Education
EQF European Qualification Framework
ERASMUS European Region Action Scheme for the Mobility of University Students
EUA European University Association
FASS Faculty of Arts and Social Sciences
FEDU Faculty of Education
FENS Faculty of Engineering and Natural Sciences
FLW Faculty of Law
HEA Agency for Development of Higher Education and Quality assurance
IAU International Association of Universities
ICGEB International Centre for Genetic Engineering and Biotechnology
INGEB Institute for Genetic Engineering and Biotechnology
ISCED International Standard Classification of Education
IT Information Technology
IUS International University of Sarajevo
LEC Leadership and Entrepreneurship Centre
LO Learning Outcomes
NGO Non-Governmental Organization
PGENI Pharmaco-Genetics for Every Nation Initiative
QA Quality Assurance
QMS Quality Management System
RDC Research and Development Centre
SEDEF Foundation for Development of Education in Sarajevo
SP Study Programme
UNESCO United Nations Educational, Scientific and Cultural Organization
UNIPA/SIS Student Information System
0. INTRODUCTION
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0.1 GENERAL INFORMATION
International University of Sarajevo (IUS) is a non-profit independent institution of higher
education, which autonomously provides funding for its work. It offers educational
programmes in all three study cycles, as well as specific professional development
programmes in the registered areas. IUS is accredited with the national Agency for the
Development of Higher Education and Quality Assurance and listed in the state register of
accredited higher education institutions in Bosnia & Herzegovina1.
At IUS, education is realized through intertwining scientific and artistic programmes, thus
enabling the symbiosis of traditional and new disciplines. IUS encourages and promotes
academic, cultural and social cooperation with regional and international universities of
similar values.
IUS’s aim is to enrich students with aspirations, knowledge and skills which will allow them
to succeed in rapidly changing interconnected world. Our students are thought to "dream no
small dream". They are entrusted with feeling that they are just a part of the global society,
and understanding what it means to be a good member of local community, the country and
the nation.
The international character of the International University of Sarajevo, with students from all
around the world and academic staff with significant international experience, gives IUS a
1 Agency for Development of Higher Education and Quality Assurance. Agency for Development of Higher Education and Quality Assurance of Bosnia and Herzegovina, 2009. Web. 1 Jun. 2016.
Full name of the institution
International University of Sarajevo
Postal address:
Hrasnicka cesta 15
71000 Sarajevo
Bosnia and Herzegovina
tel. (switchboard): ++387 33 957 102/110
fax (general): ++387 33 957 105
website: www.ius.edu.ba
Year of foundation: 2004
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special kind of quality. Such direct interaction with other nationals gives our university
students the privilege to meet other cultures. This allows them not only to acquire
knowledge, but to develop other competences and experiences immensely important today in
a globalized world.
IUS is an associate member of European University Association (EUA), and a full member
of International Association of Universities (IAU) and European Consortium of Political
Research (ECPR).
In 2014, IUS was rewarded with a prestigious recognition award ‘’European University and
Employer of the Year’’ by the NGO “European Movement in BiH.”
Figure 1: Panorama of IUS showing Building A, B and Research Centre.
0.2 REALISATION OF SELF-EVALUATION REPORT
4
SELF-EVALUATION PROCESS AND WRITING OF SELF-EVALUATION REPORT
WAS CARRIED OUT BY THE TEAM CONSISTED OF REPRESENTATIVES OF
ACADEMIC STAFF, ADMINISTRATIVE STAFF, STUDENTS FROM EACH CYCLE
AND IT WAS COMPOSED OF THE FOLLOWING MEMBERS:
1. Assoc. Prof. Dr. Ayla Arslan
2. Prof. Dr. Ahmet Yildirim
3. Prof. Dr. Sabina Semiz
4. Assist. Prof. Dr. Mirza Suljagic
5. Assoc. Prof. Dr. Mohamed Ragab Abdel Gawwad
6. Senior Assistant Jasmin Sutkovic
7. Senior Assistant Muhamed Adilović
8. Adnan Beganović, Dean's Legal Advisor
9. Student Representative (2nd Cycle) Aida Maric
10. Student Representative (1st Cycle) Abdussamed Podojak
0.3 ABOUT THE UNIVERSITY
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0.3.1 IUS HISTORICAL CONTEXT
The International University of Sarajevo2 (hereinafter IUS) is a higher education institution
founded by the Foundation for Development of Education in Sarajevo (hereinafter: SEDEF)
in 2004. SEDEF is registered with the Ministry of Justice of the Federation of Bosnia and
Herzegovina. Its purpose is to support education in Bosnia and Herzegovina by creating the
conditions for its development.
From its outset in 2004, IUS has applied the principles of the Bologna Declaration, as
follows:
The European Credit Transfer and Accumulation System (ECTS) is used in all study
programmes. Students are awarded ECTS Credits and grades upon successful completion of
courses.
IUS implements three cycles of studies. From the beginning of its operation IUS adopted
4+1+3 system. It means that the nominal duration of bachelor, master and doctoral
programmes are four (240 ECTS), one (60 ECTS) and three (180 ECTS) years, respectively.
IUS is issuing Diploma Supplement to all of its graduates. It contains information on
completed courses and grades achieved, accumulated number of ECTS credits and other
information as defined in ECTS Users Guide.
Learning-outcomes-based curricula are implemented in all study programmes which is in
line with European QF descriptors.
2 The University was established pursuant to the following administrative acts:
a) Decision by Sarajevo Canton Government, No.: 02-05-10404-10/03 dated 18 June 2003, published in the “Official Gazette
of Sarajevo Canton”, issue No. 14/03 of 19 June 2003, whereby the Foundation for Development of Education was
granted approval to establish the International University of Sarajevo as an institution.
b) Decision by the Ministry of Education and Science of Sarajevo Canton, No. 11-38-3509 of 16 March 2003, ruling that the
conditions for the establishment of the International University of Sarajevo as an institution conferred by law had been met
and that the Founder of the University shall be the Foundation for the Development of Education.
c) Decision of the Ministry of Education and Science of Sarajevo Canton No. 11-01-38 of 23 June 2004 on the conditions for
the commencement of the operations of the International University of Sarajevo, in which it was established that all
stipulated conditions for the commencement of operations had been met in the 2004/2005 academic year.
d) IUS Statute referred in this Report was adopted on 10 July 2012
e) On 18 September 2014 the Ministry for Education, Science and Youth of the Canton Sarajevo approved the Institutional
Accreditation of the International University of Sarajevo No. 11-05-38-948-5/14, meaning that IUS has become an
accredited higher education institution. In 2014 International University of Sarajevo was accredited with the Agency for
the Development of Higher Education and Quality Assurance and is listed in the state register of accredited higher
education institutions in Bosnia & Herzegovina, Decision on the Entry into the State Register of Accredited Higher
Education Institutions, No. 05-33-1-199-11/14.
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Students are represented in IUS decision-making bodies (Senate, Faculty Councils, Boards,
Committees, etc.) and have full voting rights.
As an international institution for the education and development, the University cooperates
with universities in the region and other countries, to create a stimulating and pleasant
atmosphere for teaching and conducting research for students’ and professors from around
the world. IUS Statute enables and motivates mobility of students, academicians and
administration. IUS students have the opportunity to accomplish part of their programmes
abroad, as well as students from other universities are allowed to spend a period of study at
IUS. Lecturers are allowed to spend a period abroad and their mobility is supported by IUS.
IUS has experienced great transformation in the past twelve years of its existence. It proved
to be an institution, which can meet challenges, overcome problems and improve itself. In
the last 12 years most of the resources, material and human, were spent on institution
building processes. Two new faculties were established, a number of new study
programmes, new Centers and auxiliary departments and units. By the end of 2015 these
processes are mostly finished. Today, International University of Sarajevo consists of five
faculties and offers twenty-one study programmes in all three study cycles of education.
Finally, the new IUS Strategic Plan (2016-2021) (available in ANNEX 1) puts forth an
overarching aspiration for the IUS: “to become widely recognized as the best university in
Bosnia and Herzegovina and in the region, and a model university for the interweaving of
liberal education and fundamental knowledge with practical education and impact on
societal and world problems.”
0.3.2 MISSION, VISION AND CORE VALUES
0.3.2.1 MISSION
The mission of IUS is to produce science, art, and technology and present it to the benefit of
humanity; to educate free-thinking, participating, sharing, open-minded individuals who are
open to change and improvement and who have the ability to transform knowledge into
values of importance for themselves and the community. International University of
Sarajevo (IUS), with its identity as an international institution of education and research is
cooperating with universities in the region and in other countries in order to provide a
peaceful and comfortable atmosphere of learning for students from a wide geography.
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The following seven (7) key dimensions of IUS mission are as follows:
Continuous improvement of quality culture;
Internationalized Higher Education;
Integrity with High Ethical Values to perform in society;
Interdisciplinary programmes;
Intercultural Competency;
Civic Engagement;
Comprehensive Excellence.
0.3.2.2 VISION
The vision of IUS is to become an internationally recognized institution of higher education
and research and a center of excellence and quality through the shared efforts of the
founders, academic and administrative staff, students and all stakeholders.
IUS aims at becoming the major hub in Balkans for bridging the East to the West as a
leading international institution of higher education and research center with comprehensive
excellence and quality whose students are lifelong learners, inter-culturally competent and
well-developed leaders in socio-economic development of societies.
0.3.3 IUS ORGANIZATIONAL CONTEXT
The University consists of five faculties, as follows: Faculty of Engineering and Natural
Sciences (FENS), Faculty of Business and Administration (FBA), Faculty of Arts and Social
Sciences (FASS), Faculty of Law (FLW), and Faculty of Education (FEDU)3. As of AY
2015/2016, the faculties offer 20 study programmes in the first cycle, 19 in the second and
14 study programmes in the third cycle of study. The degrees awarded per organizational
unit are presented in ANNEX 2.
The following centers are indivisible part of the University:
Education and Research Processes’ Support
Quality Assurance Office (QAO)
International Relations Office (IRO)
Project Management Office/Office of Supported Projects
3 Enrolment starts as of AY 2016/17
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IUS Research and Development Center (RDC)
Balkan Studies Center (BSC)
IUS Library
Career Center
Student Affairs Office (SAO)
Legal Counsel
Legal Advisors Office
Connections with Society and Industry
PR Office
Lifelong Learning Center (IUSLife)
IUS Leadership and Entrepreneurship Center (LEC)
IUS Student Clubs (24 Clubs)
IUS Gallery
GymIUS
Support Offices
University Computer Center (IT)
Human Resources (HR)
Office of Finance and Economic Affairs (Finance Office)
Social and Cultural Activities, and Health (SACHS)
Translator Office
Technical Service and Maintenance
Through its centers, sport and cultural activities, formal and informal gatherings, IUS
establishes sound relationships with local communities, social partners and industry
representatives. These relationships yield mutual benefits for both IUS and external partners,
and more and more partners are cooperating with IUS and joining its activities and
programmes. Aside from measurable indicators, IUS makes other influential cultural, social,
intellectual, and research, humanitarian and civic contributions. IUS contributes to local
communities through its expertise, its projects, and its scientific and cultural activities, but
the greatest contribution of all is made by the quality education provided to its students.
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Every year IUS offers 1000 (ranging from 5-100%) scholarships to BiH students who show
excellent knowledge in the testing.
0.3.4 STATISTICS AT A GLANCE
The International University of Sarajevo is continuously growing since its establishment in
2004. In academic year 2017/2018 the total number of IUS students is 1664 coming from
47 different countries (Table 1). The number of faculties, and study programs increased in
the last five years. Table 2 shows the change in number of faculties, and study programs
from 2012 to 2016, where it can be seen that the number of study programs increased from
12 to 20 programs in the first cycle and from 12 to 19 in the second cycle. Table 2 also
shows the number of local and foreign students in the period 2012-2016 as well as the
number of graduates, where steady increase is also evident, which is in line with the IUS
Strategic plan 2011-2016. As international diversity of students, IUS shows that diversity
in academic staff. IUS academic staff members are coming from 13 different countries
(Table 3).
Table 1: IUS students; country of origin represented in numbers.
Country of Origin
(All IUS Students)
Number of Students
(2017/18)
Country of Origin
(All IUS Students)
Number of Students
(2017/18)
Turkey 760 Bosnia and
Herzegovina
794
Serbia 8 Montenegro 8
Egypt 7 Croatia 6
Syria 7 Ghana 5
Kuwait 5 Iran 5
Pakistan 4 Palestine 4
Libya 4 Spain 3
Macedonia 3 Canada 2
Jordan 2 Italy 2
The Russian
Federation
2 France 2
Kenya 2 United States of
America
2
Mauritania 2 Germany 2
Ukraine 1 India 1
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Turkmenistan 1 Philippines 1
Tanzania 1 Morocco 1
Saudi Arabia 1 Ethiopia 1
Sudan 1 China 1
Slovenia 1 Algeria 1
Romania 1 Chad 1
Namibia 1 Bulgaria 1
Malaysia 1 Yemen 1
Madagaskar 1 Bahrain 1
Kırgızistan 1 Azerbaijan 1
Afghanistan 1
Table 2: IUS students; country of origin represented in numbers and the change in the number of faculties.
STUDENTS AND GRADUATES
IUS STUDENTS AY 2012 - 2013 AY 2013 - 2014 AY 2014- 2015 AY 2015 -2016
Foreign 1000 1241 1284 1201
BH 600 510 595 730
Total: 1600 1751 1879 1931 Total number of full time students per AY/study cycle
I cycle 1284 1363 1475 1637
II cycle 53 61 98 219
III cycle 35 59 56 75
English Language
School 228 268 250 320
Graduates
Bachelor 984
Master 164
Doctor 6
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Table 3: IUS academic staff country of origin represented in numbers.
IUS Staff Country of Origin
Year 2017-2018
Bangladesh 1
Bosnia and Herzegovina 64
Check Republic 1
Egypt 2
Ethiopia 1
Macedonia 1
Monte Negro 1
Palestine 1
Poland 2
Slovakia 1
Turkiye 23
United Kingdom 1
USA 8
Grand Total 107
In Genetics and Bioengineering programme total number of students enrolled in academic year
2015/2016 was 120 and they are coming from 11 different countries (Table 4).
Table 4: Country of Origin of GBE students.
GBE STUDENTS Country of Origin Qty
Bosnia and Herzegovina 80
Federative Republic of Brazil 1
Libya 5
The Arab Republic of Egypt 1
The Hashemite Kingdom of Jordan 1
The Islamic Republic of Iran 1
The Republic of Chad 1
The Republic of Croatia 1
The Republic of Namibia 1
The Republic of Serbia 3
The Republic of Turkey 25
Total: 120
IUS FACULTIES and STUDY PROGRAMMES
FACULTIES AY 2012 -
2013 AY 2013 -
2014 AY 2014-
2015 AY 2015 -
2016
AY 2016 -
2017
Number of
faculties 3 3 3 4 5
Number of study programs per study cycle:
I cycle 12 12 14 16 20
II cycle 12 12 12 16 19
III cycle 9 9 14 12 14
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IUS is one of the largest educational projects in the Balkan region. IUS created an open,
tolerant and international environment for its students, where young people have the
opportunity to acquire new and exchange the existing knowledge and experiences with their
fellow students and professors. Therefore, the volume of IUS investments is exponentially
increasing every academic year which reinforces the educational and research quality. The
total volume of IUS investments since academic year 2012-2013 up to 2015-2016 is shown
in Table 5.
Table 5: Yearly total investments (BAM) of IUS since academic year 2012-2013.
INVESTMENTS (BAM)
Last update December 2015 AY 2012 - 2013
AY 2013 –
2014 AY 2014- 2015 AY 2015 -2016
TOTAL: 979,468.00 1,756,191.00 1,467,751.00 1,485,784.00
Infrastructure (buildings,
parking lots, entrance for
disabled persons, labs,
classrooms, gyms, libraries,
cafeteria)
171,431.00 88,738.00 270,930.00 585,066.00
Equipment: IT (hardware and
software, i.e.: library software,
electronic data bases, UNIPA,
servers, PCs etc.), laboratory
equipment, furniture)
326,249.00 533,281.00 454,139.00 169,802.00
Investment relevant to opening
new faculties, study
programmes
- 10,000.00 20,000.00 35,000.00
Investment in employees
(human resources) 481,788.00 1,124,172.00 722,682.00 695,916.00
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CHAPTER 1:
STANDARD 1: STUDY PROGRAMME AND PROGRAMME
MANAGEMENT
1.1 ALIGNMENT OF THE STUDY PROGRAMME WITH THE OBJECTIVES OF
INSTITUTION
Standard 1.1 - The study programme is aligned with the objectives of the institution and is
logically connected with its strategies and goals.
Genetics and bioengineering represent one of the fastest growing and emerging fields
worldwide. In this regard, the need for highly educated students is increasing. Our
programme is training open/minded and socially responsible individuals with robust
professional foundation. They learn how to think analytically and solve important biological
problems using engineering. As such, Genetics and Bioengineering Department fits perfectly
in the mind-set of Faculty of Engineering and Natural Sciences.
The IUS mission, vision and strategy is to produce science, art, and technology and present it
to the benefit of humanity; to educate free-thinking, participating, sharing, open-minded
individuals. GBE programme is in harmony with the strategic orientation of IUS. Our
graduates are open to change and improvement and have the ability to transform knowledge
into values of importance for themselves and their community. GBE students are encouraged
to cooperate with peers from other institutions and universities worldwide.
The Genetics and bioengineering degree programme at IUS is geared to develop an
integrated scientific perspective. It comprises the fundamentals of molecular biology,
biochemistry, genetics and cell biology. These are built upon a solid background in
mathematics, physics and chemistry. The Bioengineering dimension is based on an
understanding of engineering concepts and techniques in the areas applied in a systematic,
quantitative and integrative ways in order to approach problems important in biology,
biosystems, medical research, and genetics. Genetics and Bioengineering programme
provides the future engineers graduating from our programme the necessary skills to meet
the challenges in labor market.
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Qualification
After graduating from first study cycle of GBE programme, our students are awarded with
the Bachelor of Science (BSc) in Genetics and Bioengineering degree. The duration of
Bachelor studies is eight academic semesters (240 ECTS).
Upon graduation from second study cycle students have the Master of Science (MSc) in
Genetics and Bioengineering degree. Master studies are two academic semesters, equivalent
to 60 ECTS points.
Job profiles
Learning outcomes of GBE programme are designed to prepare students for job market.
Graduates of Bachelor Programme are qualified to work as researcher assistants and
administrators in vast range of industrial organizations (such as agriculture, chemistry,
medicine and food) operating in various fields of biology, biotechnology and agricultural
sector and undertake the task of transferring the works they conducted in laboratories to the
industrial sector.
Bachelor graduates can continue further education in academia at the 2nd study cycle.
Graduates of Master Programme are qualified to work as researchers in microbiological and
biochemical laboratories, laboratories for the hygiene and for testing of genetically modified
organisms (GMOs), public and private laboratories engaged in molecular biomedical
diagnostic, and pharmaceutical industry, as well as agencies and institutes that deal with
population and conservation genetics.
Master graduates can continue further education in academia at the 3rd study cycle.
Organizational structure
FENS Faculty Council, Departments and Study Programmes are responsible for different
administrative and academic responsibilities pursuant to Articles 59-61 and 36-37 of IUS
Statute, IUS-SENAT-11-2255/2013, available in ANNEX 3 (List of Internal Rule books).
IUS decentralized organizational structure offers each faculty, and consequently to
departments and study programmes, freedom to fulfill its potential in the creative and
student-oriented manner. Special emphasis is put on timely flow of information from the
University to the Faculty and Departments. FENS Faculty Council consists of
representatives of all study programmes in FENS, as well as of student representatives.
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The structure of GBE is shown in the chart below:
Figure 2: Organizational structure of GBE Programme.
Number of students
In the current academic year there are 99 students in enrolled to the first cycle of GBE.
Within this number there are 70 Bosnian students and 29 foreign students (Brazil, Chad,
Croatia, Egypt, Jordan, Libya, Namibia, Serbia and Turkey). In its Master programme GBE
Department has 15 students; 13 of whom come from Bosnia and Herzegovina and 2 students
from other countries (Turkey and Iran).
General description of curricula
The curriculum is divided into four components. The largest component, related to the basic
sciences, dominates the first two years of study. It includes mathematics, physics, biology
and chemistry, through biochemistry, computer technology, and is capped with life science
classes. The Bioengineering component begins in the second term sophomore year; it
provides an approach employing engineering background to problems deriving from the
biomedical sciences. The third component is the level in which students develop depth in
area of bioengineering. This includes molecular biology, techniques in molecular biology,
genetics and related methods, structural biology, microbiology and bioinformatics. The
fourth component comprises the general biotechnology, genetics and molecular biology
education and free elective courses that give balance to a student's education.
Faculty Council
Lecturer Lecturer
Senior Assistant
Senior Assistant
Senior Assistant
Student Demonstrator
Senior Assistant
Assistant
Lecturer Lecturer
Dean
Head of Department
Legal Advisor Program
Coordinator
16
Bachelor degree is obtained by completing 240 ECTS (36 ECTS of university level courses;
48 ECTS of faculty level courses; 96 ECTS of programme required courses; 36 ECTS of
programme area elective courses; 18 ECTS of IUS elective; 6 ECTS for Bachelor thesis). 30
days internship4 is required
5. The one-year master programme consists of courses, laboratory
and class tutorials and hands-on training, and the graduation thesis. The total requirement for
a master degree is 60 ETCS. The study requires the completion of 6 area- elective courses,
each valued with 6 ETCS. In addition, Master Thesis (24 ETCS) is required. The summary
of curricula for first and second cycle of studies can be found in Table 6.
Programme catalogue for first and second cycle is regularly updated and can be found on the
IUS website (ANNEX 4).
Table 6: GBE Curricula structure (Summary).
Bachelor (I cycle) curriculum structure Master (II cycle) curriculum structure
Bachelor degree is obtained by completing
240 ECTS in the following manner:
- 36 ECTS of university level courses
- 48 ECTS of faculty level courses,
- 96 ECTS of programme required courses
- 36 ECTS of programme area elective
courses
- 18 ECTS of IUS elective
- 6 ECTS for Bachelor thesis
30 days internship is required6.
Master degree is obtained by completing 60
ECTS in the following manner:
- 36 ECTS for area elective courses
- 24 ECTS for master thesis7
4 The internal rules respective to the internship (work placement) are currently in the process of changes in a manner that from the
beginning AY 2016/2017 the curricula will be altered in so that students who successfully complete their internship will be awarded with 6
ECTS. 5 The characteristic of all IUS bachelor study programmes is that required and elective courses are grouped into four groups, defined as
follows:
I University courses – are required courses for all students of the first year, first cycle study programme. University courses are established with the aim to:
a) Provide students with basic knowledge and methods for independent and critical decision-making;
b) Offer a new approach and a deep understanding of the nature of social movements; c) Provide interdisciplinary understanding of the “state” in certain areas that will help further choice of courses in the study; and
d) Ensure the harmonization of the level of knowledge for all students IUS.
In addition, they are meant to encourage the formation of a general university atmosphere in which the pre-defined levels of certain common basis of knowledge facilitates structuring of easier education in the senior years of study.
II Faculty courses – are required and elective courses, which are defined by the faculty. These courses contain the fundamentals of
knowledge, which are common to all study programmes in each faculty. III Programme courses – are required and elective courses, which are defined by the study programme to achieve the intended programme
learning outcomes.
IV Free elective courses – are all undergraduate courses at IUS, excluding the University courses, Faculty courses and Programme courses (defined for each programme), which aims to give opportunity to students to freely choose a number of courses from other
study programmes.
6 First Study Cycle Genetics and Bioengineering Curricula. (2015). Retrieved from http://gbe.ius.edu.ba/bs/i-study-cycle-gbe-curriculum. 7 Second Study Cycle Genetics and Bioengineering Curricula. (2015). Retrieved from http://gbe.ius.edu.ba/bs/ii-study-cycle-gbe-curriculum.
17
1.2 QUALIFICATION OBJECTIVES OF THE STUDY PROGRAMME
Standard 1.2 - SP Learning outcomes are clearly defined and meet the technical, scientific
and professional requirements and are in accordance with the respective levels of the
qualification framework of the EHEA.
1.2.1 EDUCATIONAL OBJECTIVES
Educational objectives of GBE programme are as follows:
Bachelor studies
To give successful education about engineering and basic sciences.
To give genetics and bioengineering knowledge and experience.
To conduct basic and experimental researches and to apply engineering and physical
sciences to medical and biological problems.
To prepare a biological background for the students so that they can learn how to
apply engineering technologies to living systems in a safe way.
To teach them how to solve scientific problems and team forming abilities that are
necessary for genetics and bioengineering career.
To develop effective communication abilities and joining into interdisciplinary
teams.
To give education to the students in a broad spectrum and their preparation for career
in a wide range.
Master studies
To demonstrate an in-depth mastery of advanced concepts in Biological Sciences.
To demonstrate independent scientific thinking.
To provide students with the specific skills that are required for a rapid integration into
the job market, as well as promote their skills to pursue a further academic qualification.
To contribute to and execute an original research project.
1.2.2 LEARNING OUTCOMES
On successful completion of the study programme graduates will be able to:
18
Bachelor studies
Technical Knowledge and Competencies
Identify, formulate and solve biological problems by using appropriate theoretical and
experimental skills;
Apply and use computer software and databases website in order to solve problems
related to the protein engineering and bioinformatics;
Identify, classify and describe the performance of systems and components through the
use of analytical methods and modelling techniques;
Identify constrains of engineering solutions including environmental, social and
sustainability limitations, health and safety and risk assessment issues;
Apply management techniques which may be used to achieve engineering objectives
within that context;
Use gained experience in designing and running experiments and to analyses obtained
results;
Apply knowledge and understanding to acquire practical skills for problem solving, for
research tasks and the design of protocols and procedures;
Understand an awareness of and commitment to the role of engineers in society and the
professional and ethical responsibilities of engineers;
Find and use relevant technical literature and other sources of information relating given
problems;
Generic Skills
Work effectively on technical tasks individually or in a team, and coordinating the team
if necessary.
Analyze and communicate effectively in written and oral English language, document
and deliver professional work in their field of interest and in correlated fields using
modern technical and visual means;
Develop an area for creativity excellence through interactivity and participate in
scientific events;
Recognize a need to engage in a life-long learning.
Master studies
Technical Knowledge and Competencies
19
Possess in-depth knowledge and skills in specific discipline with global perspective.
Apply knowledge through intellectual inquiry and to develop critical solutions in new
situations.
Manipulate, analyses, and evaluates existing knowledge in order to synthesize
scientific findings.
Generic Skills
Disseminate ideas to the wider community in a confident, effective and coherent
manner
Describe and critically evaluate current aspects of biosciences in order to solve
related problems.
Create and sustain cooperative networking efficiently
Perform tasks given ethically and with dedication.
Possess strong enthusiasm and commitment to continuously acquire and disseminate
new knowledge and skills.
20
1.2.3 CORRESPONDENCE BETWEEN LEARNING OUTCOMES AND EHEA QF
Table 7: Correspondence between SP Learning Outcomes and EQF (First Cycle)
SP NAME
EQF
Qualification that signify completion of the first cycle are awarded to students
who:
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
Hav
e d
emo
nstrated
kn
ow
ledg
e an
d
un
derstan
din
g
in
a field
o
f stu
dy
th
at b
uild
s
up
on
their g
eneral seco
nd
ary ed
ucatio
n, an
d is
typ
ically at th
e level th
at, wh
ilst sup
ported
by
adv
anced
textb
oo
ks, in
clud
es som
e aspects th
at
will b
e info
rmed
by
kn
ow
ledg
e of th
e forefro
nt
of th
eir field o
f study
Can
app
ly th
eir kn
ow
ledg
e and
un
derstan
din
g
in
a m
ann
er th
at in
dicates
a p
rofessio
nal
app
roach
to th
eir wo
rk o
r vo
cation
, and
hav
e
com
peten
ces ty
pically
d
emon
strated
thro
ugh
dev
ising
and
sustain
ing
argu
men
ts and
solv
ing
pro
blem
s with
in th
eir field o
f stud
y
Hav
e the ab
ility to
gath
er and
interp
ret relevan
t
data
(usu
ally
with
in
their
field
of
stud
y)
to
info
rm
jud
gm
ents
that
inclu
de
reflection
o
n
relevan
t social, scien
tific or eth
ical issues
Can
com
mu
nicate in
form
ation
, ideas, p
rob
lems
and
so
lutio
ns
to
bo
th
specialist
and
no
n-
specialist au
dien
ces
Hav
e dev
elop
ed th
ose learn
ing
skills th
at are
necessary
fo
r th
em
to
con
tinu
e to
u
nd
ertak
e
furth
er study
with
a hig
h d
egree o
f auto
no
my
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological
problems by using appropriate theoretical
and experimental skills
3 3 3 1 3
Apply and use computer software and
databases website in order to solve
problems related to the protein engineering
and bioinformatics
3 3 3 - 2
Identify, classify and describe the
performance of systems and components
through the use of analytical methods and
modelling techniques
2 3 3 3 3
Identify constrains of engineering solutions
including environmental, social and
sustainability limitations, health and safety
and risk assessment issues;
2 3 3 3 2
Apply management techniques which may
be used to achieve engineering objectives
within that context;
1 1 2 2 2
Use gained experience in designing and
running experiments and to analyses
obtained results;
3 3 3 3 3
Apply knowledge and understanding to
acquire practical skills for problem solving,
for research tasks and the design of
protocols and procedures;
3 3 2 1 3
Understand an awareness of and
commitment to the role of engineers in
society and the professional and ethical
2 1 2 3 1
21
responsibilities of engineers
Find and use relevant technical literature
and other sources of information relating
given problems;
3 2 3 3 3
Work effectively on technical tasks
individually or in a team, and coordinating
the team if necessary.
1 1 2 - 2
Analyze and communicate effectively in
written and oral English language,
document and deliver professional work in
their field of interest and in correlated fields
using modern technical and visual means
3 3 2 3 1
Develop an area for creativity excellence
through interactivity and participate in
scientific events;
2 1 2 3 1
Recognize a need to engage in a life-long
learning.
1 3 2 3 3
22
Table 8: Correspondence between BHQF and SP Learning Outcomes (First Cycle)
GENETICS AND BIOENGINEERING
Knowledge -Theoretical
-Factual
Skills -Cognitive -Physical -Practical
Competences -Autonomy
-Responsibility
-: No contribution (~ very low), 1: Low level contribution, 2: Moderate contribution, 3: High level contribution.
Lev
el
Desc
rip
tors
This person
demonstrates knowledge and
understanding in a
field of study that builds upon their
secondary
education and which is typically at
a level, whilst
supported by
appropriate learning
resources (texts,
information and communication
technologies),
which includes some aspects that
will be informed by
knowledge of the forefront in a given
field of study.
This person; (i) is able to apply
acquired knowledge and critical understanding of the principles
relating to the given field of
study/discipline in a manner to demonstrate professional approach to
their work or vocation, and has
competences typically demonstrated through devising and sustaining
arguments and solving problems
within a given field of study; (ii) is
able to apply main methods of
acquiring new knowledge and
applicative research in a given discipline, and is able to decide on
which approach to use in solving a
given problem and is aware of the extent to which the selected approach
is suitable for solving such a problem;
(iii) is able to communicate in one or several foreign languages and by using
communication technologies,
information, ideas, problems and solutions to both specialist and non-
specialist audiences for given area of
study.
Professional competence: This person (i)
demonstrates ability to gather and interpret relevant data (usually within the given field
of study) to inform judgments that include
reflection on relevant social, scientific or ethical issues.
Personal competence: This person (i) has
developed learning skills to undertake further study, with a high degree of
autonomy and academic skills and
attributes necessary to undertake research work, comprehend and evaluate new
information, concepts and evidence from a
range of sources; (ii) possesses a foundation for future self-directed and
lifelong learning; (iii) has acquired
interpersonal skills, teamwork skills adequate for employment and further
study.
SP Learning Outcomes:
Relationship Level
Identify, formulate and solve
biological problems by using
appropriate theoretical and
experimental skills
3 3 3
Apply and use computer software and
databases website in order to solve
problems related to the protein
engineering and bioinformatics
3 3 3
Identify, classify and describe the
performance of systems and
components through the use of
analytical methods and modelling
techniques
2 3 3
Identify constrains of engineering
solutions including environmental,
social and sustainability limitations,
health and safety and risk assessment
issues;
2 2 3
Apply management techniques which
may be used to achieve engineering
objectives within that context;
1 2 2
Use gained experience in designing
and running experiments and to
analyses obtained results;
3 3 3
23
GENETICS AND BIOENGINEERING
Knowledge -Theoretical
-Factual
Skills -Cognitive -Physical -Practical
Competences -Autonomy
-Responsibility
-: No contribution (~ very low), 1: Low level contribution, 2: Moderate contribution, 3: High level contribution.
Lev
el
Desc
rip
tors
This person
demonstrates knowledge and
understanding in a
field of study that builds upon their
secondary
education and which is typically at
a level, whilst
supported by appropriate learning
resources (texts,
information and communication
technologies),
which includes some aspects that
will be informed by
knowledge of the forefront in a given
field of study.
This person; (i) is able to apply
acquired knowledge and critical understanding of the principles
relating to the given field of
study/discipline in a manner to demonstrate professional approach to
their work or vocation, and has
competences typically demonstrated through devising and sustaining
arguments and solving problems
within a given field of study; (ii) is able to apply main methods of
acquiring new knowledge and
applicative research in a given discipline, and is able to decide on
which approach to use in solving a
given problem and is aware of the extent to which the selected approach
is suitable for solving such a problem;
(iii) is able to communicate in one or several foreign languages and by using
communication technologies,
information, ideas, problems and solutions to both specialist and non-
specialist audiences for given area of
study.
Professional competence: This person (i)
demonstrates ability to gather and interpret relevant data (usually within the given field
of study) to inform judgments that include
reflection on relevant social, scientific or ethical issues.
Personal competence: This person (i) has
developed learning skills to undertake further study, with a high degree of
autonomy and academic skills and
attributes necessary to undertake research work, comprehend and evaluate new
information, concepts and evidence from a
range of sources; (ii) possesses a foundation for future self-directed and
lifelong learning; (iii) has acquired
interpersonal skills, teamwork skills adequate for employment and further
study.
Apply knowledge and understanding
to acquire practical skills for problem
solving, for research tasks and the
design of protocols and procedures;
3 3 3
Understand an awareness of and
commitment to the role of engineers in
society and the professional and
ethical responsibilities of engineers
1 2 2
Find and use relevant technical
literature and other sources of
information relating given problems;
3 3 3
Work effectively on technical tasks
individually or in a team, and
coordinating the team if necessary.
1 3 2
Analyze and communicate effectively
in written and oral English language,
document and deliver professional
work in their field of interest and in
correlated fields using modern
technical and visual means
3 3 2
Develop an area for creativity
excellence through interactivity and
participate in scientific events;
1 2 3
Recognize a need to engage in a life-
long learning. 1 3 3
24
BH Qualifications Framework is in line with the European Qualifications Framework.
Therefore, referencing the Bachelor Programme of Genetics and Bioengineering Outcomes
to BH QF or EQF carries adequate value. Methodologies pursued in the ISCED
classification and BH QF framework have been taken into consideration and relevance of the
Programme of Genetics and Bioengineering LOs and with both BH QF and EQF are
satisfactorily met. All the LOs are strictly and sufficiently related to the EQF and BH QF in
tables 7 and 8 respectively.
25
Table 9: Correspondence between SP Learning Outcomes and EQF (Second Cycle)
SP NAME
EQF
Qualification that signify completion of the first cycle are awarded to
students who:
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
Hav
e or d
emon
strated k
no
wled
ge an
d u
nderstan
din
g th
at
is fo
und
ed
upo
n
and
ex
tend
s an
d/o
r en
han
ces th
at
typ
ically asso
ciated w
ith th
e first cycle, an
d th
at pro
vid
es
a basis o
r oppo
rtunity
for o
rigin
ality in
dev
elop
ing
and/o
r
app
lyin
g id
eas, often
with
in research
con
text
Can
ap
ply
th
eir kno
wled
ge
and
u
nd
erstandin
g,
and
pro
blem
-solv
ing
ab
ilities in
new
o
r un
familiar
env
iron
men
ts w
ithin
b
road
er (o
r m
ultid
isciplin
ary)
con
texts related
to th
eir field o
f stud
y
Hav
e th
e ab
ility
to
integ
rate kn
ow
ledg
e an
d
han
dle
com
plex
ity, an
d fo
rmu
late jud
gm
ents w
ith in
com
plete o
r
limited
info
rmatio
n, b
ut th
at inclu
de reflectin
g o
n so
cial
and
eth
ical resp
on
sibilities
link
ed to
th
e ap
plicatio
n o
f
their k
no
wled
ge an
d ju
dgm
ents
Can
co
mm
un
icate th
eir co
nclu
sion
s an
d th
e kno
wled
ge
and
ratio
nale
un
derp
innin
g
these,
to
specialist
and
non
/specialist au
dien
ces clearly an
d u
nam
big
uou
sly
Hav
e the learn
ing sk
ills to allo
w th
em to
con
tinue to
study
in
a m
ann
er th
at m
ay
be
largely
self-d
irected
or
auto
no
mou
s
SP Learning Outcomes Relationship Level
Possess in-depth knowledge and skills
in specific discipline with global
perspective.
3 3 3 2 3
Apply knowledge through intellectual
inquiry and to develop critical solutions
in new situations.
3 3 3 1 3
Manipulate, analyses, and evaluates
existing knowledge in order to
synthesize scientific findings.
2 3 3 2 3
Disseminate ideas to the wider
community in a confident, effective and
coherent manner
2 1 1 3 1
Describe and critically evaluate current
aspects of biosciences in order to solve
related problems.
3 2 3 2 1
Create and sustain cooperative
networking efficiently
1 2 1 1 2
Perform tasks given ethically and with
dedication.
2 1 3 3 3
Possess strong enthusiasm and
commitment to continuously acquire
and disseminate new knowledge and
skills.
2 3 3 3 3
26
Table 10: Correspondence between BHQF and SP Learning Outcomes (Second Cycle)
SP NAME
Knowledge -Theoretical
-Factual
Skills -Cognitive -Physical -Practical
Competences -Autonomy
-Responsibility
-: No contribution (~ very low), 1: Low level contribution, 2: Moderate contribution, 3: High level contribution.
Lev
el
Desc
rip
tors
This person
demonstrates knowledge and
understanding in a
field of study that builds upon their
secondary education
and which is typically at a level,
whilst supported by
appropriate learning
resources (texts,
information and
communication technologies),
which includes
some aspects that will be informed by
knowledge of the
forefront in a given field of study.
This person; (i) is able to apply
acquired knowledge and critical understanding of the principles
relating to the given field of
study/discipline in a manner to demonstrate professional approach to
their work or vocation, and has
competences typically demonstrated through devising and sustaining
arguments and solving problems
within a given field of study; (ii) is
able to apply main methods of
acquiring new knowledge and
applicative research in a given discipline, and is able to decide on
which approach to use in solving a
given problem and is aware of the extent to which the selected approach
is suitable for solving such a problem;
(iii) is able to communicate in one or several foreign languages and by using
communication technologies,
information, ideas, problems and solutions to both specialist and non-
specialist audiences for given area of
study.
Professional competence: This person (i)
demonstrates ability to gather and interpret relevant data (usually within the given field
of study) to inform judgments that include
reflection on relevant social, scientific or ethical issues.
Personal competence: This person (i) has
developed learning skills to undertake further study, with a high degree of
autonomy and academic skills and
attributes necessary to undertake research work, comprehend and evaluate new
information, concepts and evidence from a
range of sources; (ii) possesses a foundation for future self-directed and
lifelong learning; (iii) has acquired
interpersonal skills, teamwork skills adequate for employment and further
study.
SP Learning Outcomes:
Relationship Level
Possess in-depth knowledge and skills
in specific discipline with global
perspective. 3 3 3
Apply knowledge through intellectual
inquiry and to develop critical
solutions in new situations. 2 3 3
Manipulate, analyses, and evaluates
existing knowledge in order to
synthesize scientific findings. 2 3 3
Disseminate ideas to the wider
community in a confident, effective
and coherent manner 1 2 3
Describe and critically evaluate
current aspects of biosciences in order
to solve related problems. 3 2 2
Create and sustain cooperative
networking efficiently 1 2 3
Perform tasks given ethically and with
dedication. 3 3 3
Possess strong enthusiasm and
commitment to continuously acquire
and disseminate new knowledge and
1 2 2
27
SP NAME
Knowledge -Theoretical
-Factual
Skills -Cognitive -Physical -Practical
Competences -Autonomy
-Responsibility
-: No contribution (~ very low), 1: Low level contribution, 2: Moderate contribution, 3: High level contribution.
Lev
el
Desc
rip
tors
This person
demonstrates knowledge and
understanding in a
field of study that builds upon their
secondary education
and which is typically at a level,
whilst supported by
appropriate learning resources (texts,
information and
communication technologies),
which includes
some aspects that will be informed by
knowledge of the
forefront in a given field of study.
This person; (i) is able to apply
acquired knowledge and critical understanding of the principles
relating to the given field of
study/discipline in a manner to demonstrate professional approach to
their work or vocation, and has
competences typically demonstrated through devising and sustaining
arguments and solving problems
within a given field of study; (ii) is able to apply main methods of
acquiring new knowledge and
applicative research in a given discipline, and is able to decide on
which approach to use in solving a
given problem and is aware of the extent to which the selected approach
is suitable for solving such a problem;
(iii) is able to communicate in one or several foreign languages and by using
communication technologies,
information, ideas, problems and solutions to both specialist and non-
specialist audiences for given area of
study.
Professional competence: This person (i)
demonstrates ability to gather and interpret relevant data (usually within the given field
of study) to inform judgments that include
reflection on relevant social, scientific or ethical issues.
Personal competence: This person (i) has
developed learning skills to undertake further study, with a high degree of
autonomy and academic skills and
attributes necessary to undertake research work, comprehend and evaluate new
information, concepts and evidence from a
range of sources; (ii) possesses a foundation for future self-directed and
lifelong learning; (iii) has acquired
interpersonal skills, teamwork skills adequate for employment and further
study.
skills.
BH Qualifications Framework is in line with the European Qualifications Framework.
Therefore, referencing the Master Programme of Genetics and Bioengineering Outcomes to
BH QF or EQF carries adequate value. Methodologies pursued in the ISCED classification
and BH QF framework have been taken into consideration and relevance of the Programme
of Genetics and Bioengineering LOs and with both BH QF and EQF are satisfactorily met.
All the LOs are strictly and sufficiently related to the EQF and BH QF in tables 9 and 10
respectively.
28
Table 11: Correspondence between SP Educational Objectives (Aims) and Learning Outcomes (First Cycle)
SP NAME
Educational Objectives
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
To
giv
e successfu
l edu
cation ab
ou
t eng
ineerin
g an
d b
asic sciences
To
giv
e gen
etics and
bio
engin
eering
kno
wled
ge an
d ex
perien
ce.
To
co
ndu
ct b
asic an
d
exp
erimen
tal research
es an
d
to
apply
eng
ineerin
g
and
p
hy
sical scien
ces to
m
edical
and
bio
log
ical
pro
blem
s.
To
prep
are a bio
log
ical back
gro
un
d fo
r the stu
den
ts so th
at they
can
learn h
ow
to ap
ply
eng
ineerin
g tech
no
log
ies to liv
ing
system
s in a
safe way
.
To
teach th
em h
ow
to so
lve scien
tific pro
blem
s and
team fo
rmin
g
abilities th
at are necessary
for g
enetics an
d b
ioen
gin
eering
career
To
d
evelo
p
effective
com
mu
nicatio
n
abilities
and
jo
inin
g
into
interd
isciplin
ary team
s.
To
giv
e edu
cation
to th
e stud
ents in
a bro
ad sp
ectrum
and
their
prep
aration fo
r career in a w
ide ran
ge.
SP Learning Outcomes
Identify, formulate and solve biological problems
by using appropriate theoretical and experimental
skills
2 3 3 1 3 3 3
Apply and use computer software and databases
website in order to solve problems related to the
protein engineering and bioinformatics
2 3 3 1 3 2 3
Identify, classify and describe the performance of
systems and components through the use of
analytical methods and modelling techniques
1 3 3 2 3 2 2
Identify constrains of engineering solutions
including environmental, social and sustainability
limitations, health and safety and risk assessment
issues;
3 3 2 3 2 3 3
Apply management techniques which may be used
to achieve engineering objectives within that
context;
1 2 1 2 1 2 3
Use gained experience in designing and running
experiments and to analyses obtained results;
3 3 3 2 3 3 3
Apply knowledge and understanding to acquire
practical skills for problem solving, for research
tasks and the design of protocols and procedures;
3 3 3 3 3 3 3
Understand an awareness of and commitment to the
role of engineers in society and the professional and
ethical responsibilities of engineers
2 1 2 3 2 3 3
29
Find and use relevant technical literature and other
sources of information relating given problems;
3 3 3 1 2 3 3
Work effectively on technical tasks individually or
in a team, and coordinating the team if necessary.
3 1 2 2 2 1 3
Analyze and communicate effectively in written
and oral English language, document and deliver
professional work in their field of interest and in
correlated fields using modern technical and visual
means
3 2 1 2 2 2 2
Develop an area for creativity excellence through
interactivity and participate in scientific events;
2 2 1 3 3 3 3
Recognize a need to engage in a life-long learning. 2 1 2 3 3
3 3
All objectives of Genetics and Bioengineering Programme are met by the LOs. Also, all
objectives are supported strongly by at least two LOs. The correspondence between the
objectives and the learning outcomes of the Programme is quite satisfactory as shown in
table 11.
30
Table 12: Correspondence between SP Educational Objectives (Aims) and Learning Outcomes (Second Cycle)
SP NAME
Educational Objectives
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
To
dem
on
strate ind
epen
den
t scientific th
ink
ing
.
To
dem
on
strate an in
-dep
th m
astery o
f adv
anced
con
cepts in
Bio
log
ical Scien
ces.
To
pro
vid
e stud
ents w
ith th
e specific sk
ills that are
requ
ired fo
r a rapid
integ
ration
into
the jo
b m
arket,
as well as p
rom
ote th
eir skills to
pu
rsue a fu
rther
academ
ic qu
alification
.
To
co
ntrib
ute
to an
d ex
ecute
an o
rigin
al research
pro
ject.
SP Learning Outcomes
Possess in-depth knowledge and skills in specific discipline with global perspective. 3 3 3 3
Apply knowledge through intellectual inquiry and to develop critical solutions in
new situations.
3 3 3 3
Manipulate, analyses, and evaluates existing knowledge in order to synthesize
scientific findings.
3 3 3 3
Disseminate ideas to the wider community in a confident, effective and coherent
manner
2 2 2 1
Describe and critically evaluate current aspects of biosciences in order to solve
related problems.
3 3 3 3
Create and sustain cooperative networking efficiently 2 1 3 1
Perform tasks given ethically and with dedication. 1 3 1 3
Possess strong enthusiasm and commitment to continuously acquire and disseminate
new knowledge and skills.
3 2 3 3
All objectives of Genetics and Bioengineering Programme (2nd Cycle) are met by the LOs.
All objectives are supported strongly by at least two or more LOs. Especially objectives
related to the professional dimension are supported strongly more than with LOs. The
correspondence between the objectives and the learning outcomes of Genetics and
Bioengineering programme is quite satisfactory Table 12.
31
1.3 NATIONAL AND INTERNATIONAL ACCREDITATION
IUS is accredited with the national Agency for the Development of Higher Education and
Quality Assurance (HEA) and listed in the state register of accredited higher education
institutions in Bosnia and Herzegovina.
Additionally, Austrian government Agency for Quality Assurance and Accreditation Austria
(AQ Austria), a full member of European Association for Quality Assurance in Higher
Education (ENQA), accredited six study programs of first and second study cycles offered at
the International University of Sarajevo (IUS), including first and second cycle of Genetics
and Bioengineering. The decision was made on AQ Austria Board meeting, held in Vienna
on the 21st September, 2016.
1.4 CONTENTS, STRUCTURE AND SCOPE OF TEACHING METHODS
Standard 1.4 - The contents, structure and scope of and teaching methods applied to the
curriculum and the modules meet the technical, scientific and professional requirements and
are suited to achieve the intended learning outcomes.
First Cycle
Curriculum Organization
In order to facilitate students’ mobility, the curriculum is organized through the courses
which values are expressed in units of the European Credit Transfer System (ECTS).
Students’ workload per semester is determined with 30 ECTS credits so that the total load in
one academic year is 60 ECTS.
Given the size of planned content and timing of their implementation, courses at IUS are
predominantly assigned to an equal number of study credits i.e. 6 ECTS. One study ECTS
point is equivalent to 25 hours of total workload of the average student, and curriculum
indicates that this standard is met.
Total student activities, in accordance with the Law on Higher Education in Sarajevo
Canton, mainly include the following:
32
a) Number of hours needed for instructions (lectures, seminars),
b) Time required for student for independent tasks,
c) Time required for preparation of assessment and grading, and
d) Time which academic staff need in assisting the student to acquire the necessary
knowledge.
Based on the above legal basis for "assigning" the study points to every single activity in the
preparation of curriculum, IUS, as a rule, in all its study programmes applies a model of so
called standardized workload8 for each course, ensuring that the total load comprises 150
hours of total student activities per course (Table 13 and 14).
This provides:
a) General harmonization of the scope and subjective “importance” of each course in the
curriculum,
b) Standardizing subjective weight for mastering a particular course through a flexible
allocation of credits to individual activities,
c) More efficient mobility of students,
d) A simpler implementation and organization of joint courses in the first year of the
studies, and
f) An easier transition and recognition of courses with international higher education
institutions.
8 Model of standardized workload of student in the preparation of curricula, has been recommended and officially issued by the European
Commission (ECTS User's Guide, Brussels, 6 February 2009, Chapter 4, p. 17 and 18, ISBN: 978-92-79-09728-7).
33
Table 13: 1st cycle of GBE Programme Curriculum
Genetics and Bioengineering
Course
group ECTS Course name Course code Course type ECTS Pre-requisite
University
courses 36
Freshman English I ENG 111 required 4
Communication and
Reporting MAN 111 required 4
Calculus I MATH 101 required 6
Economics ECON 101 required 6
Science and Technology HUM 101 required 6
Law and Ethics SPS 103 required 6
Spoken Turkish/Bosnian I TURK111/BOS111 required 2
Spoken Turkish/Bosnian II TURK112/BOS112 required 2 TURK111/BOS 111
Faculty
courses
48
Programming for Engineers ENS 213 required 6
Thermodynamics ENS 202 required 6
Introduction to probability
and statistics MATH 203
required 6
Computational Biology ENS 210 required 6
Dynamics of the Cell NS 205 required 6 NS101
Organic Chemistry NS 207 required 6 NS104
Electives* elective 6
Electives* elective 6
Programm
e courses
96
Biology NS 101 required 6
Physics NS 102 required 6
General Chemistry NS 104 required 6
Calculus II MATH 102 required 6 MATH 101
Genetics I NS 209 required 6 NS101/NS104
Genetics II BIO 303 required 6 NS209
Molecular Biology I BIO 301 required 6 NS205
Molecular Biology II BIO 302 required 6 BIO301
Genetic Engineering BIO 415 required 6 BIO301
Structural Biology BIO 304 required 6
NS205
Biochemistry I NS 202 required 6
NS205
Biochemistry II BIO 305 6
NS202
Microbiology BIO 306 required 6
NS204
Bioinformatics BIO 310 required 6 MATH101/NS101
Techniques in Molecular
Biology BIO 312 required 6
BIO301
Protein Engineering BIO407 required 6
BIO304
Elective** elective 6
Elective** elective 6
Elective** elective 6
Elective** elective 6
Elective**
elective 6
Elective** elective 6
Free Elective**
elective 6
34
Elective
courses
18
Elective**
elective 6
Elective**
elective 6
Internship 0 30 days in accordance with Procedure and Rules for Internship, No.: IUS-SENATE 11-1327/2014
Graduation
project 6 Bachelor thesis BIO490 Required 6 180 ECTS
Total 240
* The students can select any course from faculty courses.
** The students can select any course from list of Area Elective courses table 14.1.
Table 14: List of Area Elective courses of GBE Programme.
List of elective courses of Undergraduate GBE programme
No. Course name Course code ECTS Pre-requisite
1 Computational Biology ENS 210 6
2 Physical Chemistry NS 203 6
3 Analytical Chemistry NS 211 6
4 Bioengineering principles BIO 307 6
5 Plant Structure and Physiology BIO 308 6
6 Chemical Engineering BIO 313 6 NS207
7 Cell and tissue culture engineering BIO 315 6 NS209
8 Introduction to forensic science BIO 320 6
9 Biotechnology BIO 401 6
10 Molecular Evolution BIO 402 6
11 Plant Pathogenesis BIO 403 6
12 Agricultural Biotechnology BIO 404 6
13 Biomechanics BIO 406 6
14 Immunology BIO 409 6 BIO301
15 Ecology and environmental engineering BIO 410 6
16 Mammalian physiology BIO 411 6 NS205
17 Special Topics in Bioengineering BIO 412 6
18 Pharmaceutical Biotechnology BIO 414 6
19 Population Genetics BIO 416 6
20 Molecular Diagnostics BIO 417 6 BIO301
21 Virology BIO 418 6 BIO301
22 Biophysics BIO 420 6
23 Mechanisms of Signal Transduction BIO 422 6 BIO301
24 Modelling and Simulation of Biomolecular Processes BIO408 6
Maximum number of students attending a course is determined at the beginning of each
semester by consultations between Dean and Program Coordinators having in mind available
infrastructure. The decision is then communicated to the Student Affairs Office which, with
the help of Student Information System, controls determined quota and provides feedback on
the necessity of adjustments. In the table 15 you can find the list of Required and Elective
courses at Genetics and Bioengineering programme, indicating the quotas of each course.
The progress of number of students in two academic years (fall and spring semesters) are
available in ANNEX 5.
35
Table 15: Quotas for Required and Elective courses at GBE programme.
Course code Course name Course Type
(required/elective)
QUOTA
ENG111 Freshman English Required 140-150
MAN111 Communication and Reporting Required 140-150
MATH101 Calculus I Required 140-150
ECON101 Economics Required 140-150
HUM101 Science and Technology Required 140-150
SPS103 Law and Ethics Required 140-150
ENS213 Programming for Engineers Required 70-80
ENS202 Thermodynamics Required 70-80
MATH203 Introduction to probability and statistics Required 70-80
ENS 210 Computational Biology Required 70-80
NS205 Dynamics of the Cell Required 70-80
NS207 Organic Chemistry Required 70-80
NS103 Biology Required 140-150
NS102 Physics Required 140-150
NS104 General Chemistry Required 140-150
MATH102 Calculus II Required 140-150
NS209 Genetics I Required 70-80
BIO303 Genetics II Required 30-40
BIO301 Molecular Biology I Required 30-40
BIO302 Molecular Biology II Required 30-40
BIO415 Genetic Engineering Required 5-30
BIO304 Structural Biology Required 30-40
NS202 Biochemistry I Required 70-80
BIO305 Biochemistry II Required 30-40
BIO306 Microbiology Required 30-40
BIO310 Bioinformatics Required 30-40
BIO312 Techniques in Molecular Biology Required 30-40
BIO407 Protein Engineering Required 5-30
BIO307 Bioengineering principles Elective 30-40
BIO308 Plant Structure and Physiology Elective 30-40
BIO313 Chemical Engineering Elective 30-40
BIO315 Cell and tissue culture engineering Elective 30-40
BIO320 Introduction to forensic science Elective 30-40
BIO401 Biotechnology Elective 5-30
BIO402 Molecular Evolution Elective 5-30
BIO403 Plant Pathogenesis Elective 5-30
BIO404 Agricultural Biotechnology Elective 5-30
BIO406 Biomechanics Elective 5-30
BIO408
Modeling and Simulation of Biomolecular
Processes Elective 5-30
BIO409 Immunology Elective 5-30
36
BIO410 Ecology and environmental engineering Elective 5-30
BIO411 Mammalian physiology Elective 5-30
BIO412 Special Topics in Bioengineering Elective 5-30
BIO414 Pharmaceutical Biotechnology Elective 5-30
BIO416 Population Genetics Elective 5-30
BIO417 Molecular Diagnostics Elective 5-30
BIO418 Virology Elective 5-30
BIO420 Biophysics Elective 5-30
BIO422 Mechanisms of Signal Transduction Elective 5-30
ENS210 Computational Biology Elective 70-80
NS203 Physical Chemistry Elective 70-80
NS211 Analytical Chemistry Elective 70-80
ARCH211 Building Services II Elective 70-80
ARCH215 CAD in Architecture Elective 70-80
ENS201 Electromagnetism-I Elective 70-80
ENS202 Thermodynamics Elective 70-80
ENS203 Electrical Circuits I Elective 70-80
ENS205 Materials Science I Elective 70-80
ENS206 Systems Modeling and Control Elective 70-80
ENS207 Engineering Graphics Elective 70-80
ENS208 Introduction to Manufacturing Systems Elective 70-80
ENS209 Statics Elective 70-80
ENS211 Signals and Systems Elective 70-80
ENS213 Programming for Engineers Elective 70-80
MATH201 Linear Algebra Elective 70-80
MATH202 Differential Equations Elective 70-80
MATH203 Introduction to Probability and Statistics Elective 70-80
MATH204 Discrete Mathematics Elective 70-80
MATH205 Numerical Analysis Elective 70-80
MATH207 Vector Calculus Elective 70-80
ME208 Dynamics and Vibrations Elective 70-80
NS204 Comparative Biology Elective 70-80
NS205 Dynamics of the Cell Elective 70-80
NS207 Organic Chemistry Elective 70-80
ENS221 Introduction to Mechanical Engineering Elective 70-80
37
Table 16: Correspondence between SP Educational Objectives and Required Courses
Genetics and Bioengineering Educational Objectives
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
To
giv
e su
ccessful
edu
cation
ab
out
eng
ineerin
g
and
basic scien
ces
To
g
ive
gen
etics an
d b
ioen
gin
eering
k
no
wled
ge
and
exp
erience.
To
con
du
ct basic an
d ex
perim
ental research
es and
to
app
ly en
gin
eering
and
ph
ysical scien
ces to m
edical an
d
bio
log
ical pro
blem
s.
To
prep
are a bio
log
ical back
gro
un
d fo
r the stu
den
ts so
that
they
can
learn
h
ow
to
ap
ply
en
gin
eering
techn
olo
gies to
livin
g sy
stems in
a safe way
.
To
teach th
em h
ow
to so
lve scien
tific pro
blem
s and
team fo
rmin
g ab
ilities that are n
ecessary fo
r gen
etics
and
bio
eng
ineerin
g career
To
d
evelo
p
effective
com
municatio
n
abilities
and
join
ing in
to in
terdiscip
linary
teams.
To
giv
e edu
cation
to th
e stud
ents in
a bro
ad sp
ectrum
and
their p
reparatio
n fo
r career in a w
ide ran
ge.
Required Courses
ENS 213 Programing for Engineers 3 1 3 3 2 1 2
ENS 202 Thermodynamics 2 2 3 3 1 - 2
MATH 203 Introduction to probability & statistics 1 - 2 3 2 - 1
ENS 210 Computational Biology - 3 - 3 1 2 2
NS 205 Dynamics of the Cell 3 3 - 2 2 1 2
NS 207 Organic Chemistry 3 1 1 - 2 - 1
NS101 Biology 3 3 2 3 2 1 2
NS102 Physics 3 - 3 - - - 3
NS104 General Chemistry 3 - 1 1 - 1 1
MATH102 Calculus II 3 - - - 1 - 1
NS209 Genetics I 3 3 3 3 3 - 3
BIO303 Genetics II 1 3 3 3 3 - 3
BIO301 Molecular Biology I 1 3 3 3 3 2 3
BIO302 Molecular Biology II 1 3 3 3 3 2 3
BIO415 Genetic Engineering 1 3 3 3 3 2 3
BIO304 Structural Biology 1 3 1 2 - 1 2
ENS202vBiochemistry I 1 3 1 2 - 1 2
BIO305 Biochemistry II 1 3 1 2 - 1 2
BIO306 Microbiology 2 3 3 3 1 - 2
BIO310 Bioinformatics 1 2 3 3 2 - 2
BIO312 Techniques in Molecular Biology 1 3 3 3 3 1 2
BIO407 Protein Engineering 2 3 3 3 2 1 2
38
Table 17: Correspondence between SP Educational Objectives and University Courses
Genetics and Bioengineering
University Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
EN
G1
1 F
reshm
an E
ng
lish I
MA
N1
11 C
om
mu
nicatio
n an
d
Rep
ortin
g
MA
TH
101
Calcu
lus I
EC
ON
10
1 E
cono
mics
HU
M1
01 S
cience an
d T
echno
logy
SP
S10
3 L
aw an
d E
thics
TU
RK
11
1/B
OS
11
1 S
po
ken
Tu
rkish
/Bo
snian
I
TU
RK
11
2/B
OS
11
Sp
ok
en
Tu
rkish
/Bo
snian
II
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
- - 1 - - - - -
Apply and use computer software and databases website in order to
solve problems related to the protein engineering and bioinformatics
- - - - - - - -
Identify, classify and describe the performance of systems and
components through the use of analytical methods and modelling
techniques
- - 3 - - - - -
Identify constrains of engineering solutions including environmental,
social and sustainability limitations, health and safety and risk
assessment issues;
- - 1 1 - 1 - -
Apply management techniques which may be used to achieve
engineering objectives within that context;
- - 1 3 - - - -
Use gained experience in designing and running experiments and to
analyses obtained results;
- - 1 - - - - -
Apply knowledge and understanding to acquire practical skills for
problem solving, for research tasks and the design of protocols and
procedures;
- - - - - - - -
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
- - 1 - - 3 - -
Find and use relevant technical literature and other sources of
information relating given problems;
3 3 - - 1 - - -
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
- - - - - - - -
Analyze and communicate effectively in written and oral English
language, document and deliver professional work in their field of
interest and in correlated fields using modern technical and visual
means
3 3 - - - - - -
Develop an area for creativity excellence through interactivity and
participate in scientific events;
2 3 - - - - - -
Recognize a need to engage in a life-long learning. 1 - - 1 1 1 1 1
39
Table 18: Correspondence between SP LO and Required Courses
Genetics and Bioengineering
Required Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
EN
S 2
13
Pro
gram
ing
for E
ngin
eers
EN
S 2
02
Th
ermo
dy
nam
ics
MA
TH
203
Intro
du
ction to
pro
bab
ility an
d statistics
EN
S 2
10
Co
mp
utatio
nal B
iolo
gy
NS
205
Dyn
amics o
f the C
ell
NS
207
Org
anic C
hem
istry
NS
101
Bio
log
y
NS
102
Ph
ysics
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
3 2 3 3 3 1 3 3
Apply and use computer software and databases website in order to
solve problems related to the protein engineering and bioinformatics
3 2 3 3 1 - 2 2
Identify, classify and describe the performance of systems and
components through the use of analytical methods and modelling
techniques
3 3 3 3 3 2 2 2
Identify constrains of engineering solutions including environmental,
social and sustainability limitations, health and safety and risk
assessment issues;
- 1 2 1 3 2 2 1
Apply management techniques which may be used to achieve
engineering objectives within that context;
3 2 3 3 1 2 2 2
Use gained experience in designing and running experiments and to
analyses obtained results;
3 2 3 2 1 2 3 2
Apply knowledge and understanding to acquire practical skills for
problem solving, for research tasks and the design of protocols and
procedures;
3 2 3 2 1 2 3 2
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
- - - - - - 1 -
Find and use relevant technical literature and other sources of
information relating given problems;
3 1 1 1 1 2 2 2
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
2 1 1 2 1 2 2 2
Analyze and communicate effectively in written and oral English
language, document and deliver professional work in their field of
interest and in correlated fields using modern technical and visual
means
2 2 3 3 2 1 3 2
Develop an area for creativity excellence through interactivity and
participate in scientific events;
- - - 2 1 - 3 -
Recognize a need to engage in a life-long learning. 1 1 1 2 1 2 2 1
40
Genetics and Bioengineering
Required Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
NS
104
Gen
eral Ch
emistry
MA
TH
102
Calcu
lus II
NS
209
Gen
etics I
BIO
30
3 G
enetics II
BIO
30
1 M
olecu
lar Bio
logy
I
BIO
30
2 M
olecu
lar Bio
logy
II
BIO
41
5 G
enetic E
ng
ineerin
g
BIO
30
4 S
tructu
ral Bio
log
y
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
3 2 3 3 3 3 3 1
Apply and use computer software and databases website in order to
solve problems related to the protein engineering and bioinformatics
- - 1 2 3 3 3 1
Identify, classify and describe the performance of systems and
components through the use of analytical methods and modelling
techniques
2 1 3 3 3 3 3 3
Identify constrains of engineering solutions including environmental,
social and sustainability limitations, health and safety and risk
assessment issues;
1 1 3 3 3 3 3 3
Apply management techniques which may be used to achieve
engineering objectives within that context;
1 - 2 3 3 3 3 1
Use gained experience in designing and running experiments and to
analyses obtained results;
3 1 3 3 3 3 3 2
Apply knowledge and understanding to acquire practical skills for
problem solving, for research tasks and the design of protocols and
procedures;
3 2 3 3 3 3 3 2
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
2 - 2 3 3 3 3 1
Find and use relevant technical literature and other sources of
information relating given problems;
3 3 3 3 3 3 3 3
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
3 1 3 3 3 3 3 2
Analyze and communicate effectively in written and oral English
language, document and deliver professional work in their field of
interest and in correlated fields using modern technical and visual
means
3 1 3 3 3 3 3 2
Develop an area for creativity excellence through interactivity and
participate in scientific events;
2 - 2 3 3 3 3 1
Recognize a need to engage in a life-long learning. 3 3 3 3 3 3 3 3
41
Genetics and Bioengineering
Required Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
EN
S2
02
Bio
chem
istry I
BIO
30
5 B
ioch
emistry
II
BIO
30
6 M
icrob
iolo
gy
BIO
31
0 B
ioin
form
atics
BIO
31
2 T
echn
iqu
es in M
olecu
lar
Bio
log
y
BIO
40
7 P
rotein
En
gin
eering
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
3 3 3 3 3 3
Apply and use computer software and databases website in order to solve
problems related to the protein engineering and bioinformatics
1 2 1 3 3 3
Identify, classify and describe the performance of systems and components
through the use of analytical methods and modelling techniques
- - - 3 3 3
Identify constrains of engineering solutions including environmental, social
and sustainability limitations, health and safety and risk assessment issues;
- 3 3 2 2 3
Apply management techniques which may be used to achieve engineering
objectives within that context;
1 1 2 3 3 3
Use gained experience in designing and running experiments and to analyses
obtained results;
1 2 3 3 3 3
Apply knowledge and understanding to acquire practical skills for problem
solving, for research tasks and the design of protocols and procedures;
2 3 3 3 3 3
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
- 2 3 1 2 3
Find and use relevant technical literature and other sources of information
relating given problems;
1 2 3 3 3 3
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
1 1 3 3 3 3
Analyze and communicate effectively in written and oral English language,
document and deliver professional work in their field of interest and in
correlated fields using modern technical and visual means
1 1 3 3 3 3
Develop an area for creativity excellence through interactivity and participate
in scientific events;
- 1 3 3 2 3
Recognize a need to engage in a life-long learning. 2 2 3 3 3 3
42
Table 19: Correspondence between SP LO and Elective Courses
Genetics and Bioengineering Elective Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
BIO
30
7 B
ioen
gin
eering
Prin
ciples
BIO
30
8 P
lant S
tructu
re and
Ph
ysio
log
y
BIO
31
3 C
hem
ical Eng
ineerin
g
BIO
31
5 C
ell & T
issue C
ultu
re Eng
ineerin
g
BIO
32
0 In
trodu
ction
to F
oren
sic Scien
ce
BIO
40
1 B
iotech
no
logy
BIO
40
2 M
olecu
lar Evo
lutio
n
BIO
40
3 P
lant P
atho
gen
esis
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
3 3 3 3 3 3 3 3
Apply and use computer software and databases website in order to
solve problems related to the protein engineering and bioinformatics
2 1 - 1 3 3 3 1
Identify, classify and describe the performance of systems and
components through the use of analytical methods and modelling
techniques
2 3 1 1 2 2 2 2
Identify constrains of engineering solutions including environmental,
social and sustainability limitations, health and safety and risk
assessment issues;
2 3 1 1 2 3 1 2
Apply management techniques which may be used to achieve
engineering objectives within that context;
3 3 2 3 3 3 3 3
Use gained experience in designing and running experiments and to
analyses obtained results;
3 3 2 3 3 3 3 3
Apply knowledge and understanding to acquire practical skills for
problem solving, for research tasks and the design of protocols and
procedures;
3 3 1 3 3 3 3 3
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
3 3 1 3 3 3 3 3
Find and use relevant technical literature and other sources of
information relating given problems;
1 3 1 3 3 3 3 3
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
1 3 2 3 3 3 3 3
Analyze and communicate effectively in written and oral English
language, document and deliver professional work in their field of
interest and in correlated fields using modern technical and visual
means
2 3 1 3 3 3 3 3
Develop an area for creativity excellence through interactivity and
participate in scientific events;
1 3 1 3 3 3 3 3
Recognize a need to engage in a life-long learning. 1 2 1 2 3 3 3 3
43
Genetics and Bioengineering
Elective Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
BIO
40
4 A
gricu
lture B
iotech
no
log
y
BIO
40
6 B
iom
echan
ics
BIO
40
8 M
od
elling
& S
imu
lation
of
Bio
mo
lecules
BIO
40
9 Im
mu
nolo
gy
BIO
41
0 E
colo
gy
& E
nv
iron
men
tal En
gin
eering
BIO
41
1 M
amm
alian P
hy
siolo
gy
BIO
41
2 S
pecial T
op
ics in B
ioen
gin
eering
BIO
41
4 P
harm
aceutical B
iotech
no
log
y
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using appropriate
theoretical and experimental skills
3 2 3 3 3 3 3 3
Apply and use computer software and databases website in order to solve
problems related to the protein engineering and bioinformatics
2 2 3 2 2 2 3 3
Identify, classify and describe the performance of systems and components
through the use of analytical methods and modelling techniques
3 3 3 3 3 2 3 3
Identify constrains of engineering solutions including environmental, social
and sustainability limitations, health and safety and risk assessment issues;
3 1 3 2 3 2 3 3
Apply management techniques which may be used to achieve engineering
objectives within that context;
3 2 3 2 3 2 3 3
Use gained experience in designing and running experiments and to analyses
obtained results;
3 3 3 3 3 3 3 3
Apply knowledge and understanding to acquire practical skills for problem
solving, for research tasks and the design of protocols and procedures;
3 2 3 3 3 3 3 3
Understand an awareness of and commitment to the role of engineers in
society and the professional and ethical responsibilities of engineers
3 1 2 3 3 3 3 3
Find and use relevant technical literature and other sources of information
relating given problems;
3 3 3 3 3 3 3 3
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
3 1 3 3 3 3 3 3
Analyze and communicate effectively in written and oral English language,
document and deliver professional work in their field of interest and in
correlated fields using modern technical and visual means
3 1 3 3 3 3 3 3
Develop an area for creativity excellence through interactivity and participate
in scientific events;
3 1 3 3 3 3 3 3
Recognize a need to engage in a life-long learning. 3 1 3 3 3 3 3 3
44
Genetics and Bioengineering Elective Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
BIO
41
6 P
op
ulatio
n G
enetics
BIO
41
7 M
olecu
lar Diag
no
stics
BIO
41
8 V
irolo
gy
BIO
42
0 B
iop
hy
sics
BIO
42
2 M
echan
isms o
f Sig
nal T
ransd
uctio
n
EN
S2
10
Co
mp
utatio
nal B
iolo
gy
NS
203
Ph
ysical C
hem
istry
NS
211
An
alytical C
hem
istry
SP Learning Outcomes Relationship Level
Identify, formulate and solve biological problems by using
appropriate theoretical and experimental skills
3 3 3 3 3 3 3 3
Apply and use computer software and databases website in order to
solve problems related to the protein engineering and bioinformatics
2 3 1 3 2 3 1 1
Identify, classify and describe the performance of systems and
components through the use of analytical methods and modelling
techniques
3 3 3 3 3 3 3 1
Identify constrains of engineering solutions including environmental,
social and sustainability limitations, health and safety and risk
assessment issues;
1 3 3 2 1 3 1 1
Apply management techniques which may be used to achieve
engineering objectives within that context;
3 3 3 3 3 3 2 2
Use gained experience in designing and running experiments and to
analyses obtained results;
3 3 3 3 3 3 2 1
Apply knowledge and understanding to acquire practical skills for
problem solving, for research tasks and the design of protocols and
procedures;
3 3 3 1 3 3 3 3
Understand an awareness of and commitment to the role of engineers
in society and the professional and ethical responsibilities of
engineers
2 3 3 2 3 3 1 1
Find and use relevant technical literature and other sources of
information relating given problems;
3 3 3 3 3 3 1 1
Work effectively on technical tasks individually or in a team, and
coordinating the team if necessary.
3 3 3 2 3 3 2 3
Analyze and communicate effectively in written and oral English
language, document and deliver professional work in their field of
interest and in correlated fields using modern technical and visual
means
3 3 3 3 3 3 3 3
Develop an area for creativity excellence through interactivity and
participate in scientific events;
3 3 3 3 3 3 - -
Recognize a need to engage in a life-long learning. 2 3 3 3 3 3 3 3
45
Courses in the first and second years of Genetics and Bioengineering Programme are mainly
cornerstone; university and faculty courses. The third and fourth year courses are mainly
capstone and programme-specific courses. Therefore, of curriculum design starts from more
general and comprehensive subjects toward more programme and field specific subjects. The
contribution of each unit course to programme learning outcomes is depicted in terms of
degree of contribution. With the experience of three years, the curriculum of Genetics and
Bioengineering programme is evolved gradually to its own direction. Educational objectives
of Genetics and Bioengineering programme are met by unit of required courses satisfactorily
as shown in the Table 16.
LOs of Genetics and Bioengineering programme are met by unit courses satisfactorily as
shown in the tables 17, 18 and 19 respectively. Only freshman year university courses have
relatively weak relationships with LOs. However, these courses are mainly related to generic
competences.
46
Second Cycle
The Genetics and Bioengineering (GBE) II cycle program at International University of
Sarajevo is unique in its vision in Bosnia and Herzegovina, which combines advanced
Genetics science and engineering practices, aimed to provide unparalleled assets to the
students. The curriculum includes the education in Genetics and Engineering, along with a
selection of courses that aim mainly to orient the students towards PhD study in various
fields of Biological Sciences (table 20).
Table 20: 2nd cycle of GBE Programme Curriculum.
Genetics and Bioengineering
Course
group ECTS Course name
Course
code
Course
type ECTS
Pre-
requisite
Elective
courses
Advanced Molecular Biology BIO 501
elective 6
36
Advanced Protein Engineering BIO 507 elective 6
Advanced Genetic Engineering BIO 508 elective 6
Scientific Research Methods BIO 509 elective 6
Bioprocess engineering BIO 510 elective 6
Biomaterials BIO 511 elective 6
Biostatistics BIO 512 elective 6
Advanced Cell Biology BIO 513 elective 6
O-mics technology BIO 514
elective
6
Bio-Imaging systems BIO 515 elective 6
Advanced Bio-Chemical
engineering
BIO 516
elective
6
Biosensors instrumentation and
technology
BIO 517
elective 6
Required 24 Master Thesis BIO590 required 24
Total 60
Graduate Studies: summary of conditions for successful completion of studies
Category ECTS Note
Courses 36 Level 500 or higher-level courses (not more than two courses of level 400 can be
accepted).
During the first week, it is mandatory that new graduate students take the Laboratory
Safety Training (non-credit) prior to starting working in the laboratory.
New graduate students need to complete the following safety trainings:
1. General safety and Emergency
2. Chemical Safety for Laboratories and
3. Bio safety.
Master degree
project with
thesis
24
Total 60
47
Table 21: Correspondence between SP Learning Outcomes and Elective Courses (Second Cycle)
Genetics and Bioengineering
Elective Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
Ad
van
ced M
olecu
lar Bio
log
y
Ad
van
ced P
rotein
Eng
ineerin
g
Ad
van
ced G
enetic E
ngin
eering
Bio
statistics
Ad
van
ced C
ell Bio
logy
O-m
ics techn
olo
gy
Bio
-Imag
ing
system
s
Ad
van
ced B
io-C
hem
ical engin
eering
Bio
senso
rs instru
men
tation
and
techn
olo
gy
Bio
pro
cess En
gin
eering
Bio
materials
Master T
hesis
SP Learning Outcomes Relationship Level
Possess in-depth knowledge and skills in
specific discipline with global perspective.
3 3 3 3 3 3 3 3 3 3 3 3
Apply knowledge through intellectual inquiry
and to develop critical solutions in new
situations.
3 3 3 3 3 3 3 3 3 3 3 3
Manipulate, analyses, and evaluates existing
knowledge in order to synthesize scientific
findings.
3 3 3 2 3 3 3 2 2 3 3 3
Disseminate ideas to the wider community in a
confident, effective and coherent manner
2 2 2 1 2 1 1 2 1 2 2 3
Describe and critically evaluate current aspects
of biosciences in order to solve related
problems.
3 3 3 3 3 3 3 3 3 3 3 3
Create and sustain cooperative networking
efficiently
1 1 1 1 1 1 1 1 1 1 1 3
Perform tasks given ethically and with
dedication.
2 2 2 1 2 2 2 2 2 2 2 3
Possess strong enthusiasm and commitment to
continuously acquire and disseminate new
knowledge and skills.
3 3 3 2 3 3 2 2 2 3 2 3
48
Table 22: Correspondence between SP Educational Objectives and Courses (Second Cycle)
SP NAME
Required Courses
-: No contribution
1: Low level contribution
2: Moderate contribution
3: High level contribution
Ad
van
ced M
olecu
lar Bio
log
y
Ad
van
ced P
rotein
Eng
ineerin
g
Ad
van
ced G
enetic E
ngin
eering
Bio
statistics
Ad
van
ced C
ell Bio
logy
O-m
ics techn
olo
gy
Bio
-Imag
ing
system
s
Ad
van
ced B
io-C
hem
ical engin
eering
Bio
senso
rs instru
men
tation
and
techn
olo
gy
Bio
pro
cess eng
ineerin
g
Bio
materials
Master th
esis
SP Educational Objectives Relationship Level
To demonstrate independent scientific thinking. 3 3 3 3 3 2 2 3 2 3 2 3
To demonstrate an in-depth mastery of advanced concepts in Biological
Sciences. 3 3 3 3 3 2 3 3 3 3 2 3
To provide students with the specific skills that are required for a rapid
integration into the job market, as well as promote their skills to pursue
a further academic qualification.
2 2 2 3 2 3 3 2 3 3 3 3
To contribute to and execute an original research project. 1 1 1 1 1 1 1 1 1 1 1 3
The contribution of each unit course of 2nd
cycle to programme learning outcomes is depicted in
terms of degree of contribution. With the experience of five years, the 2nd
cycle curriculum of
Genetics and Bioengineering programme has built up to meet the learning outcomes and
educational objectives in the most effective way. LOs of Genetics and Bioengineering programme
are met by unit courses satisfactorily as shown in the Table 21. Educational objectives of Genetics
and Bioengineering programme are met by unit of courses satisfactorily as shown in the Table 22.
49
1.5 EUROPEAN CREDIT TRANSFER SYSTEM
Standard 1.5 - The application of ECTS is appropriate and plausible. It meets the
recommendations of the European Commission.
As an accredited university which is conducting its activities in Sarajevo Canton,
International University Sarajevo is bound to be in compliance with the following legal acts
pertaining to the use of ECTS model:
1. Framework Law on Higher Education in Bosnia And Herzegovina
2. Law on Higher Education adopted for the Sarajevo Canton
These laws set higher education model in Bosnia and Herzegovina in three cycles:
- First cycle leading to the academic title of completed undergraduate studies [the
degree of Bachelor] or equivalent, obtained after no less than three years and no more
than four years of full time study upon acquiring a secondary school leaving
certificate, valued as no less than 180 or 240 ECTS credit points;
- Second cycle leading to the academic title of Master or equivalent, obtained after the
completion of undergraduate studies, of duration of one or two years, and valued as
60 to 120 ECTS credit points, in such a way that the total with the first cycle
represents 300 ECTS points;
And
- Third cycle leading to the academic degree of doctor or equivalent, of duration of
three years and valued as 180 ECTS credit points.
One semester of full-time study carries 30 ECTS credit points in each cycle.
Law on Higher Education defines ECTS system as “European system of transferring the
study points (credits). The study points – credits – are used to define a measure of a student
workload and requirements of each course, and are determined on the basis of optimal
student workload necessary for achieving competencies in each particular course” (Article
7). The Law further defines one ECTS study credit as 25 hours of the total student workload
in all aspects of his/her work on a particular subject (Article 49). Article 31 of the Law
stipulates the right of a university to establish the manner of implementing European Credit
Transfer System principles in its statute.
Implementation of ECTS system at IUS is regulated in Article 121 of our Statute in the
following manner:
(1) Study programmes apply the European Credit Transfer System (ECTS), i.e. the European
system of transfer of study credits, for each course in a study programme.
(2) The number of ECTS credits for each course is based upon the total student workload for
which the student is engaged in the particular course, as follows:
50
a) attending learning activities (theoretical and/or practical teaching activities,
tutorials, seminar projects);
b) independent work (homework, projects, research);
c) preparing for assessments (tests, final examination); and
d) other activities in the particular subject.
In addition to establishing credit value of its courses and study programmes, IUS is using
ECTS for the following purposes:
1. Evaluation of courses passed at other higher education institution for students who
are transferring to IUS
2. Evaluation of foreign qualifications and their recognition for the purpose of
continuing education or for getting employment in Bosnia and Herzegovina,
3. Preparing learning agreement for exchange students.
In accordance to abovementioned regulations first cycle of study programme Genetics and
Bioengineering lasts eight semesters, with 30 ECTS each, which in total adds to 240 ECTS
needed for the completion of the programme. Most of the courses require 150-hour
workload consisting of various activities for the student to successfully finish the course.
Required activities and methods of evaluation of students work and achieved learning
outcomes are described in syllabus for each course. Students receive syllabus of each course
which they register at the beginning of the semester. All syllabi can also be found on IUS
web site.
For students who are transferring to the study programme Genetics and Bioengineering from
the other higher education institution courses which they passed at other institution can be
recognized and ECTS credits can be accepted towards Bachelor of Science at IUS. Process
of recognition of those courses in conducted in accordance to the Book of Rules on
Recognition of Passed Examinations and their Equivalence at International University of
Sarajevo. This by law stipulates that recognition of courses and ECTS credits is granted
following the assessment which needs to establishes that the level and type of knowledge,
skills and competences, or learning outcomes achieved in the previously passed courses have
no significant differences from the level and type of knowledge, skills and competences
which are achieved in the subjects for which the recognition was applied for.
Process of evaluation of foreign qualifications and their recognition for the purpose of
continuing education or for obtaining employment in Bosnia and Herzegovina is performed
in accordance to the Role Book on Recognition of Foreign Qualification. In order for a
51
higher education institution to have the legal power to perform recognition of foreign
qualification and to enable usage of that qualification in Bosnia and Herzegovina, bylaw
based on which recognition is carried out has to be approved by the Ministry. Ministry
approved IUS Role Book on Recognition of Foreign Qualification on 19.09.2014 and since
that day IUS is performing recognition of foreign qualification.
Other important documents used in the process of recognition of foreign qualification are
Recommendations on the Use of Qualifications Frameworks in the Procedure for the
Recognition of Foreign Higher Education Qualifications in Bosnia and Herzegovina and
Recommendations on Evaluation Criteria for the Recognition of Foreign Higher Education
Qualifications issued by Centre for Information and Recognition of Qualifications in Higher
Education, Lisbon Recognition Convention, and ECTS Guide.
1.6 STUDY PROGRAMME VS. QUALIFICATION OBJECTIVES
Standard 1.6 - The study programme is structured consistently with regard to formulated
qualification objectives.
The structure of the Genetics and Bioengineering Programme and its consistency towards
qualification objectives is covered in the previous chapter.
52
1.7 STUDENTS’ WORKLOAD
Standard 1.7 - The students’ workload required for the study programme is devised in a
way so as to allow them to reach the aspired qualification objectives in the study period
specified.
Teaching and Assessment Methods
Teaching methods applied at the University vary significantly depending on the faculty and
discipline. In general, the courses of GBE programme have a tendency towards larger
structure and more formal lessons than subjects of humanities and social sciences. An
important component of studying at the IUS is independent learning, and special attention is
given to individual office hours with students. Academic staff combine many teaching
approaches to achieve specified learning goals and to motivate students to study.
Implementation of teaching can take several forms, but it usually involves a combination of
the following:
- During lectures, printed materials, slides or presentations on a computer are commonly
used, but the main focus is on listening to lecturers, class discussion and scientific paper
analysis.
- Assistants usually deliver lessons (tutorials) under supervision of course holder professor,
in small groups where individual attention is given to students. Tutorials usually complement
lectures, but are more topic-specific. For example, they may include activities such as
solving problems or having discussions on particular topics broadly discussed during
lectures.
- Most subjects involve some form of practical work, such as weekly sessions in the
laboratory where students acquire technical and research skills.
- Internships (min 30 working days) have been designed in a way that offers students
opportunities to experience on-the-job training and make well-informed decisions about their
future careers.
Apart from attending lectures and practical classes, students spend a great part of their week
days in independent learning that includes reading relevant materials, research, studying in
the reading room, doing homework, writing term papers and reports, group or individual
projects and presentations.
The similar teaching methods are used in 2nd cycle courses of GBE programme. However,
the focus is more on class discussions, interaction and practical work.
53
The standard for student workload and ECTS credit is defined in Law and equals 25 hours of
student engagement. The formula is consistently applied which can be evident from course
syllabus forms, where courses that are valued e.g. 6 ECTS assume that an average student
will spend 150 hours of work, including lecture/tutorial attendance, practical work,
individual learning and/or other forms of workload. In this way, it is estimated that the total
work time of an average student will allow her to fully obtain the expected knowledge, skills
and competences in that course, subsequently assigning the ECTS credits after the successful
examination. Student workload in a course in a semester is equally distributed throughout 15
weeks and is evident from the syllabus design and schedule.
The same policy is applied to the 2nd cycle which lasts one year and is equal to 60 ECTS
that should be obtained in two semesters. In this way, the national requirement for awarding
2nd cycle degree and the title is satisfied.
IUS applies general policy where each course is valued 6 ECTS credits, with very few
exceptions. This approach is used with an aim to allow well established courses that will
cover substantial breadth and depth in any given area, thus enabling better and easier
studying and learning to our students. Lecturers collect feedback directly from students
and have the possibility to update the course syllabus each semester. Special attention is
given to factors hindering the learning process and these are additionally checked through
student surveys. Factors that promote learning are manifold, and those pertaining to SP
staff and/or resources are regularly monitored, evaluated and improved.
From all above mentioned, it is obvious that the qualification objectives of GBE programme
will be achieved upon completion of 240 ECTS. Class discussions and scientific paper
analysis will enable students to think analytically about scientific problems and develop their
abilities as a team member.
Through the choice of two host institutions/sectors for carrying out the Internship, students
develop their communication skills and learn how to join interdisciplinary teams. In
addition, the workload of GBE programme courses is fixed (6 ECTS per course) and
equivalents to 150 hours of work including: lecture presentation, relevant materials, research,
studying in the reading room, doing homework, writing term papers and reports, group or
individual projects and presentations. This workload enables students to enrich their
knowledge and to broaden the spectrum of their education. Consequently, this leads to
achievement of the main aims of our undergraduate studies. In 2nd cycle, same teaching
54
methods with more attention to research is dedicated which provide students with the
specific skills that are required for a rapid integration into the job market, as well as promote
their skills to pursue a further academic qualification. In harmony with 2nd cycle objectives,
the workload of Master courses equips students with in-depth mastery of advanced concepts
in Biological Sciences. Moreover, Master thesis course (24 ECTS) is a great chance to
execute an original research project independently.
In brief, GBE teaching methods and the mentioned workload for both, 1st and 2nd cycle are
enhancing in efficient way to achieve the qualification objectives of the programme.
Since its establishment, IUS gives special importance of academic advising of students in
their studies. Within the study programme, the deans assign to each student so called
academic advisors, who have obligation to continuously monitor and evaluate student's
progress. The task of academic advisors is also; based on the expressed wishes of the student
for education in the selected area, to advice on the choice of "a coherent set of courses"
taking into account the personal preferences of student and the educational requirements of
the study programme.
Student advisor has important role in guiding the student through the course selection
procedure. We assign staff members as advisors (one for first and second year, one for
third and fourth year) in order to help students choosing the right courses which will
correspond to the courses had been finished
In order to avoid any mistakes, the programme coordinator takes the role of the advisor for
the Second cycle students.
The role of student advisor cannot be overestimated since they help student make
informed choices in the beginning of every semester.
55
1.8 EXAMINATION METHODS
Standard 1.8 - The examination methods are suitable to assess whether the defined learning
outcomes have been achieved.
Student assessment at the university is regulated by the Study Rules for the First and Second
Study Cycle at IUS. It defines the process of student assessment as well as an appeal process.
Students are awarded ECTS credits upon successful completion of each course. Assessment
is a continuous process and it includes, but is not limited to, written exams, oral exams,
practical work, seminar papers, tests and projects. Assessment methods for each course are
announced at the beginning of the semester where the evaluation and the weight of each
method is clarified for students in the course syllabus. The grading scale for each course is in
accordance to the law, and is given in Table 23.
Table 23: Grading scale table.
Together with the table above, unofficial scale is to help our students when they apply to
other universities that use European or American grading systems (see Table 24).
Letter
grade by
B&H Law
on Higher
Educatio
n
Numeri
cal
grades
Points
assigned to
grades by Law
on Higher
Education
Description
A 10 95-100 exceptional achievement, without errors, or with
minimal errors
B 9 85-94 above average achievement, with a few errors
C 8 75-84 average achievement, with noticeable errors
D 7 65-74 generally good achievement, with significant
imperfections
E 6 55-64 meets minimal criteria for achievement
F, FX 5 Less than 55 Does not meet minimal criteria
56
Table 24: Conversion table scale.
Current
Aggregated
Marks Interval
Current
IUS
Letter
Grade
New
Interval
New
Letter
Grade (*)
IUS GRADE
COEFFICIENT
ECTS
0 - 54
F 0 - 44 F 0.0
F
45 - 54 E 1.0
55 - 64 D 55 - 64 C 2.0 E
65 - 69 D+ 65 - 69 C+ 2.3
D
70 - 74 C- 70 -74 B- 2.7
75 - 77 C
75 - 80
B
3.0
C 78 - 80 C+
81 - 84 B- 81 - 84 B+ 3.3
85 - 87 B
85 - 94
A-
3.7
B 88 - 90 B+
91 - 94 A-
95 - 100 A 95 - 100 A 4.0 A
This new letter grading system will be in effect starting spring 2018.
In the new system E is still a failing grade, but the student can take the following course in
case of a pre-requisite.
IUS criteria, regulations and procedures for student assessment are clear, published and
constantly applied according to the University Book of rules. Moreover, our students stay
informed about examination schedule through the University portal9 and Academic
calendar10
. Examinations are organized in such a way that they remain feasible for students.
They have one midterm exam and one final exam per course and are able to attend two
makeup exam dates (see Tables 25 and 26). Examination Regulations can be found under the
ANNEX 3.
First cycle
9 International University of Sarajevo. (2016). Retrieved from http://www.ius.edu.ba/. 10
International University of Sarajevo. Academic Calendar. (2016). Retrieved from http://www.ius.edu.ba/academic-calendar-2015-2016.
57
Table 25: Examination methods according to learning outcomes
Type of Learning Objective Examples of Types of Assessment How to Measure
Remember Students will be able to:
Identify, formulate and solve biological problems by using appropriate theoretical and experimental
skills.
Recognize a need to engage in a life-long learning.
Objective Test items that require students to recall or
recognize information:
o True/False items.
o Multiple Choice
items with question
stems such as, “what is a…”, or “which of
the following is the
definition of)
o Essay questions.
o Connecting items
with definitions.
o Labelling diagrams.
Accuracy – only correct
answers.
Understand Students will be able to:
Understand an awareness of and commitment to the role of engineers in society and the professional and
ethical responsibilities of engineers.
Identify, formulate and solve biological problems by
using appropriate theoretical and experimental skills.
Identify, classify and describe the performance of systems and components through the use of
analytical methods and modelling techniques.
Papers, written exam questions,
problems, class discussions, presentations, homework assignments
that require (oral or written):
Summarizing readings.
Comparing and/or contrasting two or more theories, processes,
etc.
Classifying or categorizing
elements using established criteria.
Paraphrasing documents.
Finding or identifying examples or illustrations of a principle.
Scoring or performance
rubrics that identify critical
components of the work and discriminates between
differing levels of
proficiency in addressing the components.
Apply
Students will be able to:
Apply and use computer software and databases website in order to solve problems related to the
protein engineering and bioinformatics.
Apply management techniques which may be used to achieve engineering objectives within that context.
Apply knowledge and understanding to acquire practical skills for problem solving, for research tasks
and the design of protocols and procedures.
Activities that require students to use
procedures to solve or complete familiar or unfamiliar tasks; may also
require students to determine which
procedure(s) are most appropriate for a given task. Activities include: Problem sets, performances, lab
reports, Simulations.
Accuracy scores, Check
lists, Rubrics.
Analyze Students will be able to:
Analyze and communicate effectively in written and oral English language, document and deliver
professional work in their field of interest and in
correlated fields using technical and visual means.
Activities requiring students to select
relevant from irrelevant parts, determine how elements function
together, or determine bias, values or
underlying intent in presented materials. These can include:
Critiques, Labs, Papers, and Projects.
Rubrics, scored by instructor, juries,
employers, internship
supervisor, etc.
Evaluate Students will be able to:
Analyze and communicate effectively in written and oral English language, document and deliver
professional work in their field of interest and in correlated fields using modern technical and visual
means.
Identify constrains of engineering solutions including environmental, social and sustainability limitations,
health and safety and risk assessment issues.
Find and use relevant technical literature and other sources of information relating given problems.
A range of activities that require
students to test, monitor, judge or
critique readings, performances, or products against established criteria or
standards. These activities might include: Journals, Critiques, Problem Sets,
Product Reviews, and Case Studies.
Rubrics, scored by
instructor, juries,
employers, internship supervisor, etc.
Create Students will be able to:
Develop an area for creativity excellence through interactivity and participate in scientific events.
Work effectively on technical tasks individually or in
a team, and coordinating the team if necessary.
Research projects, performances,
essays, prototyping, set designs,
presentations.
Rubrics, scored by
instructor, juries, internship supervisor, etc.
Second cycle
58
Table 26: Examination methods according to learning outcomes of 2nd cycle studies
Type of Learning Objective Examples of Types of Assessment How to Measure
Remember Students will be able to:
Describe and critically evaluate current aspects of biosciences in
order to solve related problems.
Objective Test items that require students to recall or recognize information:
o Essay questions.
Accuracy – only correct answers and
items.
Understand Students will be able to:
Possess in-depth knowledge and skills in specific discipline with
global perspective.
Papers, written exam questions, problems, class discussions, presentations, homework assignments that
require (oral or written):
Summarizing readings.
Comparing and/or contrasting two or more theories, processes, etc.
Classifying or categorizing elements using established criteria.
Paraphrasing documents.
Finding or identifying examples or illustrations of a concept, principle.
Scoring or performance rubrics that identify critical components of the
work and discriminates between
differing levels of proficiency in addressing the components.
Apply Students will be able to:
Apply knowledge through intellectual inquiry and to
develop critical solutions in new situations.
Apply knowledge through intellectual inquiry and to
develop critical solutions in new
situations.
Perform tasks given ethically and with dedication.
Activities that require students to use procedures to
solve or complete familiar or unfamiliar tasks; may also require students to determine which procedure(s) are
most appropriate for a given task. Activities include: Problem sets, performances, lab, Simulations, databases.
Accuracy scores, Check lists,
Rubrics.
Analyze Students will be able to:
Manipulate, analyzes, and evaluates existing knowledge in
order to synthesize scientific
findings.
Activities that require students to discriminate or select relevant from irrelevant parts, determine how elements
function together, or determine bias, values or
underlying intent in presented materials. These might include: Critiques, Labs, Papers, and Projects.
Rubrics, scored by instructor, juries,
employers, internship supervisor,
etc.
Evaluate Students will be able to:
Manipulate, analyzes, and evaluates existing knowledge in order to synthesize scientific
findings.
Describe and critically evaluate
current aspects of biosciences in
order to solve related problems.
A range of activities that require students to test, monitor, judge or critique readings, performances, or
products against established criteria or standards.
These activities might include: Journals, Critiques, Problem Sets, Product Reviews,
and Case Studies.
Rubrics, scored by instructor, juries,
employers, internship supervisor,
etc.
Create Students will be able to:
Create and sustain cooperative
networking efficiently
Possess strong enthusiasm and
commitment to continuously acquire and disseminate new
knowledge and skills.
Research projects, performances, essays, prototyping, set designs, presentations.
Rubrics, scored by instructor, juries,
internship supervisor, etc.
1.9 DIPLOMA SUPPLEMENT
59
Standard 1.9 - Issuance of a diploma supplement is guaranteed.
Issuance of diploma supplement is guaranteed to each student. It is always issued together
with the diploma. Package includes:
1. Diploma; (See ANNEX 6: Diploma)
2. Diploma supplement (Bosnian and English version available);
(See ANNEX 7: Diploma supplement)
3. Transcript of grades (Bosnian and English version available).
Diploma supplement is designed and prepared according to the instructions provided by the
Ministry of Education, Science and Youth of Sarajevo Canton (www.mon.ks.gov.ba).
1.10 ADMISSION REQUIREMENTS FOR THE STUDY PROGRAMME
60
Standard 1.10 - Admission requirements for the study programme are clearly defined, meet
the statutory requirements and contribute to achieving the educational goals of the study
programme.
Recognition rules for external achievements pursuant to the Lisbon Recognition Convention
(Applicable to states that have ratified the Lisbon Recognition Convention and where it has
come into force) and achievements outside of higher education institutions have been
defined.
1.10.1 ADMISSION TO FIRST STUDY CYCLE
To enroll into the 1st cycle of studies, a candidate has to have completed four years of
secondary education which he/she proves with valid high school diploma. As teaching at the
University is carried out in the English as a compulsory language, in order to be enrolled into
the first year, candidates must possess advanced knowledge of the English language. To
prove capability in English the students can provide international certificates of English
language proficiency, such are TOEFL, or IELTS, or equivalent certificate, in accordance
with the criteria established by University regulations. If a candidate does not possess any
certificate which would waive the requirement for taking English Language Proficiency
exam (Proficiency exam), candidates are required to pass Proficiency Exam organized by
English Language School (ELS) at the University.
Candidates who meet all requirements for admission, but who do not pass this test, are
required to meet all conditions for the English language proficiency stipulated by ELS Book
of Rules11
, in order to acquire necessary language skills and become able to follow the
classes.
11
“The Student is deemed to be proficient in English language if he/she: Submits the valid scores in the following international exams: IBT Internet-Based TOEFL (minimum 70), (in Turkey, taken only from University-run test centers*) IELTS Academic (minimum 6.0) (in Turkey, taken only from British Council test centers*) Upon receipt of the "ORIGINAL" score sheet from TOEFL/IELTS, student will submit the score sheet "IN PERSON" to the ELS Director for review and interview. Test-taker copy cannot be accepted as proof of language proficiency. The validity period for these scores is as stated on the Score Sheet. * TOEFL/IELTS Test scores obtained from any other test center (Private Language Courses or similar) will not be admissible as proof of language proficiency at the International University of Sarajevo. Students who hold FCE certificate with a minimum grade B2 are exempt from ELS Placement exam and can directly sit for ELS Proficiency exam. Submits a high school BA/MA diplomas from native English speaking countries;
61
The equivalence between IUS ELS English language proficiency and other international
English language proficiency tests is shown in Table 27.
Table 27: The equivalence between IUS ELS English language proficiency test and other international English
language proficiency tests.
THE METHODS STATED BELOW ARE HELD EQUAL AND EQUALLY VALID:
IUS PROFICIENCY –
MINIMUM 65 OVER
100
TOEFL* iBT-
MINIMUM 70 OVER
120 OR
TOEFL PAPER-BASED
MINIMUM 500
IELTS ACADEMIC
MODULE – MINIMUM
6 OVER 9
COMPLETING 60 ECTS
IN AN ENGLISH-
MEDIUM PROGRAM
NO LATER THAN 2
ACADEMIC YEARS
BEFORE APPLYING
TO IUS.
The General criteria for admission are determined in the public announcement published
before each academic year. Ranking of candidates can be made on the basis of the following
criteria:
• Success achieved in high school;
• Marks received in the interview organized for the candidates during application
process;
• Points earned on the Scholarship test (Aptitude and Math tests) organized by
University for those candidates who applied for scholarship, and other criteria
stipulated in the announcement.
Further short-listing can be done based on the performance achieved during applicants’
secondary education in the subjects relevant to the area of the undergraduate study.
Applicants from the Republic of Turkey, in addition to the previously mentioned admission
criteria, have to pass undergraduate studies entrance exam (LYS - Lisans Yerleştirme
SINAV) with the minimal score set by the appropriate government body in charge of higher
education in the Republic of Turkey, or they have to achieve at least 1000 points on the SAT
(Scholastic Aptitude Test / Scholastic Assessment Test).
Proof of having successfully acquired minimum 60 ECTS at an English medium university, obtained no longer than two (2) academic years before the date of application at IUS (supported by transcript and other relevant documents). The following high-school diploma holders from Bosnia and Herzegovina and other countries will be exempt from ELS Proficiency Exam. These are English medium programs and their diplomas are internationally recognized: AICE diploma : Cambridge Advanced International Certificate of Education IB diploma : International Baccalaureate Pass Proficiency Exam organized by IUS at the beginning of academic year.”
62
Students transferring from other higher education institutions are required to submit
application for admission (transfer) along with the official certificate on passed courses
(transcript) from previous higher education institution. The request is forwarded to the
relevant faculty committee. At the end of transferring process, faculty dean will decide on
application for transfer.
The persons who lose their student status in accordance with the general acts and The Study
Rules at the IUS can reclaim their status under the following conditions:
• The University has available infrastructure and human resources to accommodate
re-admitted students without any interruption of regular teaching process and
everyday operations of the University;
• The student follows the study program curriculum in current use at the time of re-
admission;
• The student has no arrears with the University.
Students who want to regain their student’s status are required to submit a request and
explanation to the competent University Authorities. The decision on regaining student's
status is made by the dean.
1.10.2. ADMISSION TO THE SECOND STUDY CYCLE
In addition to general legal conditions, the rights to enroll in the second cycle of study
program have candidates who have completed the first cycle of studies, respectively
candidates who have achieved 240 credits and candidates who have completed
undergraduate studies according to pre-Bologna system of education.
All the individuals who have completed the first cycle of studies and acquired the title of
Bachelor of Arts in International Relations or other related fields are eligible to apply for
admission to the second study cycle of International Relations Study Programme.
As teaching at the University is carried out in the English as a compulsory language, in order to
be enrolled into 2nd cycle, students are required to prove that they possess advanced
knowledge of the English language by possessing a certain internationally recognized
certification, or by successful passing of the proficiency test at the University (Proficiency
Exam), in accordance with the general rules of the University. In addition, taking a special
63
test or interview may be required for proving the scientific capabilities for continuation of
the second cycle of study.
Ranking of candidates for admission at the second cycle of study is conducted on the basis of
the following criteria:
• results achieved during the first cycle of study;
• candidate's score at the interview and test which is organized when applying for
study program;
• other criteria determined in the announcement.
When the number of candidates who have met the formal requirements for admission is
larger than anticipated number of candidates for admission, preference is given to candidates
who have achieved a higher overall grade point average in the previous cycle of study and
the score achieved at the interview.
Candidates who believe that the ranking procedure has not been conducted properly can
lodge an appeal to the relevant Faculty Dean office. The Dean may form a relevant
admission committee in order to write an official report explaining the criteria for a
particular rejection. Decision on the candidate’s appeal is delivered to the appellant and
published on IUS notice board as well12
.
Ranking of candidates for admission at the second cycle of study is conducted on the basis of
the following criteria:
• results achieved during the first cycle of study;
• candidate's score at the interview and test which is organized when applying for
study program;
• other criteria determined in the announcement.
When number of candidates who have met the formal requirements for admission is larger
than anticipated number of candidates for admission, preference is given to candidates who
have achieved a higher score according to acquired success in the previous cycle of study
and achieved score at the interview.
12
Statute of the International University of Sarajevo, Revised Version, IUS- SENAT 11- 2255/2013 (Article 78/7); Study Rules for the Second Study Cycle, No. IUS-SENAT-11-2488-2/2014.
64
The persons who lose their student status in accordance with the general acts and the Study
Rules at the IUS can reclaim their status under the following conditions:
• The University has available infrastructure and human resources to accommodate
re-admitted students without any interruption of regular teaching process and
everyday operations of the University;
• The student follows the study programme curriculum in current use at the time of
re-admission;
• The student has no debts with the University.
Students who want to regain their students’ status are required to submit a request and
explanation to the competent University Authorities. The decision on regaining student's
status is made by the dean.
1.10.3. RECOGNITION OF QUALIFICATIONS IN HIGHER EDUCATION IN
EUROPEAN REGION
Bosnia and Herzegovina signed the Convention of the Council of Europe/UNESCO on
Recognition of Qualifications in Higher Education in European Region – The Lisbon
Convention in 2003. The Convention entered into force in 2004. This way, Bosnia and
Herzegovina took a part in this important instrument for the Bologna Process which aims at
creating the "European higher education area" by making academic degree standards and
quality assurance standards more comparable and compatible throughout Europe.
In order to improve the implementation of the Convention in our country, the Centre for
Information and Recognition of Qualifications in Higher Education (hereinafter CIP/CIR),
was established by the Framework Law on Higher Education in Bosnia and Herzegovina, as
an independent administrative organization. According to the given Law, CIP/CIR is in
charge of: information and recognition in higher education, coordination and international
exchange of members of academia, students, and programs in higher education and
representing Bosnia and Herzegovina in international projects in higher education. Also,
through the international network of information centers (ENIC/NARIC network), CIP/CIR
provides information to the higher education institutions in Bosnia and Herzegovina on
foreign higher education institutions and programs and gives opinion about foreign degrees
and diplomas in relation to the continuation of education at higher education institutions in
Bosnia and Herzegovina.
65
Considering that higher education in the Federation of B&H is under the authority of
Cantons, very important law for the qualification recognition at IUS is the Cantonal Law on
Higher Education. Under this Law, institutions of higher education have authority to validate
and carry out procedures of recognition of university degrees (qualifications) from abroad
through its organizational units by means of nominating a special committee, in compliance
with the Law (Article 36). Two types of qualification recognitions are stipulated, academic
and professional recognition.
Recognition of foreign higher education qualification is a formal validation of value of
foreign higher education qualifications and periods of study, issued by the competent
authorities of IUS for the purposes of access to education or employment. Procedure of
recognition of higher education qualifications at IUS has been regulated in detail by the
Book of Rules on Recognition of Foreign Educational Qualifications which is adopted by the
Senate of IUS and approved by the Ministry of Education, Science and Youth of Canton
Sarajevo.
The procedure for the recognition of foreign higher education qualifications in Bosnia and
Herzegovina is being conducted by the Senate of IUS and procedure for academic
recognition of foreign higher education qualifications and access to continuation of
education is being carried out by the Council of the organizational unit of IUS which issues
the same or equivalent higher education qualifications.
The Committee is formed of at least three members of the academic staff in the academic
title of assistant professor, associate professor or full professor, from a scientific / artistic
areas and disciplines which are taught within the study program for which the recognition of
foreign higher education qualifications is requested with obligation to submit Report to
authorized body of university or faculty, that contains their proposal and explanation on
requested recognition of higher qualification based on criteria set by the Book of Rules on
Recognition of Foreign Educational Qualifications.
Evaluation and recognition of foreign higher education qualifications is done exclusively on
the basis of acquired knowledge, skills and competences. In the process of recognition of
higher education qualification for the purpose of employment, level and type of study, as
well as professional, academic or scientific title is being determined without comparing the
curricula. Foreign higher education qualification will not be recognized if substantial
66
differences between the foreign higher education qualification and the corresponding
qualification of IUS are found.
Unified Register of all received and processed applications for academic and professional
recognition of foreign higher education qualifications is being processed and kept by the
Student Affairs Office. The deadline for adoption of decision on recognition of higher
education qualification is 60 days from the filing of a proper application.
67
1.11 INTERNSHIP
Standard 1.11 - Placements (internship) form an educationally relevant part of the
curriculum.
An obligatory 30 days of internship in external institution that can provide practical training
in an Genetics and Bioengineering programme, sector (agro food companies and
Pharmaceutical companies) or research institutes (hospitals and similar programmes labs).
The place of internship can be chosen upon a consultation from programme coordination and
recommendation letter to the responsible person in the host institute or sector. After
completing the period of the internship, the responsible person should write a report to the
Genetics and Bioengineering programme coordination describing the training protocol,
results obtained and the performance of the student. Only positive reports will be taken into
consideration to validate the internship. The content of practical training is course specific
and is prepared according to the accepted and verified course syllabus (See ANNEX 8:
Course Syllabus sample). The goals of practical training are as follows:
To develop the ability of students’ reasoning
To improve their ability to process information and critical thinking
To increase their ability to apply gained knowledge
To develop their problem-solving strategy in various circumstances etc.
The evaluation of practical training and set goals is done through practical work exams or
lab projects. Practical training is organized in such way that all students take their part in
practical work, in most percentage under mentorship, but also independently depending on
the course. The institutions of choice for students in our department are visible in the
ANNEX 9.
68
CHAPTER 2
STANDARD 2: STAFF
2.1 SCIENTIFIC TEACHING AND RESEARCH STAFF
Standard 2.1 - A sufficient number of scientific or artistic teaching and research staff is
available for the study programme, who are scientifically qualified, have adequate
vocational experience, and are qualified in terms of their teaching methods.
Staff members of Genetic and Bioengineering programme have notable record in teaching,
research, and professional society involvement and experience in practice. They are
constantly trying to broaden their research, development and professional activities in all
fields of expertise and teaching interests.
Number of academic staff in programme
Academic staff of Genetic and Bioengineering study programme includes 4 full-time
professors, 4 senior assistants, 1 assistant, and 1 student demonstrator. The rest of professors
from different scientific areas are also included (see Table 28).
Table 28: All the staff involved in the realization of the GBE Study Programme
Name and
surname
Country of
Origin
Academic
Degree
Academic
Title
His/Her
Academic
Discipline
Full time
/Part time
Courses taught in the current AY
Ahmet
Yildirim
Turkey PhD Full
Professor
Biological
Sciences
Full Time NS209 Genetics I (shared)
BIO303 Genetics II
BIO404 Agricultural Biotechnology
Mohamed
Ragab
Egypt PhD Associate
Professor
Biological
Sciences
Full Time BIO310 Bioinformatics
BIO407 Protein Engineering
BIO644 Advanced Plant Physiology
BIO308 Plant Structure and Physiology
BIO404 Agricultural Biotechnology
BIO507 Advanced Protein Engineering
NS209 Genetics I (shared)
Sabina Semiz Bosnia &
Herzegovina
PhD Full
Professor
Biological
Sciences
Full Time NS205 Dynamics of the Cell
BIO514 O-mics Technology
BIO305 Biochemistry II
BIO414 Pharmaceutical Biotechnology
69
BIO516 Advanced Bio-Chemical Engineering
NS207 Organic Chemistry (shared)
NS104 General Chemistry (shared)
Ayla Arslan Turkey PhD Associate
Professor
Biological
Sciences
Full Time NS103 Biology
BIO415 Genetic Engineering
BIO513 Advanced Cell Biology
ENS210 Computational Biology (shared)
BIO306 Microbiology (shared)
BIO320 Introduction to Forensic Science
(shared)
BIO412 Special Topics in Bioengineering
(shared)
Mirza
Suljagić
Bosnia &
Herzegovina
PhD Assistant
Professor
Biological
Sciences
Full Time BIO603 Cell Dynamics and Disease
BIO301 Molecular Biology I
BIO409 Immunology
BIO304 Structural Biology
BIO417 Molecular Diagnostics
BIO508 Advanced Genetic Engineering
BIO312 Techniques in Molecular Biology
(shared)
Jasmin
Šutković
Bosnia &
Herzegovina
MA / PhD
Candidate
Senior
Assistant
Biological
Sciences
Full Time BIO412 Special Topics in Bioengineering
(shared)
NS207 Organic Chemistry (shared)
NS104 General Chemistry (shared)
BIO305 Bioinformatics (TUT)
BIO312 Techniques in Molecular Biology
(TUT) Furkan Enes
Oflaz
Turkey BSc / MSc
Candidate
Scholarship
Assistant
Biological
Sciences
Full Time NS104 General Chemistry
NS205 Cell Biology
Muhamed
Adilović
Bosnia &
Herzegovina
MA / PhD
Candidate
Senior
Assistant
Biological
Sciences
Full Time NS209 Genetics I (TUT)
BIO308 Plant Structure and Physiology (TUT)
Nudžejma
Obralić
Bosnia &
Herzegovina
PhD Assistant
Professor
English
Language
and
Literature
Full Time ENG111 Freshmen English (shared)
MAN111 Communication and Reporting
(shared)
Ervin
Kovačević
Bosnia &
Herzegovina
PhD Senior
Assistant
English
Language
and
Literature
Full Time ENG111 Freshman English (shared)
MAN111 Communication and Reporting
(shared)
Mehmed
Ganić
Bosnia &
Herzegovina
PhD Associate
Professor
Economics Full time ECON 101 Economics
Mesut Idriz Macedonia PhD Full
Professor
Law Full time SPS103 Law and Ethics
Sanela Bosnia & BA Lecturer Turkish Part time
/expert in TURK111Spoken Turkish I
70
Crnovršanin Herzegovina Language practice TURK112 Spoken Turkish II
Mirzana Pašić
Kodrić
Bosnia &
Herzegovina
MA Lecturer Bosnian
Language
Part time
/expert in
practice
BOS111Spoken Bosnian I
BOS112 Spoken Bosnian II
Lejla Miller Bosnia &
Herzegovina
PhD Associate
Professor
Mathematic
s
Full Time MATH101 Calculus I
MATH102 Calculus II
MATH203 Introduction to Probability and
Statistics
Mehmet Can Turkey PhD Full
Professor
Mathematic
s
Part time/
Professor
Emeritus
MATH201 Linear Algebra
MATH202 Differential Equations
MATH204 Discrete Mathematics
Naida Fetić Bosnia &
Herzegovina
BA Assistant Mathematic
s
Full Time MATH101 Calculus I (TUT)
MATH102 Calculus II (TUT)
MATH201 Linear Algebra (TUT)
MATH204 Discrete Mathematics (TUT)
Mohamed
Yahia E.
Kelib
Egypt PhD Assistant
Professor
Mechanical
Engineering
Full Time HUM 101 Science and Technology
NS102 Physics
ME208 Dynamics and Vibrations
ENS221 Introduction to Mechanical
Engineering (shared)
Enes Akca Turkey MA
Senior
Assistant
Mechanical
Engineering
Full Time ENS221 Introduction to Mechanical
Engineering (shared)
Alma
Husagić –
Selman
Bosnia &
Herzegovina
MA
Senior
Assistant
Computer
Science
Full Time
ENS213 Programming for Engineers (shared)
ENS213 Programming for Engineers (TUT)
Jasminka
Hasić
Telalović
Bosnia &
Herzegovina
PhD
Assistant
Professor
Computer
Science
Full Time
ENS213 Programming for Engineers (shared)
Muhamed
Hadžiabdić
Bosnia &
Herzegovina
PhD Associate
Professor
Mechanical
Engineering
Full Time
ENS202 Thermodynamics
Sadina
Gagula –
Palalić
Bosnia &
Herzegovina
PhD Assist. Prof. Electrical
Engineering
Full Time ENS201 Electromagnetics I
ENS211 Signals and Systems (shared)
ENS203 Electrical Circuits I (shared)
Indira
Huseinagić
Bosnia &
Herzegovina
MA Senior
Assistant
Electrical
Engineering
Full Time ENS211 Signals and Systems (shared)
ENS211 Signals and Systems (TUT)
ENS203 Electrical Circuits I (shared)
ENS203 Electrical Circuits I (TUT)
Emir
Karamehmed
ović
Bosnia &
Herzegovina
PhD Assoc. Prof. Electrical
Engineering
Full Time MATH205 Numerical Analysis
Migdat
Hodžić
Bosnia &
Herzegovina
PhD Full
Professor
Electrical
Engineering
Part time
/visiting
professor
ENS206 System Modeling and Control
71
Indira Muhić Bosnia &
Herzegovina
MA Senior
Assistant
Electrical
Engineering
Full Time MATH205 Numerical Analysis (TUT)
Kemal Turan
Turkey
MA
Senior
Assistant
Mechanical
Engineering
Full Time ENS207 Engineering Graphics (shared)
ENS205 Materials Science I (shared)
ENS205 Materials Science I (TUT)
NS102 Physics (TUT)
Ali Gursel Turkey PhD Associate
Professor
Mechanical
Engineering
Full Time
ENS208 Introduction to Manufacturing
Systems
ENS207 Engineering Graphics (shared)
ENS205 Materials Science I (shared)
Edin Jahić Bosnia &
Herzegovina PhD
Associate
Professor Architecture Full Time
ARCH211 Building Services II
ARCH215 CAD in Architecture
The Curriculum vitae (CVs) of all the academic staff involved into the teaching process are
found in ANNEX 10.
Quality of academic staff
The aim of the IUS is that, among other things, together with contemporary curricula,
achieve a greater compatibility and a clear comparability with higher education systems in
Europe, and to improve quality of education and its results as a basic requirement for a
comparison with European and the world's education systems. Of course, a prerequisite of
these objectives is the fulfilment of all Standards and norms for higher education in Canton
Sarajevo (hereinafter: Standards), which establishes the requirements for a minimum
infrastructure, personnel and other technical conditions necessary for carrying out teaching
and research activities of university.
Standards, among others, stipulates the obligation of higher education institutions to provide
teachers and associates who will successfully and in accordance with the curriculum
implemented established programme, where it is necessary that at least 2/3 of the professors,
assistants 2/3 and 2/3 of other associates must be employed full-time at the University, and
the rest of the academic staff can be engaged from the economic, scientific and similar
environments (up to 1/3 of the academic staff, and, if necessary, and more), or from among
the visiting professors (1/3 academic staff).
In parallel, IUS carries out continuous analysis of its own scientific teaching capacity i.e.
staff members of academic staff who are appointed for the same or related scientific field.
By decisions on appointment into academic title for a specific scientific field, the right to
hold all courses contained within established scientific / artistic field is awarded to particular
72
academic member. No matter given the right to hold a certain number of courses contained
in the relevant scientific field, teaching load for each semester and each academic member is
separately determined by the decision on teaching responsibilities and workload by faculty
council. Therefore, the number of courses given by the Decision on the appointment or
curriculum always may be limited and coordinated with the decision on teaching
responsibilities and workload by faculty council on the semester basis, depending on special
teaching needs. The majority of the appointed members are young professors who have
dedicated their academic degree earned in the relevant scientific disciplines. In accordance
with the decisions on appointments, as a result of public vacancy for appointment into
academic tile, they have concluded their employment relationships and they are actively
engaged in continuous scientific research and teaching processes, which is resulting with
permanent scientific publications and prominent teaching activities.
IUS and faculties as a whole continuously are analysing staffing fulfilment and propose
measures for improvement in the areas where it was found a lack of a sufficient number of
required staff. In general, this analysis is done at the level of the study programme and
resulting requirements for new staff if found necessary. Furthermore, these requirements are
analysed by the faculty council and forwarded to the IUS Senate and the Board of Directors
for final approval. After approvals, the public vacancies are announced.
Academic staff members fall into two categories: teachers and assistants. There is a universal
workload policy, based on the relevant standards and norms and at IUS teachers are
supposed to teach nine hours a week and to spend the rest of their working time in other
activities, primarily student consultations, research and some administrative duties.
Assistants’ workloads are also in line with the existing standards and norms. In order to get
academic appointment all, the legal and institutional criteria with regard to qualifications and
academic/artistic background must be satisfied and the selection process includes
introductory lecture which is evaluated by an ad-hoc committee.
Professional development policy at IUS is regulated through Programme of measures for
creation of conditions for promotion of academic staff. This document underlines conditions
for promotion of academic staff into higher academic titles and also lists other measures
which allow professional development of IUS teaching staff. Hiring process, duties and
73
responsibilities, appointments, promotions, workloads and evaluations of academic staff are
regulated by Law, Statute and rulebooks.
There are fair and merit-based procedures for staff recruitment and promotion. Academic
staff appointments are publicly announced and open to all the interested candidates. A
committee checks the applications and attached files, prepares a shortlist and invites
candidates to deliver an introductory lecture for the evaluation purpose. Final decision is
brought by Senate voting.
There is a universal workload policy, based on the relevant standards and norms and at IUS
teachers are supposed to teach nine hours a week and to spend the rest of their working time
in other activities, primarily student consultations, research and some administrative duties.
Assistants’ workloads are also in line with the existing standards and norms.
Academic staff members are regularly evaluated by students and institution on a regular
yearly basis. Student surveys are performed at the end of each semester and the scores given
by students are used in institutional evaluation of academic staff that includes their
educational, scientific/artistic and administrative activities. The evaluation is objective with
clearly set criteria, identified areas and values for every activity/output. These evaluations
are part of the internal QA system and are managed by the Rectorate, as defined in the
rulebook.
Information on the teaching staff’s involvement in projects and research activities
IUS Genetics and Bioengineering Programme of the Faculty of Engineering and Natural
Sciences (FENS) received at the beginning of 2016, a grant worth 50000 euro for realization
of a scientific research project. Molecular Biomedicine Group led by Assist. Prof. Dr. Mirza
Suljagić will work 3 years on the project titled "Multi-targeting Survival Pathways in Human
Leukemic Cells by Combinatorial Therapy with Metformin and Thymoquinone". The funds
are allocated by the Department for Research grants at the International Centre for Genetic
Engineering and Biotechnology (ICGEB). This project involves the active participation of
several undergraduate, master and PhD students.
The Genetic and Bioengineering Programme, with the corporation of Agricultural faculty of
Sarajevo, is realizing a project entitled: Genetic characterization and stress evaluation of
74
autochthonous variety of pepper and onion from Herzegovina region. This project was
funded by United Nations Development Programme in July 2015 with 20000 euro. The
responsible project associates in front of GBE programme is senior assistant Jasmin
Šutković.
Student/lecturer ratio in the provision of the study programme
Given that the average (admission versus graduation) number of students in the study
programme in the period of 2017–2018 equals 96 and the number of full time academic staff
in GBE study programme is 8, without including the number of faculty staff teaching some
university required and elective to our students, the programme thus boasts the
student/teacher ratio of 12 (See Table 29). Although the study process definitely benefits
from provision of more individual attention from the teachers and creating space for more
productive class work, it nevertheless seems rational to seek the possibility to increase the
numbers of students being accepted to the study programme, still without negative impact on
the quality of studies.
Table 29: Numbers and ratios of staff and students in academic year 2015/2016.
Study cycle Number of
students
Number of academic staff
members Ratio
I cycle 86
2 Full Professors
2 Associate Professors
1 Assistant Professor
2 Senior Assistants
1 Scholarship Assistant
10.8
II and III
cycle
8 Master
2 PhD
2 Full Professors
2 Associate Professors
1 Assistant professor
1.3
Total students
96
Total employees
8 12
2.2 COMPOSITION OF THE FACULTY
75
Standard 2.2 - The composition of the faculty meets the requirements of profound scientific
and artistic education and ensures adequate student support.
During the following academic year, the Genetic and Bioengineering programme is using 18
faculty members (4 professors, 4 associate professors, 5 assistant professors and 6
assistants), majority of who have had full-time or part-time contracts with International
University of Sarajevo. Several faculty members are involved in the teaching of University
and Faculty courses.
Human resource development
Professional development policy at IUS is regulated through Programme of measures for
creation of conditions for promotion of academic staff. This document underlines conditions
for promotion of academic staff into higher academic titles and also lists other measures
which allow professional development of IUS teaching staff such as:
• Financial support for publishing scientific papers, participation of academic staff in
conferences, workshops and seminars which is regulated by Book of Rule on
Incentives Policy and Financial Support for Book Publishing, Conference
Participation and Professional Development. The criteria for funding scientific
publishing are defined in the Book of Rule on Incentives Policy and Financial
Support for Book Publishing, Conference Participation and Professional
Development.
• Organizing conferences, seminars, lectures.
In the referenced period the IUS hosted and organized nine international conferences.
The list of academic personnel who received financial support stipulated by Book of Rule on
Incentives Policy and Financial Support for Book Publishing, Conference Participation and
Professional Development is kept in the Office for Financial and Economic Matters along
with the documentation which back up the application for support.
The list of published scientific papers, books and book chapters by IUS academic staff is
publicly available at IUS web-site13
. The list is regularly updated. The Book of Rules on
13 International University of Sarajevo. (2016). Retrieved from http://www.ius.edu.ba/.
76
Publishing Activities of the IUS (No: IUS SENAT-11- 974/16), available in ANNEX 3,
defines all types of publishing activities at IUS, quality control of publications, as well as
financing publishing activities. It also contains review and approval methods for every type
of publication. The list of published scientific papers, books and book chapters by IUS
academic staff is publicly available at IUS web-site. The list is regularly updated.
Staff members of Genetic and Bioengineering Programme have notable record in teaching,
research, and professional society involvement and experience in practice. They are
constantly trying to broaden their research, development and professional activities in all
fields of expertise and teaching interests.
2.3 HUMAN RESOURCE DEVELOPMENT
Standard 2.3 - Teaching and research staff have access to human resource development and
further education measures.
The programme academic staff is being supported for their academic and research
development. The academic staff is supported and approved to visit different conferences,
seminars and workshop. Each employee has the right to visit other institutions in order to
educate for recent methods, approaches and possibilities in his/her academic discipline. For
example, in March 2016, our senior assistant Jasmin Sutkovic and one of our PhD students,
Petar Glamoclija, went to Sanliurfa University for research purposes, where the travel and
accommodation expenses were organized by both faculties. In addition, in SPRING 2016,
the Genetics and Bioengineering programme organize a laboratory workshop entitled:
Western Blot method. This workshop was co-financed by a leading Life Science and High
Technology company in the world.
CHAPTER 3
STANDARD 3: QUALITY ASSURANCE
77
3.1 INSTITUTION’S QUALITY MANAGEMENT SYSTEM
Standard 3.1 - The study programme is supported by institution’s quality management
system.
IUS formally introduced its internal quality assurance system in 2011. Although this is not
the beginning of the quality culture at the University, since 2011 there has been significant
progress in terms of institutional approach to the quality assurance. Table 30 represents the
IUS's QA framework.
Table 30: IUS's QA framework.
Internal Quality Assurance System at IUS
IUS Internal Documents
for Quality Assurance
What is it about?
Qual
ity c
ult
ure
and
QA
syst
em b
ackbone
IUS Statute (incl. mission
and vision)
IUS Strategic Plan 2011-
2016
IUS Strategic Plan 2016 -
2020
Demonstrated commitment of the IUS senior leadership
towards developing internal quality culture.
Regulation on Quality
Assurance at IUS, IUS-
SENAT-11-819/11, 21 June,
2011
This document defines internal quality assurance system
at IUS, its aims, mission, organizational structure, its
responsibilities, its activities and its roles, intention
statements, quality culture, students' role in QA, quality
assurance policy, and quality assurance procedures. It
also establishes IUS QA bodies as follows:
- Quality Assurance Office (at the University level)
- Faculty Quality Assurance Teams (at the Faculty
level)
Quality Assurance Office
Policy, IUS-UO08-32/2011,
22 June, 2011
This decision establishes Quality Assurance Office as an
autonomous body of the IUS within the Rector’s Office.
Internal Quality Assurance
Procedures 11-1064/11
Covers procedures related to self-evaluation, external
evaluation and contains relevant templates for the
processes.
Curr
icu
la Book of Rules on Accepting
and Monitoring Study
Programmes at IUS, revised
edition, IUS-SENAT-11-
3330/14
This Book of Rules defines the content, methods of
proposing, accepting, monitoring and realization of the
study programmes at International University of
Sarajevo, as well as methods of amending or innovating
existing study programmes.
78
The Book of Rules also regulates the methods to cancel
existing study programmes or courses within the study
programmes.
It introduces the Curriculum Committee as a body for
monitoring the curricula, appointed by the Rector,
which task is to consider proposals for introducing new
study programmes, as well as proposals for amending
existing study programmes curricula.
The Rule Book prescribes the form of the syllabus as
well the forms for different types of curricula changes
(see ANNEX 11: Curricula Forms)
Book of Rules on the Work
of the Curriculum
Committee IUS-SENAT-11-
3324/14
The methods of work and selection of the Committee
members is defined in the Book of Rules on the Work of
the Curriculum Committee.
Aca
dem
ic S
taff
E
val
uat
ion
Stu
den
t S
urv
ey Book of Rules on Evaluation
of the Academic Staff
Procedures at the
International University of
Sarajevo, IUS SENAT – 11
– 3152/13.
This Book of Rules sets out the procedures on
evaluation of the academic staff at International
University of Sarajevo, the method and procedure of
conducting the evaluation, the criteria for defining the
evaluation score, as well as the appropriate measures to
be taken should the academic staff member be
continuously negatively evaluated by the IUS in the
period of two years. The evaluation procedure integrates
procedures for systematic evaluation of the academic
staff by: a) the higher education institution, and b)
students (in form of a students’ survey). See ANNEX
12: Academic Staff Evaluation Form
The Rule Book also include the content of the
evaluation form and of the students’ survey form.
ANNEX 13: Student Survey form
ANNEX 14: Alumni survey form
Nat
ional
Inst
ituti
onal
Acc
redit
atio
n
IUS Post-Accreditation
Action Plan on Quality
System Improvement,
November 2014
After receiving the Decision on institutional
accreditation, a higher education institution is required
by the national law to make an Action Plan on Quality
System Improvement, and submit Progress Reports to
the competent Ministry.
The Action Plan includes the following:
- List of activities addressing the recommendations
stipulated in the Report of the Committee for External
Evaluation;
- Timeline for activities’ implementation and
- Persons in charge for each activity.
Tea
chin
g a
nd
Lea
rnin
g Book of Rules on the
Procedure of Effective
Teaching Process of the
Academic Staff, IUS-
SENAT 11 -1044-2/14
This Book of Rules defines the procedure of monitoring
and recording the proper and regular fulfilling of the
teaching obligations. It prescribes the form (B6) to
inform Deans and Programme coordinators as to ensure
effective teaching processes of the academic staff.
Methods for Monitoring
Academic Staff Activities,
IUS-SENAT-11-1044-1/14
This procedure goes hand in hand with the previously
mentioned Book of Rules. It defines the role of QA
teams.
79
Res
earc
h
Book of Rules of Research
and Development Centre,
2016 (under the process of
adoption)
Statistics are collected on published articles and
regularly updated on the IUS web page. Also, the
impact factors of published articles are monitored via
Google Scholar.
ISO
90
01
:20
08
General Secretariat Quality
Rule Book
Quality policy statement,
Rector, 11 February 2015
The Quality Policy Statement is a constituent part of the
General Secretariat Quality Rule Book whereby
ISO9001:2008 were introduced for the IUS
administration
There are several documents which are not part of QA policy per se but significantly
contribute to the IUS overall QA system.
These are:
Code of Ethics and Decision on the Establishment of Ethical Committee;
Decision on procedures for Developing, Adopting and Implementation of IUS
Strategy;
Regulation on Student Organization and Student Roles at IUS;
3.1.1 QA BODIES
Specific QA structure at IUS is made of fully functional QA Office at the university level
and the QA Teams at faculty level. Student representatives are regularly appointed in Faculty
QA Teams.
These bodies, defined in Article 8 of the Regulation on QA at IUS, are fully operational and
functional. The roles, responsibilities, and activities are clearly defined in the
aforementioned documents. The QA Office is the main QA executive body. It is an
independent unit within the University whose Manger is responsible directly to the Rector.
The Faculty QA Teams are constituted within each IUS faculties and responsible to the
faculty Deans. A 5-member QA Team at Faculty level is made of the major stakeholders’
representatives, including students.
QA Office regularly performs the following main activities:
- Follows development of regulation on quality assurance and propose adequate
measures to IUS governance structures.
- actively participates and provides assistance in the process of strategic planning
80
- provides assistance to academic units in setting intended learning outcomes and
educational objectives
- conducts student surveys at the end of each semester and prepares reports,
- provides guidance for analyzing study programmes at the end of each academic year,
processes reviews and improvements,
- provides support and guidance for the processes of self-evaluation at both study
programme and IUS level,
- organizes educational activities on QA enhancements
- conducts process of academic staff evaluation
- evaluates staff research activities
- Conducts alumni surveys.
- Processes all curricula revision requests and prepares documentation for Curricula
Committee sessions.
- prepares various templates/forms
- Ensures correct application of the entire QMS including ISO 9001:2008.
Activities in which QA Office provides assistance and support include, but are not limited
to:
Cooperation with Faculty QA Teams, monitoring and recording of the proper and regular
fulfilling of the teaching obligations by academic staff, provides updating study
programmes curricula changes, syllabi updates, award, monitoring, preparation of forms,
updates of rulebooks, definition of scientific areas, establishing needs for academic staff, and
participation in events and projects, such as workshops organized by the Council of Europe,
EU Twinning Project: Strengthening Institutional Capacity for Quality Assurance and
Agency for Higher Education and Quality Assurance, BiH, (HEA). IUS evaluates its QA
system formally in the process of self-evaluation, but also as the part of strategy monitoring
implementation and regular analyses by Board of Trustees IUS quality system is in full
compliance with ENQA standards and guidelines, BH standards and guidelines, laws and
Acts of the Agency for Development of Higher Education and Quality Assurance, and
competent cantonal laws and by-laws.
81
3.1.2 STAKEHOLDER PARTICIPATION
Internal and external stakeholders are involved in the QA processes in various ways, but not
at the same level (see Table 31). Internal stakeholders, such as students and academic staff,
are involved in more systemic manner. Self-evaluations, both at university and SP level are
done by appointed committees and student representatives are on all these committees.
All the analyses are discussed at Faculty Council and Senate sessions and, as pointed out
earlier, students are also full members in these. Alumni association at IUS is created at
university level and all the accessible alumni are approached in reasonable manner providing
valuable input for improvements and innovations in the existing practices and curricula.
Representatives of the labor market and professional associations are approached in the
process of major changes and enhancement in SPs and/or in very specific and individual
cases where their contribution is considered most valued. Faculties maintain good contacts
with relevant industries on personal and also professional basis through repeating meetings,
workshops and partnerships.
Table 31: Involvement of Stakeholders in IUS QA processes
Academic
staff
Admin.
staff
University
Management
Faculty/
Department
/Study
Programme
Management
Students
External
stakeholders (employers,
experts...)
Alumni
Through participation in IUS
governance bodies with
voting rights (e.g. Senate,
Faculty Councils, Ethical
Committee, QA and SER
Teams...)
- -
82
3.2 STUDY PROGRAMME QUALITY ASSURANCE AND ENHANCEMENT
Standard 3.2 - The study programme is part of a regular quality assurance and
enhancement process which takes into account the curriculum, the study conditions and the
programme organization, and which involves all relevant groups as well as external experts.
Through formal participation
in consultation bodies
(Faculty QA Teams,
Curriculum Committee,
Research Committee,
Strategic Planning
Committee, etc.)
Through formal involvement
in self-evaluation activities - - -
By informally providing
information on the issues at
stake
By responding to the surveys
on regular basis (e.g. at the
end of the semester or
academic year) - - - - -
83
3.2.1 CURRICULUM AND QUALITY ENHANCEMENT
Study programmes curricula for all three cycles are adopted by the Senate on the proposal of
the Faculty Council and with a positive opinion of the Curricula Committee. The proposal
for introduction of a new study programme goes through the review process. Before
approval of the Faculty Council, the proposal is shared for review with other colleagues,
professional associations relevant to the proposed programme and other interested parties.
To approve the proposal, there should be at least one positive review by an internationally
recognized professor in the field concerning the programme, and approvals by the Quality
Assurance Office and the Curricula Committee. Once the proposal is accepted by the Faculty
Council, the proposal is submitted for approval to the Senate.
According to the Book of Rules mentioned above, changes in an existing study programme
can be classified as minor changes, in which approval of the responsible Faculty Council
suffices, and major changes where approval of the Faculty Council and the Senate is needed,
assuming the positive opinion of the QA Office and the Curricula Committee.
The quality of the curriculum is assured through continuous monitoring and verification of
programme objectives, outcomes, teaching/learning methods, workload of students, students’
exam pass rates, and by gathering information from students and lecturers as well as other
stakeholders.
Course analysis is performed once a year at the end of each academic year (No. IUS-SENAT
11-132/13). The analysis contains information about the number of registered students for a
course, a number of students that have withdrawn from the course, average grade of the
course and student's evaluation of the course, which is measured every semester by the
online student survey system.
External stakeholders are usually involved in the self-evaluation process and strategic
planning or any kind of major changes whereby opinion of external partners is deemed to be
of a significant importance. Academic staff members maintain good contacts with relevant
industries on personal and also professional basis through repeating meetings, workshops
and partnerships. IUS implements several projects with companies, institutions and
government bodies as partners.
84
External stakeholders are mostly involved in manner of informal forums and personal
connection. As a good example of cooperation with external stakeholders is the input on IUS
Strategic Plan 2016-2020 where a thorough feedback was obtained from:
- Turkish Chamber of Commerce, and
- BH Agency of Higher Education and Quality Assurance (HEA)
3.2.2 THE USE OF INFORMATION
In this section we will provide an overview on what kind of information is being collected by
IUS/Faculties/Study Programme, how this information is communicated and how they
impact decision making processes. It will also address what kind of information IUS
displays publicly.
SIS (UNIPA) software, a centralized student information system, enables IUS and Study
Programmes to monitor their activities related to students and study programmes
implementation.
Apart from earlier described UNIPA features (i.e., documents issuance (transcripts, various
certificates, diploma, diploma supplements, etc., grading and records maintenance, finance
issues control, etc.), it also enables collection of different data related to students, such as:
- Student progression and success rates
- Profile of the student population (e.g. age, gender, nationality, education background)
- Number of students in each study programme based on study year
- Number of students graduated each year
- Average grade in each study programme
- Average duration of study in each study programme
- Drop offs, student transfers, etc.
- Student status
- Percentage of graduates per each generation
All these data are further analyzed at different levels and the measures taken are followed up.
One of the tools is preparation of self-evaluation report, which is done on regular basis in
accordance with IUS rules and regulations.
Apart from the information mentioned above, IUS/SP collects different types of information
via various surveys, such as:
85
- Student satisfaction with the courses content and the curricula
- Students evaluation of teachers and teaching methods
- Students' satisfaction with the resources available to them (Library, Student Affairs
Office, etc.)
- Alumni/employment satisfaction surveys
- Post-exchange student/teacher survey
- Survey on Strategic Plan.
All these data are further analyzed at different levels and the measures taken are followed up.
3.2.3 PUBLIC INFORMATION
IUS has an open and transparent public policy. On the University level an entire Strategic
Plan is publicly announced via IUS web page.
Information on the Study Programme offered public ally includes:
- Information on Qualification granted by the study programme
- Intended Learning outcomes and educational objectives
- Curricula for the 1st, 2nd, and 3rd cycle
- Specific information for foreign students
- Information on teaching staff
- Information on the teaching and learning methods and assessment procedures
- Learning opportunities (scholarships, exchange and mobility opportunities)
- Available learning and campus resources (IUS library, laboratories, dorms, canteen,
gym, etc.)
- Exchange opportunities and mobility
- Project and Research Grant Opportunities
3.3 PARTICIPATION OF STUDENTS IN REFLECTION TO STUDY
PROGRAMME
86
Standard 3.3 - The participation of student in reflection on the study programme, the study
conditions and the programme organization has been institutionalized.
Student surveys are always conducted in the last weeks of the Semester, but before final
exams. QA Office processes all the data collected during the survey and prepares usually
three types of reports:
- University- wide Report to inform senior university leadership and university governance
structures
- Faculty- level Report to inform Faculty/Department /Study Programme level
- Individual Report for academic staff per courses they taught.
3.3.1 FEEDBACK LOOP AND COMMUNICATION
The reports mentioned in the previous section are further discussed and analyzed, and serve
as the basis for future activities at different levels, from the course, Study Programme to at
Faculty/Department and university levels. The student surveys are further used in the
following manners:
- They are used by the Senior Leadership as an indicator of progress
- They are taken into consideration in the annual process of assessment of academic staff;
- They are archived in order to inform future assessment of the Study Programme;
- They are discussed in the Senate and Faculty Councils and formally adopted by these
bodies;
- They are used as input data for self-evaluation processes
This way ensures that any identified deficiency can be properly tackled and resolved by the
most competent agents.
Students are informed on the results of student surveys via its representatives in university
governance bodies such as Senate, Faculty QA Team and Faculty Council.
CHAPTER 4
STANDARD 4: FUNDING AND INFRASTRUCTURE
87
4.1 FUNDING OF THE STUDY PROGRAMME
Standard 4.1 - Transparent documentation of the funding of the study programme is available.
IUS finances and income sources are defined by IUS Statute. Income is acquired from: the
Founder; tuition fees; scientific research and artistic activities; providing intellectual i.e.
scientific, professional and artistic services; non-cyclical study programmes; publishing;
provision of the verification and equivalence of public documents; copyrights and patents;
donations from legal entities and individuals; donations and bequests; payments collected
from students in all study cycles for any academic, administrative or other services in
compliance with law, the Statute and other acts of IUS; laboratory activities, centers,
institutes, sub-organizational units and other organizational structures of IUS; diagnostic and
other professional services; and from other sources in compliance with law and within the
registered activities of IUS.
Genetics and bioengineering budget plan is given in the ANNEX 15.
4.2 ROOMS AND FACILITES
Standard 4.2 – Adequate rooms and technical facilities required for the study programme are
available.
There is 20.508 m2 of premises at IUS campus. IUS optimizes and utilizes all the general
facilities and space for all the programmes. These include:
Classrooms
There are more than 90 various size classrooms with projector and white board in every
room. Special multimedia rooms with speakers and sound effects are available as well. Two
design studios and one CNC laboratory are available, as well as one video hall.
For the purpose of effective implementation of GBE study programme the University
provides the following:
88
Figure 3: GBE Educational Classrooms and Research Labs Resources.
Amphitheaters
GBE program
CLASSROOMS
F (A) 1.10
F (A) 1.11
F (A) 1.23
F (A) 1.24
F (A) 1.26
F (B) 1.9
F (B) 1.35
AMPHITHEATRES
F (A) 1.25
154.11m2
F (A) 2.14
154.11m2
Computer lab. F(A) 1.18
GBE Labs
RDC
BIO LAB. 1
RC G.1
BIO LAB. 2
RC G.2
BIO LAB.3
RC G.3
BIO LAB. 4
RC G.4
89
Five amphitheaters are available for large classes and for public speeches and conferences.
All amphitheaters are steeply graded for maximum viewing and excellent sightlines.
The main amphitheater in the building A is equipped with 280 seats, a lectern, a projector, a
projection screen, a microphone system and a booth for simultaneous interpretation. This
amphitheater is used primarily for conferences and guest lectures. Other two amphitheaters
in the A building feature 160 seats each, as well as lecterns, projectors, projection screens
and whiteboards, while one of them is also equipped with a surround sound audio system.
Two amphitheaters in the B building of IUS campus feature 153 seats each, projectors,
projection screens, lecterns and whiteboards.
Library
The library is open from 8:30 till 17:00 to all students. There is also a reading room so the
students can borrow the books they need for their classes. International University of
Sarajevo Library is located on the third floor of B building. The space currently in use
houses library collection of 8000 books and is constantly growing as the process of acquiring
new books continue. This number will increase to 12000 very soon in 2015. The study room
has 20 places with classroom style furniture and wireless network. Also, 5 computers with
internet connection are on disposal for students to use during the working hours of the
library (8:30 am – 5 pm).
Most of the books in English language are considered as reference books, and they can be
used in the library space only. No photocopying of books is allowed. Books in Turkish
language are available for check-out period of 14 days. Collection of dictionaries, thesaurus
and other encyclopedia type books are placed in the study room and it is also considered
reference collection, and can only be used inside the library.
Library fund is processed and catalogued in a programme that was developed by IUS IT
Department. All the resources are classified in Dewey decimal classification and organized
on the shelves on the same way. Acquirement of the books is in harmonization with the
Faculty programmes. Each semester list of the textbooks needed by professors for their
teaching is submitted to the Library Manager who has the obligation to order books.
Library has access to the following databases in the Table 32.
90
Table 32: IUS Databases Subscription.
No Databases Websites
1 EBSCOHOST http://search.ebscohost.com/
2 JSTOR http://jstor
3 World Bank - GDF Online http://data.worldbank.org/
4 World Bank - WDI Online http://data.worldbank.org/
5 Academia Social Sciences Index (ASOS Index) http://asosindex.com/
6 DART Europe E-Thesis http://www.dart-europe.eu
7 National Databases http://uvt.ulakbim.gov.tr/uvt/
Laboratories and GBE Research Facilities
For technical study programmes there are specialized laboratories that serve their needs for
practical sessions. There are also studios for artistic and media courses.
Figure 4: Laboratories and GBE Research Facilities.
TECHNICAL LABARATORIES
Genetics and Bioengineering Laboratories
GSM and Telecommunication
Laboratory
Computer Laboratory
Electronics Laboratory
Architecture Laboratory
Physics Laboratory and Tutorial
Room
91
GBE programme research laboratory facilities are the part of the Research and Development
Center (RDC) which covers an area of 1,300 square meters. Apart of GBE laboratories the
Center provides laboratories specialized in scientific fields of physics, mechatronics,
electronics, telecommunications and computer sciences.
Genetics and bioengineering laboratories (GBE labs) consists of four parts, covering approx.
500 square meters. These laboratories provide a state of the art technical support for basic
and applied research in different areas of Genetics and Bioengineering.
All of the laboratories have controlled ventilations systems, heating regulation, compressed
high pressure nitrogen gas delivery system. Most of the laboratory countertops, benches and
sinks are made of Epoxy resin material, which is a standard in biochemical and biological
laboratories worldwide.
GBE labs consist of separate rooms, designed, furnished and equipped with latest
instrumentation in order to pave a way for high-quality research at graduate level and
laboratory exercises for undergraduate students. Four laboratories are marked as:
Genetics and Bioengineering Laboratory 1 (GBElab 1),
Genetics and Bioengineering Laboratory 2 (GBElab 2),
Genetics and Bioengineering Laboratory 3 (GBElab 3),
Genetics and Bioengineering Laboratory 4 (GBElab 4),
GBElab 1 is used for tutorials ant practical laboratory techniques demonstrations for various
courses at undergraduate level. It facilitates required working environments to the students to
get familiar with fundamental concepts of GBE, whereas the other three laboratories are
devoted for research purposes at graduate level. Having the largest space, with possibility to
receive up to 30 students with their own bench space, this lab represents the most suitable
place for basic student tutorials. This lab is dedicated to practical education of students and
implementation of exercises in Chemistry, Biochemistry, Microbiology, Molecular biology
and Genetic engineering, among other courses. It contains basic equipment needed for
exercise and demonstrations of main techniques taught in variety of courses, such as
Microbiological cabinet, centrifuges, balances, water bath, pipette aids, seven light
microscopes etc.
92
Other 3 laboratories (GBElab 2, GBElab 3, GBElab 4), are separated and placed in the
section for scientific graduate research. These laboratories offer the opportunity of
conducting experiments on gene expression analysis (PCR and qPCR, gel electrophoresis),
protein analysis (western blot, ChemiDoc image analyzer, Microplate reader), Fluorescence
microscopy facility, Cell culture laboratory, and provides the core facility providing
technologies used in molecular cell biology which investigates DNA, RNA, chromosomes
and protein-protein interactions.
GBE research labs consist of essential facility, mainly used in genetics, molecular biology,
biomedical and plant research and represent a basic necessary instrumentation for
conducting scientific research in these disciplines.
GBElab 2 is a Cell culture laboratory. It contains three separate rooms designed to minimize
possibilities for contamination of culture. Each room is covered with UV lights, and
equipped with fridges, inverted and fluorescence microscope, cooling centrifuge for cell
culture, Laminar flow and CO2 incubator. Although still not achieved, Biosafety level 2
principles are in a process of implementation in this lab.
GBElab 3 provides a core facility for research activity for common techniques in molecular
biology and genetics. Apart of equipment for vertical and horizontal electrophoresis for
DNA, RNA and protein analysis, lab is equipped with PCR and qPCR instruments. Chemi-
Doc imaging system for protein expression and quantification together with a Microplate
reader allow for flexibility in research design and implementation of various advanced
techniques in different research settings.
GBElab 4 Provide facility for deep freezing and storage (liquid nitrogen and -80 freezer)
distilled water production, autoclave and icemate are a part of this lab. Chemicals for buffer
preparations and balance are placed at this laboratory along with the chemical hood. Growth
chamber for plant molecular biology and an incubator with shaker together with instrument
for spectrophotometric analysis.
Those facilities and research platforms provide GBE with a sound starting point, not only to
attract competitive funding and collaborations, but also to deliver the results publishable in
top peer-reviewed scientific journals (Table 33).
93
Instrumentation
Table 33: List of scientific instruments in the GBE labs. No. DEVICE NAME BRAND (company name) IUS inv. Number Location
1 Microscope Leica DM500 LEICA 3066 Lab 1
2 Microscope Leica EZ4 LEICA 3067 Lab 1
3 Microscope Leica EZ4 LEICA 3068 Lab 2
4 UV VIS Spectrophotometer PERKINELMER 3070 Lab 4
5 ph 510 pH/mV Meter EUTECH 3071 Lab 1
6 ICE Flaker machine F200 ICEMATIC D101, F 200 3072 Lab 4
7 Innova Incubator Shaker INNOVA 42 3073 Lab 4
8 Freezer ULUF 450 -80C DAIRE 3069 Lab 4
9 MICROBIOLOGICAL SAFETY CABINET NUVE 3075 Lab 2
10 GROWTH CHAMBER- NUVE NUVE 3076 Lab 4
11 Modular block HEATING BLOCK LAB-LINE™ BRAND 3077 Lab 2
12 PCR MACHINE THERMALCYCLER C1000 BIORAD 3078 Lab 3
13 WIDE MINI SUBPOWER PAC BASIC SUPPLIER for electrophoresis
BIORAD-USA 4279 Lab 3
14 DNA ELECTROPHORESIS, POWER PAC BASIC SUPPLIER
BIORAD-USA 3079 Lab 3
15 PROTEIN ELECTROPHORESIS, MINI PROTEAN 2X TETRA SYSTEM
BIORAD-USA 3080, 3081 Lab 3
16 UV Transilluminator COLE PARMER 3082 Lab 1
17 CENTRIFUGE NF 048 -Centrifuge-Nuve NUVE 3084 Lab 1
18 Autoclave Tuttnauer 3850, 2540 ELV STERILIZER
ELV 3083 Lab 4
19 Vortex mixer 681 VELP SCIENTIFIC 3085 Lab 2
20 Balancer -Acculab-dig klase II ATILON 3086 Lab 1
21 Digital magnetic stirrer 691/4 Nuhiba AUXILAB 3087 Lab 1
22 AB MEDIC 3D Minishaker BIOSAN 3702 Lab 2
23 SONO MEDICAL 4 x Pipettes BioSan -- Lab 1 and 3
24 CHEMICAL HOOD 3088 Lab 4
25 PURE WATER SYSTEM TKA TKA Germany 3089 Lab 4
26 Water Bath Korean company 3703 Lab 2
27 LG – 20C AND 4 C FREEZER LG 3069 Lab 3
28 Vacuum pump (based on water) Assistant -- Lab 2
29 Dryer 1 (lab 1) Analitika BiH 3879 Lab 1
94
CHAPTER 5
STANDARD 5: RESEARCH AND DEVELOPMENT AND
APPRECIATION OF THE ARTS
5.1 OBJECTIVES AND PERSPECTIVES FOR RESEARCH AND DEVELOPMENT
OF THE STUDY PROGRAMME
Standard 5.1 – The objectives and perspectives for research and development defined for the
study programme are consistent with the strategic orientation of the institution.
GBE study programme aims are in the line with the IUS Strategic Plan for Period 2016-
2020.
Programme aims to show capacity to build on current strength of its academic staff and set
new standard in research and graduate education. Main objective is to become a regional
study programme-of-choice and recognized leader in excellence of the research in genetics
and bioengineering related disciplines.
GBE programme aims to become a true leader in Balkan region aiming to make the
difference among similar programmes and institutes in this part of Europe, with ability to
perform the top -scientific but also industry-oriented services. Another important aim is to
increase the circumstances in which teaching and research have occasion to meet, and to
provide rewards not only for better teaching or for better research but for demonstrations of
the integration between teaching and research.
Genetics and Bioengineering laboratories at International University of Sarajevo (IUS) are
the first of this type to be set up in Bosnia and Herzegovina. Within the newly open Research
& Development Centre are equipped with state-of-the-art molecular biology and tissue
culture facilities. They are structurally composed of four research groups:
1) Molecular Biomedicine (MBM)
2) Plant Proteomics and Bioinformatics (PPB)
3) Biomedical Genomics and Personalized Medicine (BGPM)
4) Neuroscience (NS)
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Research Groups:
Plant Proteomics and Bioinformatics
The main research of this group is focusing on DNA-repair mechanisms in plants and its
related proteins. Interactome analysis of photoreactivation, Nucleotide Excision Repair
(NER) and Translesion proteins is our aim to reveal these pathways and bring additional
insight for better understanding of UV induced DNA damage in plants.
Plants due to their sessile lifestyles are exposed to several environmental damaging agents.
The UV radiation is one of the main causes of DNA damage in plants and other organisms.
Plants can minimize the deleterious effects of UV because they retain thick layers of waxy
cutin or submerin on their cell walls, and through intracellular accumulation of chemical
substances such as flavanols or phenolics. Mainly, UV-C/B Radiation has been shown to
directly induce lesions that cause alterations in physiological processes and disruptions in
growth development of plants, whereas UV-A is relatively less efficient in lesion induction
but is able to trigger the production of Reactive Oxygen Species (ROS).
The removal of UV-induced DNA lesions in plants appears to be a coordinated action of the
two main mechanisms, light repair and dark repair. In light repair, the process of
photoreactivation repairs the damage by utilizing the energy derived from visible light to
break the cyclobutane ring structures caused by UV-induced-pyrimidine dimers (adjacent
pyrimidines covalently linked between C-5 and C-6 carbon atoms), this repair is done
through the action of an enzyme called photolyase. Photo repair mutants of Arabidopsis
thaliana revealed the existence of two active photolyases, specific for cyclobutane
pyrimidine dimers or pyrmidone (6±4) photoproducts (covalent linkage between the C-4
position of a pyrimidine to the C-6 position of an adjacent pyrimidine). Photoreactivation
has also been reported in Escherichia coli and yeasts. Humans lack this mechanism of DNA
repair.
The light independent pathway, also known as dark repair, is recruited only in the presence
of high doses of lesions. This pathway, named Nucleotide Excision Repair (NER) is more
general and flexible than photoreactivation because it is able to remove a large spectrum of
structurally unrelated lesions. In NER, the lesion is removed in form of an oligonucleotide
that contains the damaged bases. NER recognizes a wide variety of DNA bases that distort
DNA molecules such as thymine dimers, and bulky groups caused by carcinogens, removes
them, and then fulfils the resulting gap with a newly synthesized DNA strand. This system
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was intensively studied and its components have been identified in humans, bacteria, yeast
and recently in plants.
Group Leader: Assoc. Prof. Dr. Mohamed Ragab Abdel Gawwad, PhD
Group Members:
Jasmin Sutkovic PhD student
Molecular Biomedicine
Molecular Biomedicine Research group focused on the hot topics in fields of molecular
oncology and immunogenetics with a focus on B and T cell malignancies, Subunit vaccine
development, Signal transduction pathways, B-cell receptor, Targeted therapies, Antibody
Engineering. The main scientific interests of the research group led by Prof. Suljagic are
related to the molecular oncology and immunogenetics of chronic hematological
malignancies, particularly chronic myelogenous leukemia (CML), non-Hodkgins lymphjoma
(NHL) and chronic lymphocytic leukemia (CLL). Interference with deregulated signal
transduction pathways and combinatorial targeted therapies related to these disease models
are in the focus of the research.
Primary research interests are particularly focused on the determination of how combination
of thymoquinone and metformin and other new promising candidates affect apoptosis
regulatory mechanism in leukemia and lymphoma cell lines and whether they will have an
impact on therapeutic efficacy in imatinib-resistant CML cells. Effects of metformin on
metabolic activity and survival pathways would eventually provide an added rationale for its
therapeutic use in cancer. Currently, investigators in numerous ongoing clinical trials in
cancer patients are trying to determine whether metformin administered in combination with
chemotherapeutics would be able to improve recurrence-free survival. One of our current
goals is to further improve the efficacy of this promising therapeutic approach by identifying
novel agents and rational combinations of existing agents to target these pathways. We are
also working on the development of a strategy that will selectively reprogram survival
signals transduced through the B cell receptor (BCR) into signals that induce leukemic cell
death. Sustained Akt activation promotes leukemic cell survival by inducing expression of
anti-apoptotic proteins and it is required for proliferation several hematological malignancies
including NHL and CLL. Studies conducted in previous years revealed that these pathways
transduce important survival and proliferation signals in the malignant B cells. These studies
also identified the kinases SYK, PI3K and AKT as key survival molecules downstream of
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the BCR and provided the rationale for clinical testing of agents that target these molecules
in patients with CLL (Suljagic at al. Blood. 2010 Dec 2;116(23):4894-905), (Iacovelli et al.
Blood. (2015) Jan 6. pii: blood-2014-07-587790). Together with our collaborators from
Dr. Francesco Bertoni Lymphoma genomics lab at the Institute of Oncology Research
(IOR), Bellinzona, Switzerland, we are focused on development of a promising drug
candidates and identifying novel approaches for targeting key oncogenic molecules in
leukemia and lymphomas.
Thus, the current and recent research activities of this group that include a team of young
MSc and PhD candidates, are focused on the following topics:
1. Multi-targeting survival pathways in human leukemic cells by combinatorial therapy with
metformin and novel drug candidates.
2. Regulation of expression of tumor suppressors in TKI treated Chronic Myelogenous
Leukemia patients
3. Influence of CpG ODN targeting TLR9 on proliferation of DLBCL cell lines
Group Leader: Assist. Prof. Dr. Mirza Suljagic, DVM, PhD
Group Members:
Una Glamočlija student
, PhD student
LejlaLejla Halilović Halilović, PhD Student
Esma Hasić , MSc Student
Biomedical Genomics and Personalized Medicine
Genomics and pharmacogenomics of Type 2 Diabetes
Understanding the complex genetic and environmental risk factors, their interactions, and
how these lead to the development of Type 2 diabetes mellitus (T2D) and variation in
disease progression, is critical in shaping effective preventive and therapeutic measures
needed to stem this global pandemic of disease. This research project is analyzing specific
candidate genes associated with the T2D related traits in a population cohort from Bosnia
and Herzegovina. As a member of the international consortia we are performing analysis of
large data sets to solve the complex T2D puzzle (Semiz, S., et al, Effects of Melatonin
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Receptor 1B Gene Variation on Glucose Control in Population from Bosnia and
Herzegovina, Experimental and Clinical Endocrinology & Diabetes, 122(6):350-5, 2014;
Dujic, T. et al, Effects of the PPARG gene polymorphisms on markers of obesity and
metabolic syndrome in Bosnian subjects, Journal of Medical Biochemistry, 33 (4), 323-332,
2014).
This research is also attacking questions related to the personalized treatment of T2D, since
emerging evidence has demonstrated that genetic variation might be one of the key
determinants of an individual’s responses to oral antidiabetic drugs (OAD). Importantly,
we performed one of the first studies related to T2D genetics and pharmacogenetics in BH
population. As a collaborator within the International MetGen consortium with over 13,000
patients of different ancestries treated with metformin, Prof. Semiz and her colleagues are
seeking to discover genetic factors that contribute to a poor response to metformin, a first-
line drug used to treat newly diagnosed T2D. Recently, this transnational research effort has
led to very interesting findings suggesting a key role for GLUT2 transporter in regulation of
metformin action, which was published recently in the high impact journals including the
Nature Genetics (Dujic, T. et al, No Association of Variants in Membrane Transporter Genes
with Glycaemic Response to Metformin in Type 2 Diabetes: A MetGen Meta-Analysis,
Clinical Pharmacology & Therapeutics, 101(6):763-772, June 2017; K. Zhou, et al,
Variation in the Glucose Transporter gene GLUT2 (SLC2A2) is associated with glycaemic
response to metformin: A MetGen Study, Nature Genetics 48 (9):1055-1059, Sept. 2016;
Dujic, T., et al, Organic Cation Transporter 1 Variants and Gastrointestinal Side Effects of
Metformin in Patients with Type 2 Diabetes, Diabetic Medicine, 33(4): 511-514, 2016).
Prof. Semiz recently participated in the research study carried out at the Erasmus University
Medical School in Rotterdam, the Netherlands, whose results has been just published in the
Diabetes. This research study has been performed as a part of the recent participation in the
ERAWEB, the European exchange program at the leading medical schools in Europe, which
provided an excellent opportunity for Prof. Semiz to establish this additional collaboration
with Erasmus University and opened the door for the IUS students to perform their master
and PhD studies at this leading research institution in the area of genetics, medicine, and
biotechnology. In line with the ERAWEB focus at the factors influencing the population
health and the development of possible interventions towards health improvement, Prof.
Semiz has joined the team of scientists that focused their efforts to solve the complex puzzle
of diabetes, which is one of the largest global health emergencies. The authors investigated
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124 metabolites in the circulation which correlate with fasting glucose in the Erasmus
Rucphen Family study (n=2,564) and tested the possible causal effect of each metabolite
over glucose and Type 2 diabetes (T2D) by using the Mendelian randomization (MR)
approach. Thus, they employed a framework based on genetic risk scores for plasma
metabolite profiles followed by pathway-based sensitivity analysis, and found that small and
large HDL sub-fractions might be disparate targets to treat hyperglycemia. In addition to this
paper published in the Diabetes, results of Prof. Semiz’s research at the Erasmus University
Medical School in Rotterdam have been also published in the Metabolomics journal earlier
this year. Importantly, here the authors developed a novel prediction model for T2D by
conducting a 14-years prospective study with large sample size and wide metabolite
spectrum. Thus, these results contribute to the growing efforts in metabolomics to predict
Type 2 diabetes development and optimize its treatment.
Group Leader: Prof. Dr. Sabina Semiz, PhD
Group Members:
Genomics and Pharmacogenomics of Type 2 Diabetes
Haris Lokvancic, MSc student
Bioethics in Genomics and Personalized Medicine
Amina Agovic
Azra Karic
Neuroscience Research Group
This research group is interested in trafficking and cell membrane targeting
of neurotransmitter receptors especially GABA (A) receptors. In addition, since Dr. Arslan is
also interested in molecular basis of behavior, she had established a project addressing an
imaging genetics approach for memory paradigms of executive control mechanisms.
Imaging genetics is relatively new research trend that aims to elucidate the interaction of
genotype, phenotype and environment in the context of brain and behavior (Ayla
Arslan (2015) Genes, Brains and Behavior: Imaging Genetics for Neuropsychiatric
Disorders, J Neuropsychiatry Clin Neurosci. Spring; 27(2):81-92). Previously, Dr. Arslan
and her undergraduate student adapted think /no think paradigm to work on memory
suppression which is thought to be mediated by frontal cortex with the use of functional
brain imaging. Considering the known effect of certain single nucleotide polymorphisms
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(SNPs) on the executive functions of frontal cortex, Dr. Arslan aims to find out genetic
effects that might contribute to individual differences in the performance of memory
suppression.
Group Leader: Assoc. Prof. Dr. Ayla Arslan, PhD
Group Members:
Tugce Kir , MSc student
For more details you can visit GBE Research groups at: http://research.ius.edu.ba/research-
groups
1. Genetics and Bioengineering Laboratories:
Genetics and Bioengineering laboratories are located at the IUS Research and Development
Center (RCD). This modern research center has been established to promote the work of IUS
researchers as well as students within the first, second, and third cycle of their studies.
Furthermore, the aim of RCD is to provide good working conditions for academic staff and
students in their projects, to establish communication and information sharing as well as
developing new projects with other research centers, institutions and companies in Bosnia
and Herzegovina as well as promoting international collaboration.
The manager of the RDC is Assist. Prof. Dr. Tarik Namas, PhD and the vice manager of
RDC is Jasmin Sutkovic, MSc.
Job duties of the RDC manager include, but are not limited to the following:
- Managing the activities related to scientific research
- Working on the development and modernization of curricula and programmes
- Distributing tasks in the department
- Giving instructions to perform specific tasks in the domain of scientific research
- Prepare the annual and periodic work programmes and plans for the area of scientific
research
-Cooperate with universities and other legal entities engaged in scientific research work and
higher education
-Propose to the board forms of the inter-cantonal, inter-entity, and international cooperation
in the field of scientific research and higher education
-Inform the Minister about the situation and problems in the field of higher education,
science and scientific research, and propose a way to ensure the full implementation of
established policies and enforcement of laws, regulations and by-laws in this field.
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For his/her work the RDC manager is responsible to the Rector and Vice rector for
International Cooperation and Research.
Vice manager of RDC helps and provides technical and managerial support to the RDC
manager when required.
GBE programme team of professors and researchers have a strong commitment of providing
high-quality training for students at undergraduate level, and increasing the research quality
standards at graduate levels at IUS. For undergraduate students GBE offer laboratory
tutorials and exercises for several different courses (biochemistry I and II, molecular biology
I and II, genetics I and II, cell culture, microbiology etc.). At the postgraduate level the
programme provides training in genetics, bioengineering and molecular biology and
incorporating them, according to student’s interest, in developing projects of one of GBE
research groups. Leaders of GBE research groups represent young but experienced team of
PhD holders with biomedical and agricultural background with excellent publication track-
record. They possess required research expertise and know-how, gained through their
scientific doctoral and post-doctoral projects conducted at the famous European universities,
US and Canadian centers for genetic engineering and biotechnology.
Several milestones have been accomplished in recent years at GBE programme.
Programme`s undergraduate curriculum has been already recognized by well-known
European institutions, such as Erasmus University Rotterdam, Max-Plank institute Berlin,
Justus-Liebig University Giessen, Istanbul Technical University Turkey, etc., where many of
our students received MSc. programme scholarships for their future academic and
professional progress.
Recent significant investment at GBE programme resulted in purchasing of state-of the-art
equipment for GBE laboratories. Thanks to this, preliminary results obtained by Molecular
Biomedicine research group led to winning a highly competitive research grant (EUR
50.000) in 2015 provided by International Centre for Genetic Engineering and
Biotechnology (ICGEB).
GBE academic staff is bringing not only expertise and research experience but also their
professional networks that will have huge impact in the development of the study
programme.
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Current international collaboration efforts with different European and local collaborators
are already producing results measurable in number of joint applications for financing,
obtained research grants and increasing number of publications.
Further programme development will be obtained by strengthening relationships with local
collaborators for projects related to biomedicine. IUS have already signed contracts with
University Clinical Centre, for patient sample deliveries for research performed on primary
cells as a part of multi-collaborative studies. Similar contracts and/or MOU are planned to be
established with and regional industry stakeholders. This would considerably improve the
link for market accessibility for GBE graduates, but it would also bring opportunities for
development of projects in translational, industry-oriented research.
All aspects of GBE academic staff research activities should lead to an improvement in
teaching quality. Linking teaching and research is central to the institutional mission and
strategies and plans are made to insure this. Some of these strategies include:
Permanent education of GBE staff to teach, focusing on the construction of knowledge
by students rather than the imparting of knowledge by instructors,
Developing strategies across all disciplines that emphasize the uncertainty of the task
and strategies within the scientific disciplines,
Ensuring that students experience the process of scientific productivity itself, not just
demonstration of data obtained from such a process.
Infrastructural means obtained through research projects are also used in teaching activities.
There are several aspects which demonstrate integration of research done by GBE research
groups and teaching. Research activities contribute to updating the curriculum, positively
affecting the most of specialized courses such as OMICS Technologies, Advanced Cell
Biology and other courses. Moreover, since the courses are related to research profiles of
the teachers, the relationship is more than favorable. Additionally, GBE curriculum is largely
designed on inquiry-based activities, rather than on the acquisition of subject content only
and the experiences of staff in processes of inquiry are highly integrated into the student
learning activities. The scope for two-way interactions between research and teaching is
deliberately exploited.
5.2 SCIENTIFIC STAFF RESEARCH ACTIVITIES
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Standard 5.2 – Scientific staff is involved in the institution’s research activities and/or activities
regarding the development and appreciation of arts. The interaction between research and
teaching is ensured.
All academic staff members of the GBE programme are actively involved in scientific
research of various disciplines. Together with collaborators from their professional networks,
they are engaged in numerous projects performed by four GBE research groups. Besides of
their ongoing research, they are actively involved in expanding their professional networks
through international conference participations, COST Action engagements, ERASMUS
Academic Staff visits and Short term scientific missions. Importantly, some of main
activities are directed into development of collaborative projects applications for funding at
different international research agencies. More on individual GBE staff research activities
and interests of research groups is elaborated further in this chapter.
Assoc. Prof. Dr. Mohamed Ragab Abdel Gawwad is the leader of Plant Proteomics &
Bioinformatics Research group. Main research of this group is focusing on DNA-Repair
Mechanism in Plants and its related proteins. Interactome analysis of photoreactivation,
Nucleotide Excision Repair (NER) and Translation proteins aim to reveal these pathways
and bring additional insight for better understanding of UV induced DNA damage in
plants. His recent research topics with MSc and PhD candidates of the group are:
Y2H Protein - Protein Interaction of photoreactivation and Nucleotide Excision
Repair (NER) Proteins in Arabidopsis thaliana.
Global Interactome analysis of photoreactivation Proteins in Arabidopsis thaliana.
Global Interactome analysis of Nucleotide Excision Repair (NER) Proteins
in Arabidopsis thaliana.
3-D structure prediction and validation of photoreactivation and Nucleotide Excision
Repair (NER) Proteins in Arabidopsis thaliana.
Prof. Dr. Sabina Semiz is leading the Biomedical Genomics research group, with the major
research interests in the area of genomics of Type 2 diabetes, pharmacogenomics,
personalized medicine, and related bioethical perspectives.
Prof. Dr. Semiz earned the PhD degree in pharmacology in 2001 at the Faculty of
Pharmaceutical Sciences, the University of British Columbia, in Vancouver, B.C., Canada,
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and completed her postdoctoral work at the Programme in Molecular Medicine, University
of Massachusetts Medical School, in Worcester, MA, USA. During this period, Dr. Semiz
collaborated with Dr. Craig Mello, Nobel Prize laureate in 2006, in the area of siRNA-
induced gene silencing, and Dr. Michael Czech, the American Diabetes Association award
laureate in the area of Type 2 diabetes. Following this, she worked as a principal
investigator in Cytrx Corporation, Worcester, MA, USA, where she lead the Target Biology
group, and in Epic Therapeutics, Inc., a Wholly Owned Subsidiary of Baxter Healthcare
Corporation, Norwood, MA, USA, where she worked in development of PROMAXX
Microspheres for the in vivo gene therapy. Dr. Semiz became Assistant Professor at Faculty
of Pharmacy, University of Sarajevo, in 2007, rising to the rank of Associate Professor in
2012. In 2015, she moved to the International University of Sarajevo, as an Associate
Professor at the Genetics and Bioengineering Programme.
Prof. Dr. Semiz has led five research projects within the last five years. Currently, she is
leading two projects in the area of pharmacogenomics of Type 2 diabetes, as well as
biomedical and ethical perspectives related to genetic testing and personalized medicine. She
actively participates as a member of consortium in several international projects, including
COST Project of European Commission, the International Metformin Genetics (MetGen)
Consortium, and the Pharmacogenetics for Every Nation Initiative (PGENI) project. Dr.
Semiz is currently acting as Review Panel Expert in the COST Action Proposal Submission,
Evaluation, Selection and Approval procedure, BA Medical and Health Sciences, and an
Expert in the Evaluation panel for the Horizon 2020 Programme, an international expert in
the field of Medical sciences within the Ministry of education and sport Montenegro, and an
expert within the Agency for Development of Higher Education and Quality Assurance in
Bosnia and Herzegovina. From December 2014. Prof. Dr. Semiz has been appointed as the
Head of the Unit of the UNESCO Chair in Bioethics for Bosnia and Herzegovina. She is an
author of more than 90 scientific publications, published in peer-reviewed journals, as well
as more than 130 scientific abstracts presented at the international and national conferences.
Asst. Prof. Dr. Mirza Suljagic is a leader of the Molecular biomedicine research group
(MBM) at IUS. He holds a PhD degree in molecular genetics from Scuola Internazionale
Superiore di Studi Avanzati (SISSA), Trieste, Italy. His 3 years post-doc research was
performed at EMBL Campus- Monterotondo, Italy at the ICGEB - Molecular Hematology
group, led by Dr. Dimitar Efremov. His primary research interests are chronic hematologic
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neoplasms, particularly investigation of the cellular and molecular mechanisms of chronic
lymphocytic and myeloid leukemias governing the development and progression of the
disease and development of novel targeted therapies. Additionally, Dr. Suljagic is interested
in other areas related to hematological and immunological disorders, including B-cell
lymphomas as well as in molecular targets of survival pathways in breast and ovarian
cancers. He has authored or co-authored several articles in peer-reviewed, high IF
international journals such as Blood and Leukemia. He has received grants from prestigious
international and national funding bodies, including the grants from the International Center
from Genetics and Bioengineering and the Italian Association for Cancer Research. He is
also engaged in a review and evaluation of the COST Action Proposal Submission, selection,
approval procedure, and an Expert in the Evaluation panel for the Horizon 2020 Programme
projects.
His current and recent research activities, together with a team of young MSc and PhD
candidates, include following topics:
1. Multi-targeting survival pathways in human leukemic cells by combinatorial therapy with
metformin and thymoquinone
2. Regulation of expression of tumor suppressors in TKI treated Chronic Myelogenous
Leukemia patients
3. Influence of CpG ODN targeting TLR9 on proliferation of DLBCL cell lines
4. Characterization of a Brucella spp. unlipidated OMP16 expression in transgenic plants
Assoc. Prof. Dr. Ayla Arslan was appointed to IUS, in late 2014. Previously, she had been
trained as a molecular neurobiologist at the University of Heidelberg, Germany, where she
worked on the membrane targeting of GABA (A) receptor subtypes with molecular and cell
biology techniques, which led to her doctoral work. Thus, a few years of her research were
spent on the investigation of molecular aspects of neurotransmitter receptors. Her interests
are in the field of neurobiology of human behavior targeting a research with behavioral
interface. Thus, in addition to her research concerning molecular neurobiology, she had also
established a project addressing an imaging genetics approach for memory paradigms of
executive control mechanisms. Imaging genetics is relatively new research trend that aims to
elucidate the interaction of genotype, phenotype and environment in the context of brain and
behavior (Ayla Arslan (2015) Genes, Brains and Behavior: Imaging Genetics for
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Neuropsychiatric Disorders, J Neuropsychiatry Clin Neurosci. Spring; 27(2):81-92).
Previously, Dr. Arslan and her undergraduate student adapted think /no think paradigm to
work on memory suppression which is thought to be mediated by frontal cortex with the use
of functional brain imaging. Considering the known effect of certain single nucleotide
polymorphisms (SNPs) on the executive functions of frontal cortex, Dr. Arslan aims to find
out genetic effects that might contribute to individual differences in the performance of
memory suppression, in the near future. She has international multidisciplinary connections
to achieve this task which requires interdisciplinary work. In addition to research perspective
described above Dr. Arslan has two Masters students and several undergraduate students for
mentorship. Dr. Ayla Arslan is also the member of editorial board of Journal of Integrative
Neuroscience (SCIE) and the chair of organizing committee of the International Congress on
Applied Biological Sciences, which will take place in the IUS, between 27-31 May 2016
(http://www.icabs.gen.tr/)
Mr. Jasmin Šutkovic, MSc, is a senior assistant at the Genetic and Bioengineering
department, at the International University of Sarajevo. His current research interests are
Genetic characterization of autochthonous varieties (onion and pepper) in Bosnia and
Herzegovina, particularly working on SSR and AFLP marker applications. Furthermore, he
is working on the stress screening of the autochthonous varieties, mainly measuring stress
indicators such as proline, CAT, POD, SOD, PPO, and Chlorophyll a and b. In this regard he
has received a grant from the United National Development programme. Additionally,
Jasmin is working in other areas related to Bioinformatics, genome analysis, in silico
epigenetics, protein structural and functional annotations, where he has authored or co-
authored several articles in peer-reviewed journals. In addition, he is working on metabolic
syndrome, particularly screening the metabolic factors in Bosnian population, which may be
correlated with metabolic syndrome. Through this research he has published two research
papers in international journals. His current and recent research activities, include following
topics:
1. Genetic characterization and stress analysis screens of autochthonous varieties (onion and
pepper) in BIH
2. In silico functional annotation of DNA repair proteins in Arabidopsis thaliana
3. Characterization of a Brucella spp. unlipidated OMP16 expression in transgenic plants
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4. Single Cell Gel Electrophoresis assay of stress induced autochthonous pepper, for the
detection of DNA damage.
Besides his academic responsibility he is also involved in the management activities in RDC,
mainly involved in infrastructure development projects in the research laboratories at IUS
and laboratory management.
5.3 STUDENT INTEGRATION INTO RESEARCH PROJECTS
Standard 5.3 - To the extent required by the type of study programme, students will be integrated
into research projects.
The IUS academic staff is leading several research projects, in which students from all study
cycles are actively involved. Within the following list of the activities carried with the
corresponding research groups at the Genetics and Bioengineering programme, the
interaction between research and teaching is insured and students are actively engaged to
learn and appreciate scientific research. Students are encouraged to learn how to solve
scientific problems and develop the team-building abilities that are necessary for the
successful genetics and bioengineering career.
1. Engagement of students in research projects of Plant Proteomics & Bioinformatics
Group
PhD candidate
Jasmin Sutkovic
Title: New insights to DNA repair proteins in Arabidopsis thaliana.
The aim of this project is to reveal the interactome analysis of photoreactivation and
nucleotide excision repair processes in plants. Interactome analysis will permit us to assign
a new functions and better understanding of whole DNA repair mechanisms in plants.
MSc. candidates:
1. Aida Hamzi Kaljanac
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Title: Interactome analysis and docking site prediction of AtXPF/UVH1, AtXPG/UVH3,
AtXPD/UVH6, PHR1/UVR2, UVR3, ATERCC1/UVR7 in Arabidopsis thaliana.
Aims: To analyses the interactome, investigate the role of mentioned proteins and annotate
potential novel roles.
2. Aida Maric
Title: Interactome analysis and docking site prediction of MSH proteins in Arabidopsis
thaliana
Aims: To analyses the interactome, investigate the role of mentioned proteins and annotate
potential novel roles.
First cycle graduation projects:
Asiye Sinaci- Interactome analysis and docking site prediction of RAD52 protein in
Arabidopsis thaliana.
Mahamat Baraka Adam - Interactome analysis and docking site prediction of POL2 protein
in Arabidopsis thaliana.
Mervisa Alihodzic - Interactome analysis and docking site prediction of CEN2 protein in
Arabidopsis thaliana.
2. Engagement of students in research projects of Molecular Biomedicine Group:
PhD candidate:
Una Glamoclija
Title: Multi-targeting survival pathways in human leukemic cells by combinatorial therapy
with metformin and thymoquinone
Aims: This project is focused on the determination of how combination of thymoquinone
(TQ) and metformin affects apoptosis regulatory mechanism in leukemia and lymphoma cell
lines and whether they will have an impact on therapeutic efficacy in imatinib-resistant
cultured cells. The efficacy of these drugs will be also evaluated in vivo, in leukemia
xenograft models of immune deficient mice in order to investigate the potential of
metformin/TQ treatment for sensitizing imatinib resistant leukemic cells.
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MSc. candidates:
1. Ines Djulalic
Title: Evaluation of thymoquinone effects on apoptosis of chronic myelogenous leukemia
derived cell line (K562).
Aims: To evaluate the efficacy of propagation of apoptosis utilizing a known phytochemical
(Thymoquinone) and characterize the expression of apoptosis regulatory proteins
2. Selma Hrnjic
Title: Influence of CpG ODN targeting TLR9 on proliferation of Diffuse Large B Cell
Lymphoma cells.
Aims: To optimize a proliferation assay that could lead to better understanding of molecules
engaged in regulation of proliferation in DLBCL cell lines.
3. Riad Hajdarevic
Title: Combinatorial effects of metformin and thymoquinone on apoptosis regulatory
genes in leukemic cells
Aim: To explore and evaluate the effects of combinatorial therapy that could lead to better
therapeutic opportunities by exploring molecules engaged in regulation of apoptosis and
proliferation in human leukemic cell lines, sensitive or resistant to current treatment.
First cycle graduation projects:
Doaa Temraz - Junk DNA and non-coding RNA.
Esma Hasic - Therapeutic Role of Curcumin in Pancreatic Cancer Cells.
Maida Ljubijankic - Advances and Challenges in Cancer Immunotherapy.
3. Engagement of students in research projects of Biomedical Genomics and
Personalized Medicine:
MSc. candidates:
1. Lejla Halilovic
Title: Analysis of IRS1 genetic variations in Type 2 diabetic patients from Bosnia and
Herzegovina
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Aims: To analyses the frequency of specific IRS1 polymorphisms and their possible
association with the T2D-related traits in population from Bosnia and Herzegovina
2. Nur Hamad
Title: Genetic variation of ADRA2A in Type 2 diabetes
Aims: To analyses the frequency of specific ADRA2A variants and their possible association
with the T2D-related traits in population from Bosnia and Herzegovina
3. Camil Durakovic
Title: Genetic testing and personalized medicine: Biomedical and ethical perspectives in
Bosnia and Herzegovina
Aim: To explore and summarize the opinions of biomedical students in Bosnia and
Herzegovina regarding genetic testing, pharmacogenomics, and personalized medicine.
First cycle graduation projects:
1. Cansel Albayrak – Metabolomics: New insights into Type 2 diabetes mellitus.
2. Maryam Wehbeh – Novel “OMICS” technologies in breast cancer diagnosis.
5.4 ORGANIZATIONAL AND STRUCTURAL FRAMEWORK CONDITIONS
W.R.T. R&D
Standard 5.4 - The planned organizational and structural framework conditions are sufficient
and suitable to implement the scheduled research activities
Genetics and Bioengineering is one of the programmes at the Faculty of Engineering and
Natural Sciences. Programme Coordinator is Assoc. Prof. Dr. Mohamed Ragab Abdel
Gawwad, whose responsibility is, in addition to coordinating the teaching process at the
Department, to monitor the scientific research activities and professional development of the
academic staff. The Programme Coordinator is accountable to the Dean of the Faculty of
Engineering and Natural Sciences.
For more details you can visit GBE Research groups at: http://research.ius.edu.ba/research-
groups
1. Genetics and Bioengineering Laboratories:
Genetics and Bioengineering laboratories are located at the IUS Research and Development
Center (RCD). This modern research center has been established to promote the work of IUS
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researchers as well as students within the first, second, and third cycle of their studies.
Furthermore, the aim of RCD is to provide good working conditions for academic staff and
students in their projects, to establish communication and information sharing as well as
developing new projects with other research centers, institutions and companies in Bosnia
and Herzegovina as well as promoting international collaboration.
The manager of the RDC is Assist. Prof. Dr. Tarik Namas, PhD and the vice manager of
RDC is Jasmin Sutkovic, MSc.
Job duties of the RDC manager include, but are not limited to the following:
- Managing the activities related to scientific research
- Working on the development and modernization of curricula and programmes
- Distributing tasks in the department
- Giving instructions to perform specific tasks in the domain of scientific research
- Prepare the annual and periodic work programmes and plans for the area of scientific
research
-Cooperate with universities and other legal entities engaged in scientific research work and
higher education
-Propose to the board forms of the inter-cantonal, inter-entity, and international cooperation
in the field of scientific research and higher education
-Inform the Minister about the situation and problems in the field of higher education,
science and scientific research, and propose a way to ensure the full implementation of
established policies and enforcement of laws, regulations and by-laws in this field.
For his/her work the RDC manager is responsible to the Rector and Vice rector for
International Cooperation and Research.
Vice manager of RDC helps and provides technical and managerial support to the RDC
manager when required.
Genetics and bioengineering laboratories consist of four parts. GBE Laboratory I is used for
the undergraduate studies, whereas the other three laboratories are devoted for the research
projects at the graduate (PhD and Master) level. The GBE laboratories offer to the students
the opportunity to conduct experiments in gene and protein engineering, microbial analysis,
cell culture, and provide the core technologies used in molecular cell biology which
investigates DNA, RNA, chromosomes, proteins, genetic variants, and certain metabolites in
the cell. Every student is provided her/his own working space, chemicals and place to store
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her/his chemicals and samples. The lab is equipped with the essential devices for the analysis
of the results of their experiments.
CHAPTER 6
STANDARD 6: NATIONAL AND INTERNATIONAL COOPERATION
6.1 NATIONAL AND/OR INTERNATIONAL COOPERATION
Standard 6.1 - In line with the study programme’s profile, national and/or international
cooperation projects with higher education institutions or institutions outside higher education
sector have been established.
Through its International Relations Office and Project Management Office, IUS is
committed to support national and international cooperation with higher education
institutions or institutions outside higher education sector. For international cooperation the
focus countries and regions are Turkey, Balkan countries, and Europe, with aspirations to
extend cooperation to USA, Middle East and Asia.
To allow optimum participation of the International University of Sarajevo in knowledge
sharing and in prominent and often cross-border projects, the Genetics and Bioengineering
Programme puts a great effort in national, European and international cooperation. All
Memorandums of understandings are established in University level according to the needs
of the study programme. The national and international cooperation of Genetics and
Bioengineering Programme contains four categories:
Exchange programmes.
National cooperation with universities and institutes in BiH.
Cooperation with international universities.
Project supported by European and international organizations.
Exchange programmes
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GBE Programmes design is being constantly developed according to the similar study
programmes from the region, Europe and USA which permits freely exchange of students in
many exchange programmes. Genetics and Bioengineering department is involved in various
international agreements to increase student and staff mobility. These agreements are
composed of Erasmus Bilateral Agreements and Mevlana Exchange Programme.
ERASMUS+ COOPERATION:
Memorandum of understanding agreements involve 52 universities from various countries
including Australia, Croatia, Cyprus, Czech Republic, France, Germany, Libya, Pakistan,
Poland, Serbia, Slovenia, Turkey, Italy, Latvia, Romania, Macedonia, Malaysia, Montenegro
and USA. At present GBE is involved in the following departmental ERASMUS
programmes (Table 34).
Table 34: ERASMUS+ Exchange Programme Agreements with universities in Romania
Name of the Institution /Country Academic Fields
Alexandru Ioan Cuza University
Web address: www.uaic.ro
Biological and Related Sciences
The “Ion Ionescu De La Brad“ University of
Agricultural Sciences and Veterinary
Medicine of IASI/Romania
Web address: www.uaiasi.ro
Biological and Related Sciences
West University of Timisoara /Romania
Web address: www.uvt.ro
Biological and Related Studies
Erasmus+ Exchange programme agreements are available online14
.
Mevlana Exchange Programme
Mevlana Exchange Programme is a specific programme which aims the exchange of
students and academic staff between the Turkish higher education institutions and higher
14 International University of Sarajevo. International Relations Office Erasmus Agreements. Retrieved from http://iro.ius.edu.ba/erasmus-agreements.
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education institutions in other countries. GBE department is involved in this programme and
the mobility of students achieved as following:
Mevlana Exchange Programme to IUS from Turkey 2015/16:
1. Derya Gul Sagci MSc student
Mevlana Exchange Programme to Eskisehir Osmangazi University 2015/16:
1. Amra Mahmutbegović BSc Student
2. Edin Bušatlija BSc Student
APPLICATIONS for Mevlana Exchange Programme 2016/17:
3. Aiša Buko BSc Student
4. Azra Drače BSc Student
5. Mirela Musić BSc Student
Mevlana agreements are available online15
.
National cooperation with universities and institutes in BiH.
Genetics and Bioengineering Programme is in connection with national universities and
institutes in Bosnia & Herzegovina. To promote and develop research according to mission
and vision of International University of Sarajevo, Faculty of Engineering and Natural
Sciences signed many agreements with Sarajevo University (Faculty of Agriculture, Faculty
of Pharmacy and Institute for Genetic Engineering and Biotechnology INGEB). Through
these agreements, the mobility of researchers and students was achieved.
Cooperation with international universities
The university has developed relatively a wide net of institutions that signed memorandums
of understanding. The list of these institutions is available online16
.
Projects supported by the European and international organizations.
This part will be highlighted in Co-operation projects.
15 International University of Sarajevo. International Relations Office Mevlana Agreements. Retrieved from http://iro.ius.edu.ba/mevlana-
agreements. 16 International University of Sarajevo. International Relations Office. Retrieved from http://iro.ius.edu.ba/protocols.
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6.2 CO-OPERATION PROJECTS
Standard 6.2 – The cooperation projects encourage and support the advancement of the study
programme and the mobility of students and staff.
Academic staff of GBE programme are actively involved in scientific research of various
disciplines. Together with collaborators from their professional networks, they are engaged
in numerous projects performed by four GBE research groups. For many of our research and
collaboration activities we receive support from regional and European authorities. The
knowledge gained through these activities directly benefits national and regional projects.
Besides of their ongoing research, they are actively involved in expanding their professional
networks through international conference participations, European Cooperation in Science
and Technology COST Action. GBE programme Coordinator Assoc. Prof. Dr. Mohamed
Ragab ABDEL GAWWAD is participating in four COST Actions as following:
FA0905: Mineral-improved crop production for healthy food and feed.
FA1103: Endophytes in Biotechnology and Agriculture.
FA1106: An integrated systems approach to determine the developmental mechanisms
controlling fleshy fruit quality in tomato and grapevine.
CA15124: A new Network of European BioImage Analysts to advance life science imaging
(NEUBIAS).
Recently GBE programme Molecular Biomedicine research group received competitive
research grant (EUR 50.000) in 2015 provided by International Center for Genetic
Engineering and Biotechnology (ICGEB) Italy.
In the near future, GBE aims to increase the number of international cooperation to promote
student and staff mobility.
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REFERENCES
[1] Agency for Development of Higher Education and Quality Assurance. Agency for
Development of Higher Education and Quality Assurance of Bosnia and Herzegovina, 2009.
Web. 1 Jun. 2016.
[2] The University was established pursuant to the following administrative acts:
a) Decision by Sarajevo Canton Government, No.: 02-05-10404-10/03 dated 18 June
2003, published in the “Official Gazette of Sarajevo Canton”, issue No. 14/03 of 19
June 2003, whereby the Foundation for Development of Education was granted
approval to establish the International University of Sarajevo as an institution.
b) Decision by the Ministry of Education and Science of Sarajevo Canton, No. 11-38-
3509 of 16 March 2003, ruling that the conditions for the establishment of the
International University of Sarajevo as an institution conferred by law had been met
and that the Founder of the University shall be the Foundation for the Development
of Education.
c) Decision of the Ministry of Education and Science of Sarajevo Canton No. 11-01-
38 of 23 June 2004 on the conditions for the commencement of the operations of the
International University of Sarajevo, in which it was established that all stipulated
conditions for the commencement of operations had been met in the 2004/2005
academic year.
d) IUS Statute referred in this Report was adopted on 10 July 2012
e) On 18 September 2014 the Ministry for Education, Science and Youth of the
Canton Sarajevo approved the Institutional Accreditation of the International
University of Sarajevo No. 11-05-38-948-5/14, meaning that IUS has become an
accredited higher education institution. In 2014 International University of Sarajevo
was accredited with the Agency for the Development of Higher Education and
Quality Assurance and is listed in the state register of accredited higher education
institutions in Bosnia & Herzegovina, Decision on the Entry into the State Register of
Accredited Higher Education Institutions, No. 05-33-1-199-11/14.
[3] Enrolment starts as of AY 2016/17.
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[4] The internal rules respective to the internship (work placement) are currently in the
process of changes in a manner that from the beginning AY 2016/2017 the curricula will be
altered in so that students who successfully complete their internship will be awarded with 6
ECTS.
[5] The characteristic of all IUS bachelor study programmes is that required and elective
courses are grouped into four groups, defined as follows:
I University courses – are required courses for all students of the first year, first cycle study
programme.
University courses are established with the aim to:
a) Provide students with basic knowledge and methods for independent and critical
decision-making;
b) Offer a new approach and a deep understanding of the nature of social movements;
c) Provide interdisciplinary understanding of the “state” in certain areas that will help
further choice of courses in the study; and
d) Ensure the harmonization of the level of knowledge for all students IUS.
In addition, they are meant to encourage the formation of a general university atmosphere in
which the pre-defined levels of certain common basis of knowledge facilitates structuring of
easier education in the senior years of study.
II Faculty courses – are required and elective courses, which are defined by the faculty.
These courses contain the fundamentals of knowledge, which are common to all study
programmes in each faculty.
III Programme courses – are required and elective courses, which are defined by the study
programme to achieve the intended programme learning outcomes.
IV Free elective courses – are all undergraduate courses at IUS, excluding the University
courses, Faculty courses and Programme courses (defined for each programme), which
aims to give opportunity to students to freely choose a number of courses from other study
programmes
[6] First Study Cycle Genetics and Bioengineering Curricula. (2015). Retrieved from
http://gbe.ius.edu.ba/bs/i-study-cycle-gbe-curriculum.
[7] Second Study Cycle Genetics and Bioengineering Curricula. (2015). Retrieved from
http://gbe.ius.edu.ba/bs/ii-study-cycle-gbe-curriculum.
[8] Model of standardized workload of student in the preparation of curricula, has been
recommended and officially issued by the European Commission (ECTS User's Guide,
Brussels, 6 February 2009, Chapter 4, p. 17 and 18, ISBN: 978-92-79-09728-7
[9] International University of Sarajevo. (2016). Retrieved from http://www.ius.edu.ba/.
[10] International University of Sarajevo. Academic Calendar. (2016). Retrieved from
http://www.ius.edu.ba/academic-calendar-2015-2016.
[11] “The Student is deemed to be proficient in English language if he/she:
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Submits the valid scores in the following international exams:
IBT Internet-Based TOEFL (minimum 70), (in Turkey, taken only from University-run test
centers*)
IELTS Academic (minimum 6.0) (in Turkey, taken only from British Council test centers*)
Upon receipt of the "ORIGINAL" score sheet from TOEFL/IELTS, student will submit the
score sheet "IN PERSON" to the ELS Director for review and interview. Test-taker copy
cannot be accepted as proof of language proficiency. The validity period for these scores is
as stated on the Score Sheet.
* TOEFL/IELTS Test scores obtained from any other test center (Private Language Courses
or similar) will not be admissible as proof of language proficiency at the International
University of Sarajevo.
Students who hold FCE certificate with a minimum grade B2 are exempt from ELS
Placement exam and can directly sit for ELS Proficiency exam.
Submits a high school BA/MA diplomas from native English-speaking countries;
Proof of having successfully acquired minimum 60 ECTS at an English medium university,
obtained no longer than two (2) academic years before the date of application at IUS
(supported by transcript and other relevant documents).
The following high-school diploma holders from Bosnia and Herzegovina and other
countries will be exempt from ELS Proficiency Exam. These are English medium programs
and their diplomas are internationally recognized:
AICE diploma : Cambridge Advanced International Certificate of Education
IB diploma : International Baccalaureate
Pass Proficiency Exam organized by IUS at the beginning of academic year.”
[12] Statute of the International University of Sarajevo, Revised Version, IUS- SENAT 11-
2255/2013 (Article 78/7); Study Rules for the Second Study Cycle, No. IUS-SENAT-11-
2488-2/2014.
[13] In Bosnia and Herzegovina, AICE / IB programs are currently offered in Bošnjačka
gimnazija and Druga gimnazija.
[14] International University of Sarajevo. (2016). Retrieved from http://www.ius.edu.ba/.
[15] International University of Sarajevo. International Relations Office Erasmus
Agreements. Retrieved from http://iro.ius.edu.ba/erasmus-agreements.
[16] International University of Sarajevo. International Relations Office Mevlana
Agreements. Retrieved from http://iro.ius.edu.ba/mevlana-agreements.
[17] International University of Sarajevo. International Relations Office. Retrieved from
http://iro.ius.edu.ba/protocols.