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Running Head: BI AND ANALYTICS 1
Case Study #3: Business Intelligence and Analytics
Yvonne DiMatteo
Notre Dame de Namur University
BUS4200 Enterprise Information Management Systems
July 2017
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Case Study #3: Business Intelligence and Analytics
Problem Statement
“The use of business intelligence in the Cloud is a game changer” (Heisterberg & Verma,
2014, p. 135). Using business intelligence (BI) in the Cloud enables organizations to have faster
access to important decision-making information without the need to invest heavily in
information technology (IT) infrastructure (Heisterberg & Verma, 2014). However, challenges
accompany the migration from on premise BI to cloud BI. According to Heisterberg and Verma
(2014), IT leaders should carefully consider the trustworthiness of data, if a hybrid model is an
appropriate solution, security levels cloud-based BI solutions, building the right infrastructure,
and facilitating change management when evaluating cloud BI.
Challenges & Opportunities
Information is powerful. Information tells organizations how their current operations are
performing and information analytics help business leaders estimate and strategize how future
operations might perform (Baltzan, 2015). Organizations refer to the collection and analyzing of
information as Business intelligence (BI) (Baltzan, 2015). Organizations collect information
from multiple sources including, but not limited to suppliers, customers, competitors, partners,
and industries and analyze patterns and trends for strategic decision-making (Baltzan, 2015).
Baltzan (2015) categorizes information into two types, transactional and analytical. (See
figure 1.) Transactional information includes all “information contained within a single business
process” and the primary purpose of transactional information “is to support daily operational
tasks” (Baltzan, 2015, p. 85). For example, operations managers might use transactional
information such as sales reports and production schedules to make decisions regarding how
much inventory to carry (Baltzan, 2015). Analytical information includes all organizational
information and the primary purpose of analytical information “is to support the performing of
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managerial analysis tasks” (Baltzan, 2015, p. 86).
Figure 1. Transactional versus Analytical Information (Baltzan, 2015, p. 87)
Business intelligence needs a database to maintain information and a database
management system (DBMS) to control access and security as well as create, read, update, and
delete information in a database (Baltzan, 2015). Employees of an organization send requests to
the DBMS and the DBMS would actually perform the manipulation of the information in the
database to answer the employees’ requests (Baltzan, 2015). (See figure 2.) Some popular
DBMS include Microsoft Access, SQL server, and Oracle (Baltzan, 2015).
Figure 2. Relationship of Database, DBMS, and User (Baltzan, 2015, p. 92)
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In the 1990s, organizations found that the individual databases for their traditional
operational systems were not adequate and could not provide timely or appropriate information
for business analysis (Baltzan, 2015). The desire to have a place to store relevant information to
produce strategic reports for management led to the development of data warehouses (Baltzan,
2015). According to Bose (2009), the data warehouse is the core of a well-developed BI
program. Baltzan (2015) defines data warehouses as “a logical collection of information
gathered from many different operational databases that supports business analysis activities and
decision-making tasks” (p. 105). Both databases and data warehouses store information, but the
key difference is that a data warehouse stores the information in an aggregate form more
appropriately suited to support decision-making tasks (Baltzan, 2015).
For many years, databases and data warehouses required significant investment in on
premise IT infrastructure (Heisterberg & Verma, 2014). The development of the Cloud “broke
the barrier of physical infrastructure” and now “enables employees of an organization to carry
out most business functions remotely without being physically present on the job site”
(Heisterberg & Verma, 2014, p. 113).
Business Solution
The managerial view of BI is getting the right information to the right people at the right
time for decision-making purposes (Bose, 2009). The technical view of BI is the applications
and technologies used to gather, store, analyze, and access the information to make better
decisions (Bose, 2009). In today’s highly competitive environment, organizations around the
world rely on “their ability to make accurate, timely, and effective decisions at all levels,
operational, tactical, and strategic, to address their customers’ preferences and priorities” (Bose,
2009, p. 155). Cloud-based software application packages for business intelligence, business
analytics, and predictive analytics have become the way of the future by offering integrates
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Enterprise Information Management Systems (EIMS) solutions.
Business Analytics
Data analytics is a science and technology that emphasizes three functions, examining
information, summarizing information, and drawing conclusions from information (Sun, Strang,
& Firmin, 2017). Sun, Strang, and Firmin (2017) list the fundamentals of data analytics to
consist of mathematics, statistics, engineering, human interface, and computer science. Data
analytics also includes both software applications and management techniques (Sun et al., 2017).
Data analytics requires data mining (DM) from data warehouses to discover, model,
predict, and communicate information for decision-making purposes (Sun et al., 2017). Sun et
al. (2017) summarizes different types of data analytics into an ontology (a set of categories) of
business analytics and uses figure 3 to illustrate the ontology.
Figure 3. An Ontology of Business Analytics (Sun et al., 2017, p. 171)
Data analysis is at the bottom of the ontology because data analysis is the most general concept.
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Sun et at. (2017) considers all other analytics (i.e., web analytics, information analytics,
knowledge analytics, and big data analytics) as the generalized and applied form of data
analytics and supports business analytics at the top of the ontology. “Therefore, information can
be generalized from data, while knowledge can be generalized from information” (Sun et al.,
2017, p. 171).
According to Sun et al. (2017), data analytics facilitates the development of EIMS.
EIMS include analytical applications that organizations use to evaluate business performance
(Sun et al., 2017). “The [EIMS] and business analytics share some common tools to support
business decision making and improve the business performance of [organizations]” (Sun et.al,
2017, p. 173). Similar to Heisterberg and Verma (2014), Sun et al. (2017) believe four out of the
five technology pillars (i.e., cloud services, mobile services, big data services, and social
networking services) are becoming an inevitable component of any EIMS. Data analytics
services support cloud services, mobile services, big data services, and social networking
services as shown in figure 4.
Figure 4. Analytics Services Support EIMS
Predictive Analytics
An increasing number of organizations are turning toward predictive analytics (also
known as advanced analytics) to gain control over daily decisions because predictive analytics
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provides a 360 degrees view of operations and customers (Bose, 2009). Predictive analytics is a
general term, which means applying advanced analytic techniques to information to answer
questions or solve problems (Bose, 2009). Predictive analytics “is not a technology in and of
itself, but rather, a group of tools that are used in combination with one another [to gather and
analyze information and then predict outcomes]. Data integration and data mining are the basis
for [predictive] analytics. The more information gathered and integrated allows for more pattern
recognition and relationship identification” (Bose, 2009, p. 156). Figure 5 illustrates the stages
in the BI evolution.
Figure 5. BI Evolution (Bose, 2009, p. 157)
For many years, BI was similar to online analytical processing (OLAP) query-and-
reporting tools that only provided historical information (Bose, 2009). Organizations needed
more robust and comprehensive solutions to gain competitive advantage thus leading to
predictive analytics applications (Bose, 2009). “[Predictive analytics] applications are typically
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powered either by business rules engines (which apply logical conditions to determine how a
certain case should be handled) or predictive models (which probabilistically identify the action
most likely to achieve the desired results) (Bose, 2009, p. 157).
A recent advancement in predictive analytics technology has led to the ability to conduct
text mining and web mining, which “adds a richness and depth to the patterns already uncovered
through [an organization’s] data mining efforts. Text mining applies the same analytical
functions of data mining to the domain of textual information, relying on sophisticated, text
analysis techniques that distill information from free-text documents” (Dorre et al., 1999;
Oliveira et al., 2004 as cited in Bose, 2009, p. 156). Web mining discovers patterns by
conducting data mining over the web (Bose, 2009). Bose (2009) lists web content mining, web
structure mining, and web usage mining as the categories of web mining.
According to Bose (2009), “a successful BI infrastructure must be able to transform
disparate data and systems into an efficient flow of information, analyze data with a forward-
looking view, and deliver key information to decision makers on demand” (p. 158). Figure 6
depicts an infrastructural framework for BI using predictive analytics.
Figure 6. Framework for BI using predictive analytics (Bose, 2009, p. 159)
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Lessons Learned/Business Case
Business intelligence, business analytics, and predictive analytics are all components of
enterprise information management systems, which ultimately help organizations with their day-
to-day and strategic decision-making. The applications and tools that organizations use to
conduct the analytics to turn data into information and information into knowledge are moving
from on premise infrastructure to the Cloud. Cloud-based solutions for BI and analytics can save
organizations money, but more importantly, the solutions can help organizations gain a
competitive advantage by providing accurate and timely information to organization decision-
makers.
Why I Care
Business intelligence helps build alliances between chief marketing officers and chief
information officers, which can lead to alliances among other organizational leaders (Heisterberg
& Verma, 2014). The alliances and bonds between organizational leaders will provide the
organization with a united team of decision-makers. Organizational leader will more likely
accept and support cloud-based business intelligence and analytics solutions that can then help
the leaders make better decisions to achieve the organization’s goals.
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References
Baltzan, P. (2015). Business driven technology (6th ed.). New York, NY: McGraw Hill
Education.
Bose, R. (2009). Advanced analytics: Opportunities and challenges. Industrial Management &
Data Systems, 109(2), 155-172. doi:http://dx.doi.org/10.1108/02635570910930073
Heisterberg, R., & Verma, A. (2014). Creating business agility: How convergence of cloud,
social, mobile, video, and big data enables competitive advantage. Hoboken, NJ: John
Wiley & Sons, Inc.
Sun, Z., Strang, K., & Firmin, S. (2017). Business analytics-based enterprise information
systems. The Journal of Computer Information Systems, 57(2), 169-178.
doi:http://dx.doi.org/10.1080/08874417.2016.1183977