829 RCB (by appointment)
404-413-7548
Course Website: http://aloks.com
This course covers the
development, implementation, and utilization of business models for managerial
decision making. Students learn to utilize techniques for analytical modeling
which include forecasting, optimization, simulation, decision analysis, and
classification. These mathematical models are implemented in decision support
systems. Examples are introduced that cover applications in strategic planning,
financial management, operations, project management, and marketing research.
DETAILED COURSE
DESCRIPTION: Upon completion of the course, the student will be able to build
Decision Support Systems (DSS) – apply
mathematical, graphical and spreadsheet modeling techniques to business
situations to aid decision-making. Students will go through the process of
describing and visualizing data, estimating unknown parameters, evaluating
trends for forecasting and estimating relationships between process inputs and
outcomes. Students will also get an overview of using models for business
intelligence and decision support and will be able to evaluate various
scenarios to optimize business decisions. Overall, the course will provide the
student with an overview of analytical techniques for decision support.
This course will provide
the student with several opportunities to apply concepts and techniques to
"real-world like" cases. The approach is applications oriented and
students are encouraged to apply concepts to real world cases. Students are also encouraged to apply the
concepts to their work-related datasets for a more meaningful learning experience.
The content of this course is “interdisciplinary” covering applications from
marketing, finance, operations and strategy. A key focus of this course is the
Six Sigma methodology for process improvement.
Text:
Data
Analysis and Decision Making with Microsoft® Excel (with CD-ROM, InfoTrac®,
and Decision Tools and Statistic Tools Suite), 3rd Edition, 2006
Albright/Winston/Zappe, ISBN-10: 0-324-40082-9
Details
will be made available in class and the course site. You are expected to make
your reports available on your website on the due date.
Group or Individual Projects (5) 40%
Midterm (individual) 25%
Final Project (individual) 25%
Class Participation 10%
Cognitive Objectives:
To receive a grade of "A', you should develop theoretical knowledge,
modeling know-how, and computer skills and be able to:
The
detailed course schedule is posted on the course website. The schedule is
tentative and changes may be necessary. Visit this page regularly. I will be
posting assignments, review materials, and other resources every week.
Week1:
Overview of Decision Sciences
·
Overview
of Decision Support Systems
·
Publishing
to the Web
Week2:
Introduction to Modeling
·
Why
Model?
·
The
Modeling Process
·
MB-DSS
: Modeling Uncertainty
·
Putting
it all together: Decision Sciences in Context
Week3:
Decision Support Systems
·
Model-Based
DSS
·
Influence
Diagrams
·
Business
Intelligence
·
Finance,
Marketing and Operations Models
Week4:
Time Series Forecasting Models
·
Forecasting
Models
·
Time
Series Analysis
·
Moving
Averages
·
Trend
Modeling
·
Time
Series Decomposition
Week5:
Forecasting Models using Regression Analysis
·
Regression
Analysis
·
Interpreting
Regression Results
·
Hypothesis
Testing
·
Backward,
Forward and Stepwise Regression
·
Implementing
Regression Models for Decision Support
Week6:
Demand Forecasting Models
·
DSS
for Marketing
·
Modeling
Firm Demand
·
Data
for demand forecasting
·
DSS
for marketing decisions
·
·
DSS
for financial decisions
·
DSS
development project
Week7:
The Modeling Process
·
Model
Development, Implementation and Use
·
Sensitivity
Analyses and Goal Seeking
·
Auditing
and Reverse Engineering
·
DSS
Design and Development Issues
·
Week8:
MIDTERM EXAM
Week9: Simulation Models (Monte-Carlo Simulation)
·
General
Overview of Simulation
·
Modeling
Process for MCS
·
MCS Methodology
·
@Risk Video Tutorial
Week10: Monte-Carlo Simulation - continued
·
Time
dependent simulation
·
Risk
Analysis
·
MCS
example
·
Project
4:
·
Monte-Carlo
Simulation Project
Week11:
Optimization Techniques
·
Modeling
process for optimization
·
Linear
Programming
·
Graphical
Method
·
Solving
LP Models
Week
12: Optimization Techniques - continued
·
Network
Models
·
Integer
Programming
Week 13:
Overview of Data Mining Techniques
Weeks 14
and 15 : Final Project Presentations and
in-class Final
This
is more about "facilitation of learning," even though I am
calling this my teaching philosophy. I have outlined the general nature of my
approach to create opportunities for you to acquire and develop skills that
will prove to be valuable in your life. In an era of continuous improvement,
interdisciplinary integration, and short lifecycle of skills, my motivation is
to help you build confidence and prepare you for the era of "Just In
Time" training. The world is rapidly adopting the "open-systems"
model for knowledge creation, dissemination, and use - which is making it
necessary for me to try the approaches described below. Please provide me your
input as I try to make a transition into developing a more meaningful
environment for your learning.
Collaborative Learning:
I
strongly advocate team-oriented learning in my class. Research is indicating
that for this kind of a course the best strategy is to create a structure of
topics, provide several opportunities to bring related topics into perspective,
and create an environment that facilitates implementation of concepts into
meaningful applications. The motivation is to accomplish synergy through
sharing of information and skills.
"Learning by Doing" Model for Pedagogy:
This
model (constuctivism) calls for facilitation of learning versus the traditional
approach of instructor-imparted teaching (objectivism). I will provide you with
several opportunities to apply concepts and techniques to "real-world
like" cases. This kind of integration/synthesis of knowledge from diverse
sources is necessary to be able to create meaningful IT solutions/applications.
An important part of this approach is "reverse engineering" to learn
systems development. I will provide examples of solutions to cases and we will
reverse engineer these solutions to gain a better understanding of the modeling
process.
Student-Centered Learning:
This
approach encourages students to develop their own context for learning.
Meaningfulness and relevancy of concepts can be highly enhanced if you think of
an application scenario in your profession and be able to use ideas covered in
the course to enhance existing methods. Those seeking to acquire marketable
skills use opportunities in class to develop/refine skills that are needed in
today's environment. Your projects should reflect applications that demonstrate
improvement over conventional methods and cover technology skills that are
considered current.
Covering all aspects of Knowledge Acquisition:
I will try to create opportunities for you to acquire
all aspects of knowledge associated with the content of this course. These
aspects are : Know-what, Know-how, Know-why, and Care-why. Know-what is
associated with the understanding of concepts and techniques. Know-how is the
understanding related to the application of concepts/techniques. Know-why is an
understanding of the relevance and appropriateness of the application to
real-world situations. Care-why is something you need to think about (this
aspect of knowledge acquisition is more about you than the content of any
course).