Key to Terminology
*= Advanced MBA or MBA-HSA Course
** = Course descriptions appear in
Union College’s Catalog
Prerequisite Discussion and
Terminology:
“Pre” = Prerequisite. Student must
have finished this course prior to beginning the listed course.
“Rec” = Recommended. It is
recommended (but not required) that this course be completed prior to the
course listed.
If “prerequisites” have not been fulfilled, then written
permission forms, signed by the instructor or Dean, must accompany the
registration form.
Additional prerequisite requirements may be found within
each school / program section.
SCHOOL OF EDUCATION COURSES
The following courses are for students in the MAT or MS for
T programs. Enrollment in these courses is by permission of School of Education Deans only.
Specific 2006-07 course offerings are identified below and
updated via www.uniongraduatecollege.edu
or by contacting the School of Education.
To ensure that students meet appropriate prerequisites for
all courses, all graduate students are required to have a plan of study on file
that has been approved by School of Education advisors.
PSY 146. Educational Psychology (Pre-1)
Winter, Spring; Paludi
Principles of psychology applied to teaching, with emphasis
on cognitive abilities of students, classroom management procedures, and
motivational techniques. Visits to a variety of local schools. Prerequisite:
PSY 010.
EDS 500A. Field Observations (Middle School)
Fall, Winter, Spring; Allen (No fee)
40 hours, observing classes and meeting with secondary
school teachers in the discipline for which certification is sought. Five days
are required at the middle school level. Specific observation activities
outline the expected outcomes of the experiences as well as information
regarding observational techniques and procedures. Typical experiences involve
in-depth observation of one teacher and additional observations of other
teachers and classes to see a range of grade/ability levels. Observers are
asked to consider physical environment, classroom climate, learners and
learning styles, the curriculum, and teacher planning/preparation. Students are
also expected to become familiar with instructional materials and resources.
EDS 500 B. Field Observations (High School)
Fall, Winter, Spring; Allen (No fee)
40 hours, observing classes and meeting with secondary
school teachers in the discipline for which certification is sought. Five days
are required at the high school level. Either 200A or B must be conducted in a
high needs school.
EDS 500C. Continuation of EDS 500A and 500B.
Field Observations (Internship School)
Spring; Allen ($250 fee)
40 hours, observing classes and meeting with secondary
school teachers in the discipline for which certification is sought. Specific
observation activities outline the expected outcomes of the experiences as well
as information regarding observational techniques and procedures. Typical
experiences involve in-depth observation of one teacher and additional
observations of other teachers and classes to see a range of grade/ability
levels. Observers are asked to consider physical environment, classroom
climate, learners and learning styles, the curriculum, and teacher
planning/preparation. Students are also expected to become familiar with
instructional materials and resources.
EDS 511. Curriculum and Methods of Teaching English
Summer; Heller
Curricular planning and instruction for the teaching of
English at the secondary school level. The course will include an analysis of
secondary language arts curricula including New York State Frameworks for
language arts, instructional techniques and strategies, designing and locating
instructional materials, planning, implementing, and evaluating lessons and
units.
EDS 512. Curriculum and Methods in Teaching Mathematics
Summer; Roeser
Curricular planning and instruction for the teaching of
mathematics at the secondary school level. The course will include an analysis
of classic and current secondary mathematics curricula including New York State
Frameworks for mathematics, instructional techniques and strategies, designing
and locating instructional materials, planning, implementing, and evaluating
lessons and units.
EDS 513. Curriculum and Methods in Teaching Languages
Summer; Alston
Curricular planning and instruction for the teaching of
modern and classical languages at the secondary school level. The course will
include an analysis of secondary language curricula including New York State
Frameworks for languages; instructional techniques; the teaching of speaking,
listening, reading, and writing; designing and locating instructional
materials; planning, implementing, and evaluating lessons and units.
EDS 514. Curriculum and Methods in Teaching Sciences
Summer; Shiland
Curricular planning and instruction for the teaching of
science at the secondary school level. The course will include an analysis of
secondary science curricula including New York State Frameworks for sciences;
instructional techniques and strategies for teaching scientific concepts;
laboratory methods and safety, designing and locating instructional materials;
planning, implementing, and evaluating lessons and units.
EDS 515. Curriculum and Methods in Teaching Social
Sciences
Summer; Reynolds
Curricular planning and instruction for the teaching of
social sciences at the secondary school level. The course will include an
analysis of secondary social studies curricula including the New York State
Frameworks for social studies; models and techniques for teaching and
integrating the various social sciences; designing and locating instructional
materials; planning, implementing, and evaluating lessons and units.
EDS 540. Psychology of Teaching
Summer; Allen, Hall, Remis, Snyder, Tulloch
Theories of learning and memory applied to instruction;
models and research on teaching in secondary schools. This course will include
a laboratory component with micro-teaching experiences and will be taken in the
summer preceding the teaching internship. (Co-requisite: EDS 240 Lab)
EDS 540L. Microteaching Laboratory
Summer; Eads, Lasselle, Merriman, Moore
Students prepare and present several 5-30 minute lessons
using a variety of instructional models. Lessons are video-taped and critiqued
by peer-coaches and laboratory faculty. This laboratory must be taken
concurrently with EDS 240 and a course in Curriculum and Methods in Teaching
(EDS 511-516).
EDS 541. Essential Reading Literacy
Summer; Hall
An examination of the reading approaches, both aesthetic and
efferent, covers text features, vocabulary building, and strategies for
meaning-making to support students’ reading in the academic discipline content
areas.
EDS 544. Literacy for the Content Classroom
Fall, Winter; C. Reynolds, Wojcik
The theory and instructional approaches which support
students’ acquisition of content knowledge through writing. Builds upon the
reading essentials of EDS 541 to help teachers use writing processes and varied
assignments and strategies for specific content learning objectives, writing to
learn as well as display writing, includes instructional planning elements such
as types of assignments, writing frequency and pacing, feedback, grading, and
reflective analysis of writing products.
EDS 550A. Special Needs Seminar: Drug, Alcohol, Child
Abuse
Fall; Hobday, Maloney, O’Connell, Staff
This seminar is required of all MAT candidates and is to be
taken concurrently with their internship. This course explores major aspects of
special needs populations in schools including State mandates; laws dealing
with the handicapped; gifted and talented students; the instruction required
for teachers in drug, alcohol, and child abuse; and projects to increase
teachers’ competence in working with special needs populations. Only students
engaged in an internship may enroll in this course.
EDS 550B. Seminar in Instruction and Evaluation
Winter; Hall, Snyder, Tulloch
This seminar is required of all MAT candidates and is to be
taken concurrently with their internship. Topics include: application of instructional
theory and research, reflective teaching and self-evaluation, traditional and
alternate/performance assessments. Each student will produce a professional
portfolio and a teaching video-tape in this course. Only students engaged in an
internship may enroll in this course.
EDS 550C. Seminar in Instruction and Evaluation
Spring; Hall, Snyder, Tulloch, Vrtiak
This seminar is required of all MAT candidates and is to be
taken concurrently with their internship. Topics include: application of
instructional theory and research, reflective teaching and self-evaluation,
exposure to major school reform movements/proposals, and the relationship of
new teachers to the reform movement. Only students engaged in an internship may
enroll in this course.
EDS 551, 552, 553. Teaching Internship (No Fee)
Fall, Winter, Spring; Allen
Graduate interns teach a minimum of two courses in a local
secondary school under the direction of an experienced school mentor and a
college supervisor. Students meet several times a trimester on campus in
addition to their teaching responsibilities. Only matriculated MAT students may
be enrolled in an internship.
___ 580. MAT/MS for Teachers Project
Winter; Hall, Kennedy, Morley, Ryan, Vrtiak, Staff
Individual and group projects relating to the classroom
teaching of a particular discipline. Typical projects are: systematic
applications of an instructional model of a major segment of curriculum in a
teaching subject area; classroom action research; addressing curricular or
instructional questions/issues within one’s teaching subject area.
EDS 590. Independent Study in Education
___ 598. ___ 599. Research and Thesis in the Discipline
Fall, Winter
EDS 600. Status Continuation ($100)
Graduate students who are degree candidates and are working
on their thesis must pay a continuation fee for any term in which they are not
formally enrolled in any other course counting toward the completion of their
degree.
BIO 553. Plant Biology
Spring; Goldman
This course will focus on a survey of the land plant kingdom
with an emphasis on phylogeny, anatomy, physiology, field identification, and
ecology. Emphasis will be placed on the New York State curriculum for biology
in secondary schools and ways to link plant study to the curriculum.
BIO 590. Biological Demonstrations
Fall; D. Williams
Focusing on specific biological laboratories taught in
middle schools and high schools, this course not only explores the New York State mandated biological laboratories, but also the potential laboratories that
can be taught in the discipline at the secondary school level. The emphasis is
on the NYS standards-based skills that secondary students need to know and be
able to perform. Each student leaves the course with a wide variety of
laboratories that can be used in a wide variety of school settings.
CST 565. Introduction to Computers in the Classroom
Fall; Wilkinson
This core course is required of all students specializing in
computers who have not had a similar course in their previous study. It is
strongly recommended for all students in any education program who have had
little or no exposure and/or knowledge of computers, computer systems, and
their basic applications: word processing, databases, and spreadsheets.
Emphasis will be placed on what computers do, how they can be used, an
understanding of the various parts of the hardware, loading programs, running
programs, the primary and secondary storage capabilities and their functions.
All students will become familiar with word processing, spreadsheets, databases,
and their applications. A basic introduction to E-mail, the Internet, and some
of their basic uses in the classroom will also be included along with an
elementary explanation of programming through the use of Quick Basic or another
introductory programming language.
CST 570. Computers in the Language Arts Classroom
Fall, Winter; Reynolds
Investigates the potential of microcomputer technology to
improve reading, writing, study, communication, and second language skills.
During the first five weeks, many tools, techniques, and materials will be
presented through demonstrations, readings, lectures, and lab sections. Class
members will further explore one or more of these areas and develop an
implementation plan during the second portion of the course. Students should
have an acquaintance with computers but do not need to be programmers. Some
Logo or Carol the Robot is helpful.
CST 571. Computers in the Math and Science Classroom
Spring; Wilkinson
Investigates the potential of new technology for improving
the teaching of math and science. Special attention is given to the advanced
uses of spreadsheet and database software in the secondary curriculum. Course
discussions will emphasize the educational applications of computer technology
rather than development of software. Advanced use of E-mail, the Internet and
World Wide Web will be taught as well.
EGL 531. Reading Poetry
Spring; Danaher
Students will examine a broad range of poems in order to
examine the sources and characteristics of the unique powers of poetry and
poets claimed throughout history. Students will learn to formulate theories of
how poetry operates in ways peculiar to itself and to develop personal,
aesthetic, and critical approaches to reading poetry effectively.
EGL 581. Criticism
Fall; Danaher
This course focuses on gaining a broad familiarity with the
major theoretical approaches to the study of literature and culture. The course
will apply the insights gained about theory to the practical act of
interpreting literary texts and narratives of various sorts. Strong links will
be drawn between theory and practical application.
EGL 582. The Civil War Era
Winter; Allen
Focusing on the history and literature of the Civil War Era,
this course selects materials from 1850-1870. Key concepts and their extensions
into the 19th and 20th centuries will be emphasized including race, gender,
immigration, industrialism, military tactics, individualism, Romanticism,
Realism, Naturalism, and Patriotism. The course will emphasize several
interdisciplinary approaches to the study of literature and history, including
a wide variety of artifacts that can be used to teach the history and
literature of the period. The course will be organized as a seminar emphasizing
discussion and student presentations.
HST 510. Comparative History
Spring; Sargent
History 510 takes a comparative and topical approach to the
study of traditional global history. The goal is to provide teachers with
several different framework within which to understand and teach global
history. Five main approaches are examined. The course will be organized as a
seminar focusing on class discussion rather than lecture. Grading will be based
on short papers and a final exam.
HST 558. The Holocaust
Spring; Berk
A formal study of European and American Jewry in the period
1933-1945 focusing on modern anti-Semitism, the Nazi world view, German
extermination policies, the response of Europe and the United States, and Jewish behavior in a time of crisis.
HST 582. The Civil War Era
Winter; Allen
Focusing on the history and literature of the Civil War Era,
this course selects materials from 1850-1870. Key concepts and their extensions
into the 19th and 20th centuries will be emphasized including race, gender,
immigration, industrialism, military tactics, individualism, Romanticism,
Realism, Naturalism, and Patriotism. The course will emphasize several
interdisciplinary approaches to the study of literature and history, including
a wide variety of artifacts that can be used to teach the history and
literature of the period. The course will be organized as seminar emphasizing
discussion and student presentations.
HST 584. Titans and Their Times
Winter; Berk
This course deals with the impact upon history of a number
of prominent personalities. The factors influencing their lives, the roles
they played in the historical process and the interplay between their
personalities and underlying forces of history constitute the subject matter of
this course.
HST 589. Special Topics in Social Science
Fall; Sargent
This course is designed as a critical thinking course,
analyzing the ways in which social scientists write, think, make arguments, and
present evidence. The course provides future teachers with multiple ways to
evaluate social science evidence in multiple disciplines. The course demands
analytical thinking and the ability to articulate orally and in writing.
PHY 590. Physics Demonstrations
Fall; Malecki
SCHOOL OF ENGINEERING AND COMPUTER SCIENCE COURSES
Specific 2007-08 course offerings are identified below and updated
via www.uniongraduatecollege.edu
or by contacting the Dean of Engineering.
To ensure that students meet appropriate prerequisites for
all courses, all graduate students are required to have a plan of study on file
that has been approved by the graduate advisor.
MS IN COMPUTER SCIENCE
COURSES
Non-Credit-Bearing
Courses
CSc Pre1. Topics in Computer Logic and Mathematics
Introductory logic and proof methods, set theory, and
Boolean algebra; number systems, computer organization, and elementary digital
logic; data representation. Prerequisites: Calculus and programming experience.
(no-credit)
CSc Pre2. Structured Programming and Computer
Organization
Object-oriented programming and design; principles of
computer organization. Algorithms will be implemented in Java and assembly
language. No prerequisites. (no-credit)
CSc Pre3. Data Structures
Winter; Staff
Basic concepts of data organization and abstraction,
software design, stacks, queues, trees, and their implementation with linked
structures. Sorting and searching techniques. Programming in Java. Students
must register for a laboratory section. Prerequisite: CSc Pre2. (no-credit)
CSc 599. Master of Science Graduate Seminar in Computer
Science
Winter, Spring; Staff
This required, non-credit Seminar provides a capstone
experience for graduate Computer Science candidates.
Candidates select a topic for independent research during the Fall term. The
candidate submits a final written report and presents the research during a
seminar session the
following Winter or Spring term. Each candidate is required
to attend all seminar sessions. The candidate receives a pass/fail grade which
appears on the official transcript. This is a no-fee course. This course is
normally taken during the final year of the candidate’s program. Prerequisite:
approval of graduate advisor. (no credit)
Credit-Bearing Courses
CSc 510. Operating Systems
Spring; Staff
Batch, interactive, real-time, and distributed operating
systems; multiprogramming, multiprocessing, multiplexing, multitasking;
concurrent programming; elementary queuing theory; memory management; resource
allocation, sharing and protection. This course is cross-listed in the Union College catalog as an undergraduate course (335). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisites: CSc Pre1 and CSc Pre3.
CSc 511. Algorithm Design and Analysis
Fall, Spring; Staff
Fundamental algorithms used in a variety of applications.
Includes algorithms on list processing, string processing, geometric
algorithms, and graph algorithms. This course is cross-listed in the Union College catalog as an undergraduate course (250). Graduate students will be expected
to complete additional course work beyond the undergraduates in this class.
Prerequisites: CSc Pre3 and CSc Pre1.
CSc 512. Theory of Computing**
Fall; Staff
A discussion of the fundamental ideas and models underlying
computing—properties of formal languages, finite automata, regular expressions,
pushdown automata, context-free
languages, Turing machines, and undecidability. This course
is cross-listed in the Union College catalog as an undergraduate course (350).
Graduate students will be expected to complete additional course work beyond
the undergraduates in this class. Prerequisites: CSc Pre3 and CSc Pre1.
CSc 513. Programming Languages**
Winter; Staff
An introduction to issues in programming language design and
implementation. Major programming language paradigms: functional, logic, and
object-oriented, and their use. This course is cross-listed in the Union College catalog as an undergraduate course (370). Graduate students will be expected
to complete additional course work beyond the undergraduates in this class.
Prerequisites: CSc Pre3 and CSc Pre1. Recommended: CSc 511.
CSc 514. Computer Graphics
Fall; Staff
Algorithms for handling two-dimensional and
three-dimensional objects. Interactive graphics hardware and systems. X
windows, engineering workstations. This course is cross-listed in the Union College catalog as an undergraduate course (385). Graduate students will be expected
to complete additional course work beyond the undergraduates in this class.
Prerequisites: CSc Pre3 (Calculus III: Differential Vector Calculus and Matrix
Theory) or its equivalent.
CSc 515. Introduction to Databases
Fall; Staff
Introduction to data models and database design. Coverage of
network, hierarchical, and relational architectures with emphasis on the
latter. Study of relational algebra, entity-relationship modeling, and data
normalization. Study of fourth generation query languages including SQL.
Introduction to centralized, distributed, federated, and mediated systems. This
course is cross-listed in the Union College catalog as an undergraduate course
(340). Graduate students will be expected to complete additional course work
beyond the undergraduates in this class. Prerequisite: CSc Pre3 (Data
Structures).
CSc 516. Software Engineering
Strategies for the specification, design, production,
testing, and support of computer programs; software development models;
programming team structures; documentation and maintenance. This course is
cross-listed in the Union College catalog as an undergraduate course (360). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisite: CSc 511.
CSc 518 Digital Design
Winter; Staff
(Cross-listed as EER 518)
The design of digital hardware systems at the module level using
modern approaches. Datapath and control unit design, hardware description
languages, minimization, pipeline. Laboratory exercise and a design project are
required. This course is cross-listed in the Union College catalog as an
undergraduate course (318). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisite:
Introduction to Digital Computers or equivalents.
CSc 529. Neural Networks
(Cross-listed as EER-529)
Topics include the biological basics of artificial neural
networks, neuron models and architectures, backpropagation, associative and
competitive learning. Weekly computer laboratories and a final project
required. This course is cross-listed in the Union College catalog as an undergraduate
course (329). Graduate students will be expected to complete additional course
work beyond the undergraduates in this class. Prerequisite: Linear Algebra and
Differential Equations, CSc Pre3 for computer science students.
CSc 531. Computer Language Translators
The modules of a compiler and their functions. Lexical
processor, syntax analyzer. Symbol table access methods, scanning arithmetic
expressions, error recovery, code
generation. Prerequisite: CSc 512.
CSc 533. Advance Topics in Software Engineering
Seminar on topics in software engineering covering selected
modern approaches to requirements engineering, software design, and
verification of software systems. Prerequisite: CSc 516 or permission of
instructor.
CSc 536. Computer Network Protocols
(Cross-listed as EER 536)
Design, analysis, and operation of communication protocols
for computer networks; the Internet, TCP/IP, addressing, switching, routing,
congestion control, application protocols. This course is cross-listed in the
Union College Catalog as an undergraduate course (336). Graduate students will
be expected to complete additional course work beyond the undergraduates in the
class. Prerequisites: Introduction to Digital Computers or equivalent
programming ability.
CSc 537. Comparative Computer Architecture
(Cross-listed as EER 537)
Study of computer architectures, with an emphasis on RISC
processors, performance metrics, datapath and control, pipelines, cache design,
and parallel instruction execution. Prerequisites: CSc 510 and CSc Pre1.
CSc 538. Advanced Topics in Database Systems
Physical data organization and its application to database
management. Study of file layouts, indexing, and query optimization techniques.
Advanced database topics will be studied including concurrency control,
transaction management, data recovery, and security. Prerequisite: CSc 515.
CSc 542. Analysis and Design of Computer Algorithms
The analysis of time and space requirements of algorithms;
the design of efficient algorithms using techniques such as divide and conquer,
and dynamic programming; efficient algorithms for graph problems, matrix
multiplication, fast Fourier transforms, polynomial multiplication, pattern
matching; introduction to complexity theory. Prerequisite: CSc 511.
CSc 544. Artificial Intelligence
Winter; Staff
Fundamental concepts used in creating “intelligent” computer
systems; semantic representation, logical deduction, natural language
processing, and game playing; expert systems, knowledge-based systems, and
elementary robotics. This course is cross-listed in the Union College Catalog
as an undergraduate course (320). Graduate students will be expected to
complete additional course work beyond the undergraduates in the class.
Prerequisite: CSc 511.
CSc 547. Data Communications and Networks
(Cross-listed as EER-547)
Fall; Staff
An introduction to protocols, communication hardware,
networks, error detection and handling, and software. This course is
cross-listed in the Union College catalog as an undergraduate course (337). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisite: Introduction to Digital Computers
or CSc Pre 1 (Topics in Computer Logic and Mathematics), or equivalents. A
knowledge of statistics is helpful.
CSc 548. Concurrent Programming
Survey of synchronization and communication in concurrent
programs; introduction to concurrent programming languages and systems such as
Java and MPI; computation in distributed and multi-processor systems. Prerequisite:
CSc 511. Recommended: CSc 510.
CSc 550. Advanced Programming Language Topics
Advanced issues in programming languages design;
descriptions of syntax and semantics, types, binding time, run-time systems.
Projects will include implementations of small
programming-language interpreters. Prerequisites: CSc 511
and CSc 513.
CSc 551. Large Scale Software Development
Winter; Staff
Strategies for the systemic design, implementation, and
testing of large software systems. Design notations, tools, and techniques.
Design patterns and implementation idioms. Implementation, debugging and
testing. Includes team and individual software development projects. This
course is cross-listed in the Union College catalog as an undergraduate course
(260). Graduate students will be expected to complete additional course work
beyond the undergraduates in this class. Prerequisites: CSc Pre 3 and Logic
& Set Theory.
CSc 552. Microprocessors and Microcomputers;
Architecture, Programming, and Applications
(Cross-listed as EER 552)
Spring; Staff
Hardware and architecture with emphasis on 8051
microcontrolla; programming in assembly and higher-level languages,
microcomputer applications, and interfacing. Design projects required. This
course is cross-listed in the Union College catalog as an undergraduate course
(352). Graduate students will be expected to complete additional course work
beyond the undergraduates in this class. Prerequisites: Knowledge of computer
programming and introduction to Digital Computers or equivalent.
CSc 554. VLSI System Design
(Cross-listed as EER 554)
Design of very large scale integrated systems including
structured design, stick diagrams, delay time estimation. Design from logic to
physical levels; CAD tools for layout and simulation. Design projects required.
This course is cross-listed in the Union College catalog as an undergraduate
course (354). Graduate students will be expected to complete additional course
work beyond the undergraduates in this class. Prerequisites: Introduction to
Digital Computers and Introduction to Semi-conductor Devices and Circuits or
equivalents.
CSc 571. System Modeling & Optimization
(ie Computational Intelligence)
(Cross-listed as EER 571)
Topics include the theory, design, and application of
biologically and linguistically motivated computational methods emphasizing
neural networks, genetic algorithms, fuzzy logic, and hybrid intelligent
systems in which these methods are employed. Special emphasis will be placed on
applying these techniques to “real-world” problems, and examples from a broad
range of industrial applications will be presented. Homework assignments and a
final project are required. Prerequisites: undergraduate calculus and linear
algebra.
CSc 572. Engineering Statistics
Modern engineering practice makes extensive use of
statistical methods for the efficient
collection and analysis of engineering data, and to support
data-based decision making. This course will introduce the statistical tools
that are of greatest importance for practicing engineers. Core topics to be
covered will include probability and distribution theory, the construction and
interpretation of statistical intervals, statistical hypothesis testing,
regression analysis and empirical modeling, statistical experimental design,
and statistical quality/process control. Additional specialized topics may
also be covered, depending upon the interests of the class; possible topics
include system reliability analysis, measurement system analysis, process
capability analysis (and “six-sigma”), accelerated life testing, and acceptance
sampling.
CSc 573. Robotics
In development.
CSc 583. Selected Topics in Computer Science
Prerequisite: Permission of the instructor.
CSc 590-593. Independent Study
(by arrangement)
Fall, Winter, Spring; Staff
Prerequisite: At least two CSc courses numbered between 530
and 589.
CSc 594-595. Two-Term Programming Project
(by arrangement)
Fall, Winter, Spring; Staff
Prerequisite: At least two CSc courses numbered between 530
and 589.
CSc 596-597. Research and Thesis
(by arrangement)
Fall, Winter, Spring; Staff
Prerequisite: At least two CSc courses numbered between 530
and 589.
MS IN ELECTRICAL
ENGINEERING COURSES
Specific 2007-2008 course offerings are identified below and
updated via www.uniongraduatecollege.edu
or by contacting the Dean of Engineering.
To ensure that students meet appropriate prerequisites for
all courses, all graduate students are required to have a plan of study on file
that has been approved by the graduate advisor.
Non-Credit-Bearing
Courses
EER 599. Master of Science Graduate Project in Electrical
Engineering
Winter, Spring; Staff
This non-credit seminar project provides a capstone
experience for graduate electrical engineering candidates not completing a
thesis or independent study. The candidate and faculty advisor agree on project
scope and evaluation process. The candidate receives a pass/fail grade which
appears on the official transcript. This is a no-fee course.
Credit-Bearing Courses
EER 502. Advanced Circuit Analysis
Fall; Staff
General network theory, graph topology. Topological methods
applied to loop, node, node-pair, mixed variable, and state equations. Linear,
nonreciprocal, and active networks. Prerequisite: Discrete Systems or
equivalent.
EER 510. Semiconductor Device Theory
In-depth examination of the physical operation of basic
semiconductor devices such as diodes, bipolar transistors, junction and
metal-oxide-semiconductor field effect
transistors. Determination of internal parameters that
contribute to device performance. Prerequisite: Electronic Devices or
equivalent or permission of the instructor.
EER 512. Application of Integrated Circuits
Electronic processing of signals; properties of linear and
hybrid integrated circuits; design of linear, nonlinear and hybrid electronic
systems, active filter networks. Design projects required. This course is
cross-listed in the Union College catalog as an undergraduate course (312).
Graduate students will be expected to complete additional course work beyond
the undergraduates in this class. Prerequisite: Analysis and Design of
Electronic Circuits, Control Systems or equivalents, or permission of
instructor.
EER 518. Digital Design
(Cross-listed as CSC 518)
Winter; Staff
The design of digital hardware systems at the module level
using modern approaches. Datapath and control unit design, hardware description
languages, minimization, pipeline. Laboratory exercise and a design project are
required. This course is cross-listed in the Union College catalog as an
undergraduate course (318). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisite:
Introduction to Digital Computers or equivalents.
EER 520. State Space Analysis
Formulations of state equations, matrices and determinants.
Main concepts of linear algebra. Eigenvalues and Eigenvectors. Solutions of
state equations by EV-EVR methods. Prerequisites: Circuits and Systems,
Discrete Systems or equivalents.
EER 521. Modern System Theory
Continuation of EER 520. Functions of matrices;
Cayley-Hamilton’s theory. Time-varying systems, controllability and
observability. Nonlinear systems and Lyapunov’s stability. Prerequisites:
Control Systems, EER 520 or equivalents.
EER 522. Linear Control Systems
Fall; Staff
This course addresses practical control system design
primarily from a classical perspective. Beginning with transfer function
modeling of dynamic systems, the course moves through transient, root locus,
and frequency response analysis to end with frequency domain techniques for
controller design.
EER 524. Random Processes
Review of discrete probability, random processes. Markov
chains and Queuing Theory. Applications to communication systems, and computer
networks. Prerequisite: Some
probability knowledge desirable.
EER 525. Non-Linear Optimization
Fall; Staff
Extremization of objective functions (cost, performance,
etc.) subject to constraints in the form of equalities and inequalities. Method
of Lagrangian Multipliers. Kuhn Tucker conditions. Gradient search algorithm.
Penalty functions. Direct methods of variational calculus and their application
to approximate solutions of problems in electric circuit
theory. Economics of electric power networks. Prerequisites:
Undergraduate math and linear algebra.
EER 526. Optimal Control Systems
Introduction to the theory and applications of optimal
control. Development of Bellman’s dynamic programming, variational methods and
Pontryagin’s maximum principle. Applications to the synthesis of optimal
regulators and trackers. Solution of control problems with minimum time, energy
or fuel consumption. Prerequisites: Background in control theory and better
than average mathematical ability. EER 520 helpful, but not necessary.
EER 528. Digital Control Systems
Winter; Staff
The course begins with a brief review of continuous-time
control methods before transitioning to the theory and implementation
techniques for control of dynamic processes by digital computers. Topics
covered include discrete system analysis, sampled data systems, quantization
effects, state space representation of digital control systems, and the design
of digital control algorithms.
EER 529. Neural Networks
(Cross-listed as CSc 529)
Topics include the biological basics of artificial neural
networks, neuron models and architectures, backpropagation, associative and
competitive learning. Weekly computer laboratories and a final project
required. This course is cross-listed in the Union College catalog as an
undergraduate course (329). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisite:
Linear Algebra and Differential Equations, CSc Pre3 for computer science
students.
EER 530. Fuzzy Logic
Topics include fuzzy sets and relations, membership
functions, defuzzification, classical logic and fuzzy logic, fuzzy rule-based
systems, nonlinear simulation, decision-making, pattern recognition and control
systems. This course is cross-listed in the Union College catalog as an
undergraduate course (330). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisites:
Calculus and Linear Algebra, CSc Pre3 for computer science students.
EER 531. Electronic Devices
Terminal characteristics and theory of electronic devices;
band theory, photo and electronic effects, PN junctions; bipolar and field
effect transistors, discrete and integrated electronics. This course is cross-listed
in the Union College catalog as an undergraduate course (310). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisite: Introduction to Semiconductor
Devices and Circuits or equivalent.
EER 533. Wireless Communication Circuits
Communication circuits, including coupling networks,
electrical noise, high-frequency amplifiers, mixers, phaselock loops, high
efficiency and broadband amplifiers, modulators and demodulators, pulse
modulation techniques. Three lab hours each week. Design projects required.
This course is cross-listed in the Union College catalog as an undergraduate
course (333). Graduate students will be expected to complete additional course
work beyond the undergraduates in this class. Prerequisite: Analog
Communications, Analysis and Design of Electronic Circuits or equivalents, or
permission of the instructor.
EER 536. Computer Network Protocols
(Cross-listed as CSc 536)
Design, analysis, and operation of communication protocols
for computer networks; the Internet, TCP/IP, addressing, switching, routing,
congestion control, application protocols. This course is cross-listed in the Union College catalog as an undergraduate course (336). Graduate students will be expected
to complete additional course work beyond the undergraduates in this class.
Prerequisites: Introduction to Digital Computers or equivalent programming
ability.
EER 537. Comparative Computer Architecture
(Cross-listed as CSc 537)
Study of computer architectures, with an emphasis on RISC
processors, performance metrics, datapath and control, pipelines, cache design,
and parallel instruction execution. Prerequisites: Operating Systems and either
Introduction to Digital Computers or CSc Pre1 (Topics in Computer Logic and
Mathematics) or equivalents.
EER 541. Energy Conversion
Fall; Staff
Theory of electromechanical energy conversion;
characteristics of transformers and DC induction, and synchronous machines.
This course is cross-listed in the Union College catalog as an undergraduate
course (341). Graduate students will be expected to complete additional course
work beyond the undergraduates in this class. Prerequisite: Electric Circuits
or equivalent.
EER 542. Electronic Power Conversion
Winter; Staff
This course examines the application of power semiconductor
devices to the efficient conversion of electrical energy. Circuit analysis,
signal analysis, and energy concepts are integrated to develop steady-state and
dynamic models of generic power converters. Specific topics include AC/DC
conversion, DC/DC conversion, DC/AC conversion, and AC/AC conversion. These
generic converters are applied as controlled rectifiers, switching power
supplies, motor drives, HVDC transmission, induction heating, and others. Ancillary
circuits needed for the proper operation and control of power semiconductor
devices are also discussed. Prerequisites: Courses in circuit analysis,
signals and systems.
EER 542A. Modeling & Control of Energy Conversion
Spring; Staff
This course examines modeling and control techniques
appropriate for application to power electronic and electric machine systems.
The course will involve examination of the appropriate theory, followed by
application through examples and small design projects. Simulation will be
used to evaluate the merits of various techniques.
Prerequisites: EER 242, Power Electronics I; some exposure
to state-space models is desirable.
EER 542B. Electromechanical Energy Conversion
Fall; Staff
This course is designed to introduce the student to the
inside of AC electric machinery. It begins with a review of computing
inductance using the integral form of Maxwell’s equations. Next, the energy
method for computing the forces of electrical origin is introduced. These
forces are then combined with circuit equations and the equations of mechanics
to obtain dynamic models of electromechanical systems. The methodology
developed is applied to simple electromechanical structures and then to various
types of synchronous machines; induction machines are also considered.
Consideration will be given to the electronic control of electric machines.
Prerequisite: an undergraduate course in electromagnetics.
EER 543. Introduction to Antenna Theory
Winter; Staff
Propagation of electromagnetic waves, antenna parameters,
arrays, wire antennas, aperture antennas, receiving antennas. Prerequisite:
Introduction to Electromagnetic Engineering I or equivalent. This course is
cross-listed in the Union College catalog as an undergraduate course (368). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisites: Introduction to Electromagnetic
Engineering or equivalent.
EER 544. Digital Communications
Elements of a digital communication system, digital source
coding, error correction, introduction to information theory, channel models,
signaling waveforms, optimum reception and detection. Prerequisites: Analog
Communications, Probability and Digital Communications or equivalents.
EER 546. Digital Signal Processing
Discrete sequences, sampling, z-transform, discrete and
fast-Fourier transforms, discrete filter realizations, filter design based on
analog, Butterworth, Chebyshev, Elliptic low pass filters, windowing and
quantization effects. Prerequisite: Discrete Systems or equivalent.
EER 547. Data Communications and Networks
(Cross-listed as CSc 547)
Fall; Staff
An introduction to protocols, communication hardware,
networks, error detection and handling, and software. This course is cross-listed
in the Union College catalog as an undergraduate course (337). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisite: Introduction to Digital Computers
or CSc Pre1 (Topics in Computer Logic and Mathematics), or equivalents. A
knowledge of statistics is helpful.
EER 548. Digital Circuits
Special circuitry of digital systems; transistors as
switches, logic gate types (RTL, DTL, TPL, ECL, MOS, CMOS, etc.), digital ICs
semiconductor memories. Design projects required. This course is cross-listed
in the Union College catalog as an undergraduate course (348). Graduate
students will be expected to complete additional course work beyond the
undergraduates in this class. Prerequisite: Introduction to Digital Computers,
Introduction to Semiconductor Devices and Circuits or equivalents, or
permission of the instructor.
EER 552. Embedded Microcontroller Systems
(Cross-listed as CSc 552)
Spring; Staff
Hardware and architecture with emphasis on 8051
Microcontrollers; programming in assembly and higher-level languages,
microcomputer applications, and interfacing. Design projects required. This
course is cross-listed in the Union College catalog as an undergraduate course
(352). Graduate students will be expected to complete additional course work
beyond the undergraduates in this class. Prerequisites: Knowledge of computer
programming and Introduction to Digital Computers or equivalent.
EER 554. VLSI System Design
(Cross-listed as CSc554)
Design of very large scale integrated systems including
structured design, stick diagrams, delay time estimation. Design from logic to
physical levels; CAD tools for layout and simulation. Design projects required.
This course is cross-listed in the Union College catalog as an undergraduate
course (354). Graduate students will be expected to complete additional course
work beyond the undergraduates in this class. Prerequisites: Introduction to
Digital Computers and Introduction to Semi-conductor Devices and Circuits or
equivalents.
EER 556. Detection, Estimation and Filtering
Decision criteria, estimation of their parameters, Wiener
and Kalman filters. Prerequisites: Analog Communications and some knowledge of
probability or Probability and Digital Communications, or equivalents.
EER 557. Image Processing
The course covers the basic operations performed on digital
images. These include digitization, image enhancement and restoration, color
image processing, and image compression using the discrete cosine transform and
wavelets. This course is cross-listed in the Union College Catalog as an
undergraduate class (347). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisite:
Discrete Systems or equivalent.
EER 558. Waves in Communication
Spring; Staff
This course will cover the basic concepts needed to develop
electromagnetic devices in wireless communication. These include transmission
line theory and circuits, wave propagation and transmission, elements of guided
waves and resonators, and basic antenna concepts. This course is cross listed
in the Union College Catalog as an undergraduate class (358). Graduate students
will be expected to complete additional course work beyond the undergraduates
in this class. Prerequisite: Intro to Electromagnetic Engineering or
equivalent.
EER 560. Power System Analysis I
Fall; Staff
Power and energy in AC circuits. Single-phase, three-phase
and polyphase circuits in balanced and unbalanced regimes. Measurement of three-phase
power. Determination of three-phase sequence. Single-line diagrams. Per-unit
method of representation and computations. Transformers and synchronous
machines in power systems. Parameters of transmission lines. This course is
cross-listed in the Union College catalog as an undergraduate course (360).
Graduate students will be expected to complete additional course work beyond
the undergraduates in this class. Prerequisite: Electric Circuits or
equivalent.
EER 561. Power System Analysis II
Wave-propagation in transmission lines. Analysis of power
networks, load-flow solutions and control. Three-phase faults and symmetrical
components. Power system protection. Stability of power systems. This course is
cross-listed in the Union College catalog as an undergraduate course (361).
Graduate students will be expected to complete
additional course work beyond the undergraduates in this
class. Prerequisites: Electric Circuits or equivalent.
EER 563. Fundamentals of Wireless Electronics
Fall; Staff
RF components, transmission line theory, Smith chart, 2-port
models, matching networks, RD transitor circuit design. This course is
cross-listed in the Union College catalog as an undergraduate course (463).
Graduate students will be expected to complete additional course work beyond
the undergraduates in this class. Prerequisite: Introduction to Semiconductor
Devises and Circuits or equivalent.
EER 571. System Modeling & Optimization
(ie Computational Intelligence)
(Cross-listed as CSC 571)
Fall; Staff
Topics include the theory, design, and application of
biologically and linguistically motivated computational methods emphasizing
neural networks, genetic algorithms, fuzzy logic, and hybrid intelligent
systems in which these methods are employed. Special emphasis will be placed on
applying these techniques to “real-world” problems, and examples from a broad
range of industrial applications will be presented. Homework assignments and a
final project are required. Prerequisites: undergraduate calculus and linear algebra.
EER 572. Engineering Statistics
Modern engineering practice makes extensive use of
statistical methods for the efficient
collection and analysis of engineering data, and to support
data-based decision making. This course will introduce the statistical tools
that are of greatest importance for practicing engineers. Core topics to be
covered will include probability and distribution theory, the construction and
interpretation of statistical intervals, statistical hypothesis testing,
regression analysis and empirical modeling, statistical experimental design,
and statistical quality/process control. Additional specialized topics may
also be covered, depending upon the interests of the class; possible topics
include system reliability analysis, measurement system analysis, process
capability analysis (and “six-sigma”), accelerated life testing, and acceptance
sampling.
EER XXX Motor Acoustics
Spring; Staff
In development.
EER 573. Case Studies in Failure and Ethics in
Engineering
(Cross-listed as MER 573)
This course provides a broad look at engineering failure and
ethics in engineering. It will focus on engineering failure case studies and
the principles of applied engineering ethics. Course Objectives: To
understand engineering disaster and to learn from these failures. To prepare
engineers for the decisions they may face in their professional careers. Focus
is on mechanical engineering.
EER 580. Fuel Cell Technology
Survey course is to introduce fuel cell technology. The
emphasis will be on the electrochemistry, the polymer materials science of PEM
systems, and the various methods of generating power directly from a fuel and
an oxidant. The course will cover the science and engineering aspects of fuel
cells. The system effects of the stack will be introduced so as to provide a
complete picture of the technology. Elements addressed will range from
thermochemistry, electrochemistry, polymer science, and electrochemical
engineering. Development of an understanding of the proton exchange membrane fuel
cell will be the primary objective. The student is expected to have a broad
understanding of the technical needs, challenges, and opportunities after
completing this course.
Prequisites: Advisor approval.
EER 580A. Photo Voltaic Technology
The course focuses on the physical principles, technology,
and design of efficient semiconductor photovoltaics. Course goals equip
students with the concepts and analytical skills to understand efficiency
limitations, to assess the viability of various solar and thermophotovoltaic
technologies, and to introduce the physics required for understanding
photovoltaic energy conversion. The course will focus on three primary aspects
of photovoltaic energy conversion, (i) the transfer and conversion of solar
(i.e. thermal) radiation to electronic energy, (ii) the theory and design of
the semiconductor photovoltaic cell and (iii) photovoltaic systems and
applications.
Prerequisites: Advisor approval.
EER 580B. Turbine Technology
Course on fundamentals of design, analysis, and technology
of turbo machinery – jet engines, gas turbines, steam turbines, water turbines,
and wind turbines. The course will provide an understanding of all aspects of
system development: thermodynamic cycles, design-point and off-design
performance; function and design of components (inlets, compressors,
combustors, turbines, outlets), operational limits, and environmental concerns;
structural analysis, lifting, and materials; rotor dynamics and blade
aeromechanics; clearance analysis, sealing, and packing; heat transfer, blade
and component cooling; starting and control; power and thrust generation;
testing and instrumentation. The student is expected to develop a broad
understanding of the state-of-the-art, challenges, and future of turbine
systems.
EER 580D. Wind Energy Technology
Spring; Staff
In development.
EER 580E. Solar Energy Technology
Winter; Staff
In development.
EER 581, 582, 583. Special Topics in Electrical
Engineering.
Topics chosen from the current literature according to
faculty and student interest. Possible topics include new developments in the
major areas of electrical engineering such as electromagnetic fields,
communications, controls, circuits, power, devices, electronics, and computer
design. Topics may include but not be limited to image processing, machine
vision, speech synthesis, integrated optics, antenna systems, adaptive
filtering, variational methods, stochastic processes, optical communications,
space and satellite communications, and computer networks. Each of these special
topics courses has a variable content addressing specific current areas of
interest to students. They will be offered whenever the need arises.
EER 590-595. Independent Study
(by arrangement)
Fall, Winter, Spring; Staff
EER 596-597. Research and Thesis
(by arrangement)
Fall, Winter, Spring; Staff
MS IN MECHANICAL
ENGINEERING COURSES
Specific 2007 - 08 scheduled course offerings will be
available via www.uniongraduatecollege.edu
or by contacting the Dean of Engineering.
To ensure that students meet appropriate prerequisites for
all courses, all graduate students are required to have a plan of study on file
that has been approved by the graduate advisor.
Non-Credit-Bearing
Courses
MER 599. Master of Science Graduate Project in Mechanical
Engineering
This non-credit Seminar project provides a capstone
experience for graduate mechanical engineering candidates not completing a
thesis or independent study (i.e. all course work). The candidate and faculty
advisor agree on project scope and evaluation process. The candidate receives a
pass/fail grade which appears on the official transcript. This is a no-fee
course.
Credit-Bearing Courses
MER 500. Elasticity
Winter; Pollack
The behavior of substances which possess the property of
recovering their size and shape when forces producing deformation are removed.
Review of stress and strain; study of two-dimensional problems in rectangular,
polar, and curvilinear coordinates; introduction to three-dimensional problems;
torsion and bending. Prerequisites: Calculus IV: Integral Vector Calculus,
Topics in Analysis, Linear Algebra and Differential Equations, Advanced
Mechanics or equivalents.
MER 501. Transport Phenomena
Spring; Bessler
The fundamentals of momentum, energy, and mass transfer and
their analogous transport mechanisms. One-dimensional transport, transport
properties, transport with internal
generation, transfer coefficients, convective and turbulent
transport. Prerequisites: Linear Algebra and Differential Equations, Heat
Transfer Analysis and Design or equivalents.
MER 502. Engineering Analysis
Fall; Pollack
Topics in applied mathematics needed to analyze and model
engineering problems by constructing mathematical models for a physical situation
and the reduction of the ensuing mathematical problems to numerical procedures.
Matrices, linear algebra, vector and tensor calculus, partial differential
equations, calculus of variations, finite element and difference techniques,
Fourier series and integrals. Prerequisites: Calculus IV: Integral Vector
Calculus, Topics in Analysis, Linear Algebra and Differential Equations, or
equivalents.
MER 506. Mechanical Behavior of Materials
Strain relationships in elastic and plastic behavior.
Metallurgical fundamentals of plastic deformation. Dislocation theory.
Materials testing. Creep and metal fatigue. Prerequisites: MER 500, MER 502 or
equivalents.
MER 507. Design for Manufacturing
Fall; Poeth
Relationships among mechanical design considerations, material
properties and selection, and manufacturing techniques are developed to enhance
manufacturing
productivity and quality. Prerequisites: Dynamics and
Kinematics, MER 502 or equivalent.
MER 508. Fracture Mechanics
Modern theory of fracture in design. Subjects treated
include occurrence of fracture, fracture toughness, fracture resistance, and
fatigue. Offered alternate years. Prerequisites: MER 500, MER 502 or
equivalent.
MER 509. Current Approach to Fatigue in Design
Current approach to the mechanisms of fatigue nucleation,
crack growth, and fracture; high and low cycle fatigue; temperature effects;
predictive equations for design in pressure vessels. Prerequisites: MER 500,
MER 502 or equivalent.
MER 510. Advanced Dynamics
Analytical dynamics with engineering applications to
particles and rigid bodies. Topics include three-dimensional kinematics and
dynamics, Lagrangian dynamics. This course is cross-listed in the Union College catalog as an undergraduate course (451). Graduate students will be expected
to complete additional course work beyond the undergraduates in this class.
Offered alternate years. Prerequisites: Advanced Mechanics, Rigid Body
Mechanics or equivalent.
MER 512. Vibrations of Discrete Systems
Response of single and multi-degree-of-freedom systems to
harmonic, periodic and impulsive excitation. Fourier series and transforms;
ideal impulse and impulse response; convolution in the time and frequency
domains; matrix and modal methods; system eigenvalues and vectors; impulse
testing with a spectrum analyzer. Prerequisites: Dynamics and Kinematics, MER
502 or equivalent.
MER 515. Processing and Selection of Engineering
Materials
A comprehensive examination of processing technologies for
engineering materials, and the effects of selected processing routes and
materials to meet and satisfy design and applications criteria. Prerequisites:
Mechanics II: Materials Science or equivalent.
MER 516. Finite Element Methods in Engineering
Introduction to the use of finite element methods in various
engineering applications. Prerequisites: MER 500, MER 502, or equivalent.
MER 522. Linear Control Systems
Fall; Staff
This course addresses practical control system design
primarily from a classical perspective. Beginning with transfer function
modeling of dynamic systems, the course moves through transient, root locus,
and frequency response analysis to end with frequency domain techniques for
controller design.
MER 525. Engineering Optimization
Introduction to development and application of mathematical
and numerical methods used to analyze engineering problems including
mathematical model building, unconstrained optimization, linear programming,
constrained optimization, transformation and linear programming. Prerequisites:
MER 502 or equivalent.
MER 532. Composites
A comprehensive introduction to composite materials and
motivation for their use in modern applications. Topics include selection and
availability of composite materials, manufacturing processes, useable
theoretical concepts, testing and characterization of composites, and strength
theories. This course is cross-listed in the Union College catalog as an
undergraduate course (452). Graduate students will be expected to complete
additional course work beyond the undergraduates in this class. Prerequisites:
Materials Science, Strength of Materials, or equivalent.
MER 534. Dynamics of a Viscous Fluid
Analysis of Laminar and turbulent flow fields. Approximate
solutions of the Navier-Stokes equations according to boundary layer theory.
Prerequisites: Fluid Mechanics, Topics in Analysis or equivalent.
MER 536. Compressible Fluid Flow
Analysis of internal and external compressible flow fields.
Supersonic airfoil analysis according to shock-expansion theory. Prerequisites:
MER 501, MER 502, or equivalent.
MER 537 Combustion Fundamentals
The study of the chemical and physical processes in
combustion. Analysis of thermochemistry and fuel oxidation, premixed and
diffusion flame phenomena, combustion of condensed phases, detonation,
combustion in practical systems, and combustion generated air pollution.
Prerequisites: MER 501, MER 502, or equivalent.
MER 538. Fluid Dynamics of Turbomachinery
Fall; Brilliant
Analysis of the energy exchange between a
continuously-flowing fluid and a turbomachinery rotor. Study of the design and
operating principles of axial and radial-flow turbines, compressors, and pumps.
Prerequisites: MER 501, MER 502, or equivalent.
MER 540. Thermodynamic Analysis
Consideration of various particulate and continuum bases for
structuring thermodynamic principles and their application to the solution of
current and prospective engineering problems. Prerequisites: MER 501, MER 502,
or equivalent.
MER 550. Conduction Heat Transfer
Study of the equations for steady state and transient heat
conduction using analytical and numerical techniques. Prerequisites: MER 501,
MER 502, or equivalent.
MER 552. Convection Heat Transfer
Fall; Bessler
Analysis of laminar and turbulent heat transfer processes.
Approximate solutions of the energy equation according to boundary layer
theory. Prerequisites: MER 501, MER 502, or equivalent.
MER 554. Flow and Heat Transfer in Multiphase Systems
Analytical and empirical methods for evaluation of flow
characteristics, particularly in liquid vapor systems and boiling and
condensing of heat transfer. Prerequisites: MER 501, MER 502, or equivalent.
MER 560 Nuclear Engineering and Technology
Spring; Staff
Nuclear reactions and radiation; basic concepts and
terminology used in reactor theory; radiation shielding; heat generation and
transfer in nuclear reactors; study of reactor design variables with reference
to existing designs.
MER 571. System Modeling & Optimization (ie
Computational Intelligence)
Topics include the theory, design, and application of
biologically and linguistically motivated computational methods emphasizing
neural networks, genetic algorithms, fuzzy logic, and hybrid intelligent
systems in which these methods are employed. Special emphasis will be placed on
applying these techniques to “real-world” problems, and examples from a broad
range of industrial applications will be presented. Homework assignments and a
final project are required. Prerequisites: undergraduate calculus and linear
algebra.
MER 572. Engineering Statistics
Modern engineering practice makes extensive use of
statistical methods for the efficient
collection and analysis of engineering data, and to support
data-based decision making. This course will introduce the statistical tools
that are of greatest importance for practicing engineers. Core topics to be
covered will include probability and distribution theory, the construction and
interpretation of statistical intervals, statistical hypothesis testing,
regression analysis and empirical modeling, statistical experimental design,
and statistical quality/process control. Additional specialized topics may
also be covered, depending upon the interests of the class; possible topics
include system reliability analysis, measurement system analysis, process
capability analysis (and “six-sigma”), accelerated life testing, and acceptance
sampling.
MER 573. Case Studies in Failure and Ethics in
Engineering
(Cross-listed as EER 573)
This course provides a broad look at engineering failure and
ethics in engineering. It will focus on engineering failure case studies and
the principles of applied engineering ethics. Course Objectives: To
understand engineering disaster and to learn from these failures. To prepare
engineers for the decisions they may face in their professional careers. Focus
is on mechanical engineering.
MER XXX Motor Acoustics
Spring; Staff
In development.
MER 580 Fuel Cell Technology
Survey course is to introduce fuel cell technology. The
emphasis will be on the electrochemistry, the polymer materials science of PEM
systems, and the various methods of generating power directly from a fuel and
an oxidant. The course will cover the science and engineering aspects of fuel
cells. The system effects of the stack will be introduced so as to provide a
complete picture of the technology. Elements addressed will range from
thermochemistry, electrochemistry, polymer science, and electrochemical
engineering. Development of an understanding of the proton
exchange membrane fuel cell will be the primary objective. The student is
expected to have a broad understanding of the technical needs, challenges, and
opportunities after completing this course.
Prequisites: Advisor approval.
MER 580A Photo Voltaic Technology
The course focuses on the physical principles, technology,
and design of efficient semiconductor photovoltaics. Course goals equip
students with the concepts and analytical skills to understand efficiency
limitations, to assess the viability of various solar and thermophotovoltaic
technologies, and to introduce the physics required for understanding
photovoltaic energy conversion. The course will focus on three primary aspects
of photovoltaic energy conversion, (i) the transfer and conversion of solar
(i.e. thermal) radiation to electronic energy, (ii) the theory and design of the
semiconductor photovoltaic cell and (iii) photovoltaic systems and
applications.
Prerequisites: Advisor approval.
MER 580B Turbine Technology
Course on fundamentals of design, analysis, and technology
of turbo machinery – jet engines, gas turbines, steam turbines, water turbines,
and wind turbines. The course will provide an understanding of all aspects of
system development: thermodynamic cycles, design-point and off-design
performance; function and design of components (inlets, compressors, combustors,
turbines, outlets), operational limits, and environmental concerns; structural
analysis, lifting, and materials; rotor dynamics and blade aeromechanics;
clearance analysis, sealing, and packing; heat transfer, blade and component
cooling; starting and control; power and thrust generation; testing and
instrumentation. The student is expected to develop a broad understanding of
the state-of-the-art, challenges, and future of turbine systems.
MER 580C Principles of Thermal Systems
This course will focus on the analysis and modeling of
thermal systems as applied particularly to the energy and environmental demands
of today. The underlying common principles of thermal systems as related to
energy conversion, utilization and storage will be considered. The course
incorporates the fundamentals of heat engine and refrigeration cycle analysis,
moist air psychometrics, and the dynamic behavior of traditional and renewable
energy systems. Prerequisites: MER 502 (Engineering Analysis), MER501
Transport Phenomena) or equivalent understanding of thermal systems and
analytical capability.
MER 580D. Wind Energy Technology
Spring; Staff
In development.
MER 580E. Solar Energy Technology
Winter; Staff
In development.
MER 590-591. Independent Study
(by arrangement)
MER 592A. Masters Project
(by arrangement)
The preparation and writing of an extensive report on a
topic of interest between the student and a department faculty member. A single
course presented over two terms; one grade will be given for two terms of work
only. Enrollment recommended no earlier than the last year of study. See MER
592B.
MER 592B. Masters Project
(by arrangement)
Continuation from MER 292A. Completed writing of the report
and its oral presentation. Students must register for MER 592B even though they
have previously registered for MER 592A. Open only to part-time graduate
students.
MER 596-597. Research and Thesis
(As arranged by department).
SCHOOL OF MANAGEMENT COURSES
MBA students must take at least eight (8) core courses,
including MBA 510/512 and MBA 506, prior to taking any advanced course.
With the exception of MBA 570, MBA students must take all
core courses in each subject category prior to taking any advanced course in
that category.
Health students must take HCM 500 and HCM 501 before taking
any advanced course.
MBA COURSES
Specific 2006-07 course offerings are identified below and
updated via www.uniongraduatecollege.edu
or by contacting the Dean of The School of Management.
To ensure that students meet appropriate prerequisites for
all courses, all graduate students are required to have a plan of study on file
that has been approved by the graduate advisor.
*600 Series Indicates
Advanced Course
MBA 500. Managing Ethically in a Global Environment
Fall, Winter, Spring; Mathias / Summer;
Belasen
This course examines issues of team functioning, ethics, and
managing differences all in an increasingly global business environment.
Students work individually and in groups to improve written and verbal
communication skills.
MBA 501 (Half Course). Mathematics of Management
Fall, Winter; Bowman
This course focuses on mathematics useful in modeling
management processes. Fundamental concepts of differential and integral calculus
and their applications to management are addressed. Students must register
separately for MBA 501 and MBA 502.
MBA 502 (Half Course). Introduction to Probability
Fall, Winter; Bowman
This course covers marginal, joint and conditional
probability; random variables, expected value and variance; selected
probability distributions and their uses in management; and sampling
distributions and the Central Limit Theorem. Students must register separately
for MBA 501 and MBA 502. Prerequisite: MBA 501.
MBA 506. Statistical Models for Management
Fall, Winter; Oppenlander; Fall, Spring; Schmee
This course emphasizes statistical approaches (confidence
intervals, hypothesis testing, regression analysis, chi-square tables) that
support managerial decision-making. Examples of such decisions include
determining the best of several suppliers or appropriate salary levels based on
education and required skill. Examples from quality management, such as
capability analysis and control charting will also be included. Emphasis will
be placed on problem statement formation, translation of problem statements
into quantitative terms, and finding appropriate data to reach supportable
conclusions. Analysis will be performed using statistical and other software.
Prerequisites: MBA 501, and MBA 502.
MBA 510. Financial Accounting
Fall; Arnold; Winter, Spring, Summer; Lewis
An introduction to the “generally accepted accounting
principles” of financial accounting as applied to publicly
reported financial statements. Emphasis is to be placed on understanding the
application of “generally accepted accounting principles” to financial
statements. This course is designed for individuals with no prior academic or
professional education on the topic of financial accounting.
MBA 512. Managerial Accounting
Fall, Spring, Summer; (On-line) St. John; Spring (In
class) Staff
An introduction to the tools and techniques of financial
analysis and decision-making. Topics covered include financial statement
analysis, cost classification and behavior, cost-volume-profit analysis,
incremental cost analysis, time value of money, capital budgeting, and
financial planning. Spreadsheet programs are used in this course. Prerequisite:
MBA 510. Students are expected to be proficient in the use of Microsoft Excel®.
MBA 517. Advanced Corporate Finance
Fall, Winter, Spring; Feng
This course covers advanced topics in corporate financial
management. The analytical skills necessary to evaluate complex financial
problems are developed through case studies. Topics covered include: advanced
capital budgeting, agency theory, option theory and applications, measuring and
hedging financial risk, merger and acquisition analysis, corporate financial
analysis and planning models, and short-term financial management. Prerequisites:
MBA 506, 510 and 512.
MBA 520. Principles of Economics
Fall (In class), Spring (On-line); Lambrinos
This course covers the basic microeconomic model of price
determination; the impact of market structure on price and output decisions by
firms; the role of the public sector in an economy; the basic macroeconomic
model of national income determination; the impact of fiscal and monetary
policies on employment levels, price stability and economic growth; and
international economic relationships.
MBA 525. Marketing Management and Strategy
Fall, Winter, Spring; Carlson; Summer; Staff
In this course, marketing-related considerations for
organizations, both generally and specifically, are discussed in a manner that
is designed to provide students with a basic-level understanding of issues
organizations face which have strategic importance from a marketing
perspective.
MBA 531. Operations Management
Fall, Winter, Spring; Bowman Winter; Kauffman
This course starts with a look at total quality management
with an emphasis on the Six Sigma approach to process improvement. Next the
fundamentals of inventory management are discussed with the primary objective
being to understand the causes of inventory and how to effectively reduce
inventory levels. This topic is expanded into the important topics of lean
supply chain design and management, and lean production management. A balanced
approach is taken with coverage of tools but also an emphasis on the impact of
strategic and managerial decisions on the effectiveness of various approaches
to operations management.
MBA 545. Strategic Use of Information Technology
Fall, Winter, Spring, Summer; McCorkle
The course considers the use of management information
systems within the organization, specifically addressing what an information
system is, the underlying technologies, and how current and future computing
and telecommunications technologies will contribute to the daily operation and
competitiveness of the organization. Particular emphasis is placed on use of
information systems to gain competitive advantage.
MBA 551. Managing People and Teams in Organizations
Fall, Spring, Summer; Nydegger; Winter; Moore
This course approaches management issues from the “human”
side. By relying on text materials related to basic theory and research in
management, and by integrating activities and hands-on learning opportunities,
students have a broad range of techniques that equip them to function as
effective managers in modern organizations. Particular emphasis is given to
skills and activities associated with Total Quality Management.
MBA 570. Legal Principles of Business
Fall; Hogan Winter; Valle
The objectives of the course are to enable the business
manager to identify situations with legal implications and to interact effectively
with professional legal counsel. Particular areas of the law examined during
the course are contracts, sales, negotiable instruments, negligence, product
liability, secured transactions, and ethical considerations. Not open to JD/MBA
students.
MBA 611. Personal Financial Planning
This two-part course first presents an examination of
personal financial planning in a global environment encompassing topics such as
personal budgeting, insurance coverage, investment planning, managing credit,
retirement planning and estate planning. The course then extends the topics to
related domestic and international tax issues of income tax considerations for
individuals, corporations and partnerships. Knowledge of the current
business environment (tracked through the Wall Street Journal, Business Week,
online at CNNFN.com, etc.) will be expected. Prerequisites: MBA 510 and 512.
MBA 619. Investments*
Fall, Spring; Feng
This course provides an in-depth analysis of modern
investment analysis and portfolio management techniques. Current theory,
empirical evidence, and institutional practices are considered. Topics covered
include portfolio theory and asset pricing models, market efficiency,
fixed-income portfolio management and immunization, equity valuation models, the
valuation of options, futures and other derivative securities, portfolio
management and performance evaluation, and international diversification.
Recommended: MBA 517. Prerequisites: MBA 510 and 512.
MBA 620. Investment Management
Every other week for all three terms; Feng
The preliminary goal of this course is to provide students
with an opportunity to gain valuable hands-on experience in fiduciary
management of investment assets, such as security research, valuation of risky
assets, asset allocation, and portfolio management. Investment is a field of
business where intuition often plays a more important role than theoretical
knowledge. In this course, we discuss the rapid development in investment
theory that helps us identify the factors that are responsible for price
movements. We focus on how to apply theory into practice. Students will work on
challenging, integrated, analytical projects using real time capital market
data. This course will increase the student’s knowledge in industries such as equity
research, investment banking, commercial banking, and corporate finance. This
course runs for three terms starting in the fall term. This course is run in
conjunction with the Investment Club; therefore participation in the Investment
Club is required. Prerequisites: MBA 510 and 512.
MBA 624. Sports Economics
Spring; Lambrinos
Topics covered in this course include the measurement of
competitive balance and its impact on sports leagues; discrimination in sports;
efficiency of sports teams and individual athletes; labor unions and labor
relations in professional sports; the efficiency of sports wagering markets;
and the estimation of marginal product for professional athletes.
Prerequisites: MBA 506 and 520.
MBA 626. Marketing Research Techniques
Fall, Spring; Carlson
The objective of this course is to provide comprehensive
exposure to marketing research methods. The course is designed for the manager
with ultimate responsibility for identifying the scope of and implementing
particular market research activities. The course explores the application of
scientific investigation to the identification and solution of marketing
problems. Prerequisites: MBA 506 and 525.
MBA 628. Consumer Behavior
Winter; Carlson
This course is designed to enhance your understanding of
consumers like you and me. To that end, we will explore the current state of
knowledge regarding consumer behavior through discussion of several theories
and marketplace exemplars. This exploration will identify many, many influences
that may shape an individual’s behaviors in the marketplace, with subsequent
discussions regarding the impact of these influences on various managerial
decision-making situations. Prerequisite: MBA 525.
MBA 629. Money, Markets and Banking
Winter, Summer; Murtaugh
The course covers the nature and functions of money and
finance in the economy. Commercial and central banking, monetary theory, and
monetary policy are also considered. Recommended: MBA 517. Prerequisites: MBA
510 and 512.
MBA 632. Quality Systems Management
Fall; Doganaksoy
This course examines quality improvement approaches in the
context of overall organizational objectives. Topics include: the contents and
impact of important government and industry standards such as ISO 9000; Six
Sigma, including the Measure-Analyze-Improve-Control model (MAIC) and Design
for Six Sigma (DFSS); extensions to benchmarking and quality functional
deployment; advanced tools, such as systems reliability and maintainability and
life data analysis. Prerequisites: MBA 506 and 531.
MBA 641. Systems Analysis and Simulation
Winter; Bowman
In this course students build and utilize computer
simulation models to analyze a wide range of systems. Applications include
restaurants, doctors’ offices, customer call centers, and many others. Models
are built using specialized simulation software as well as Microsoft Excel.
Prerequisites: MBA 506 and MBA 531.
MBA 650. Competing by Design
Winter, Summer; Belasen
Design often signals a shift in strategic emphasis and
patterns of organizational performance. Design can also be used to shape an
organization’s tone or operating style. Dramatic and lasting restructuring or
reengineering plans often fail without the mindset of change architects who
share the new strategic vision and corporate values. The ultimate goal of
design is to use organizational structures, systems, and processes creatively
as a sustainable source of competitive advantage. This course focuses on
examining how successful corporations leverage competitive advantages through
restructuring and external alliances. Students will apply theoretical knowledge
and conceptual models to analyze organizational structures, diagnose
organizational design, and evaluate a range of design options and
implementation strategies available for transitioning organizations. Topics
include corporate downsizing, strategic control systems, horizontal structures,
outsourcing, partnerships, virtual forms, and global design. Prerequisite: MBA
551.
MBA 652. High Performance Leadership
Spring; Belasen
This course emphasizes cognitive skills and experiential/
practicum learning applied to ongoing leadership and organizational problems.
Students learn about leadership roles and competencies essential for building
and supporting organizational capabilities and business strategies in global
markets. The course also enables students to learn a method to diagnose their
strengths and weaknesses in leadership capacities and measure their
proficiencies against benchmarked models of high performance leadership.
Prerequisite: MBA 551.
MBA 653. Organizational Development and Transformation
Winter; Nydegger
This course considers the theory and practice of planned
organizational change. Students are exposed to a variety of intervention
techniques applicable in a wide range of
organizational settings. Lectures are complemented with
participatory exercises and interactive discussions. Prerequisite: MBA 551.
MBA 656. Ethical Issues in Management
Fall; Mathias
The purpose of this course is to develop a general
management perspective that includes the abilities to: 1) identify ethical
issues in management, 2) analyze these issues in terms of several important
frameworks for ethical reasoning and 3) appreciate the central role of ethics
in managerial decision-making. Issues from a variety of the functional areas of
business – including accounting, marketing and advertising, financial services,
human resources, and information technology – will be considered. The course
will rely heavily upon the case analysis method, group discussion, and group
presentations.
MBA 654. Labor Relations
Summer; Ari Belasen
This comprehensive course ties together the history of
modern labor movements in the United States with issues facing workers in the
Twenty-First Century, including the impact of globalization and international
outsourcing. Subtopics include negotiation, conflict resolution, and workforce
diversity. In addition, a comparative study on international unions will be
examined. Each week, current events and their implications to labor relations
will be discussed. Prerequisite: MBA 551 recommended.
MBA 660. Executive Decision Processes in Global Environments
Fall; Belasen
Along with information technology, international management
is the major challenge facing organizations in the hypercompetitive global
marketplace. Companies that once served a specific geographic area or serviced
a specific need have learned to compete with anybody, anywhere, anytime.
Needing to diversify in order to compete effectively, an increasing number of
multinational companies are finding it essential to anticipate changes and
innovate continually to become world-class organizations. Global management
requires visionary leaders and strategic thinkers who are driven by a customer
focus and continuous improvement, supported by a fluid virtual organization and
sustained by creative human capital and extensive information technology. These
leaders must also recognize the existence of cognitive barriers to
decision-making and how to overcome decision traps and make better choices for
their multinational
companies. Using Internet-based search engines, cases, and
small group projects, students will have hands-on experiences and acquire the
skills necessary to become successful decision makers for their multinational
companies. Prerequisite: MBA 551
MBA 661. International Finance
Winter; Luzine
An analysis of international financial markets and the
special problems and opportunities associated with the financial management of
multinational firms. The international
monetary and banking system, balance of payments, and
economic parity relationships are also examined. Foreign exchange risk
management, international financing activities, multinational capital
budgeting, political risk, international taxation issues and diversity of
financial reporting are considered. Prerequisites: MBA 506, 510 512 and 517.
MBA 662. International Business
Fall; Shaye
This course examines international business management as
influenced by the important economic, political and cultural environment within
which businesses must conduct international trade and investment. The problems
and issues confronting international managers are evaluated related to a firm’s
strategy, organizational structure, manufacturing, material management,
marketing, R&D, human resources and finance. Competitive strategies are
examined that have been successful in leading international companies. Case
studies are used extensively to illustrate the relevance of these topics in the
practice of international business.
MBA 664. Entrepreneurship
Winter; Schwartz/Buse
Course held off campus, 8 Airport Park Blvd, Latham, NY (http://www.shggroup.com.contactus.htm
) for directions.
The primary objective of this course is to develop an
awareness of the process of new venture creation, whether it is an
intrapreneurial or entrepreneurial event. The skills, knowledge and attitudes
important for creating new ventures, and the complex tasks faced by individuals
who start and manage new and growing businesses as well as corporate ventures
and franchises will be addressed. The course is designed to provide a broad
overview of management and financial issues. We will pay particular attention
to: entrepreneurial decision-making, techniques entrepreneurs and investors use
for evaluating and testing the feasibility of business opportunities,
understanding the impact of market and industry forces on start up, performance
and survival of new ventures, financing a business opportunity, etc. Prerequisite:
MBA 551.
MBA 665. International Marketing Management
Spring; Shaye
This course examines development of international marketing
strategies, from determining objectives and evaluating international market
opportunities through coordinating strategies in world markets. Particular
emphasis is placed on application of marketing principles in the multinational
environment. Prerequisite: MBA 525.
MBA 667. Leaders on Leadership
Robb; Lehrman – This course runs for three terms in a
non-traditional formatting, meeting one evening every other week (Tuesdays)
over the course of the year, from 4:30 – 6:00pm.
Through a series of interviews/presentations by highly
regarded Tech Valley leaders, this elective MBA course will provide students
with an understanding of what it takes to be a dynamic organizational leader.
In addition to learning about the current challenges faced and strategies
employed by these outstanding professionals, the course will focus on
strategies new managers can pursue on the job to bootstrap their way to
success. Building upon a base of classic academic literature, current books
and articles on the topic of leadership will be explored.
Teams of students will be tasked with preparing supporting
materials for the speakers featured during each class session. This will
require reading material focused on the assigned topic, formulating interview
questions for the speakers, meeting in advance with the speakers to prepare for
the session, and then helping to facilitate the speakers’ presentations during
class. Each team will be expected to write a paper addressing its assigned
topical area. Other course assignments will include preparation of case
studies related to the various topical areas addressed during the course.
Several company visits will also be included. Prerequisites: none.
MBA 675. Foundations of Human Resource Management
Winter; Paludi
An introduction to the theory and practice of human resource
management that examines the psychological, economic, political, legal and managerial
aspects of the following functions: recruitment and selection, job analysis,
human resource planning, training and development, foundations of selection,
employee rights and ethics, and equal employment opportunity. The focus of this
course includes profit, non-profit and governmental organizations with
particular emphasis on health care delivery firms. Prerequisite: MBA 551.
MBA 676. Managing Human Resources
Spring; Paludi
An introduction to the theory and practice of the following
human resource management functions: performance appraisals, establishing
rewards, pay plans and benefits, health and safety in the workplace, workplace
violence, effective workplace communications, discipline and corrective action,
labor relations and collective bargaining. Three perspectives will be addressed
in each function: management, psychological and legal. The focus of this course
includes profit, non-profit and governmental organizations with particular
emphasis on health care delivery firms. Prerequisite: MBA 551.
MBA 677. International Human Resource Management
Summer; Paludi
International Human Resource Management will focus on how
effective human resource policy and practice contributes to a global company’s
competitiveness. This course will be considered within the context of strategic
business objectives, culture, and resource management constraints given by the
various national entities. Special focus will be placed on understanding the
unifying human resource policies that support the strategic objectives of a
global organization. This course will draw on practical examples from companies
that have experienced challenges of international human resource management.
Prerequisite: MBA 551
MBA 681. Strategic Management and Leadership (MBA
Capstone)
Winter, Spring; Chudzik and Huppertz
The goal of this course is to integrate all of the MBA
course work to prepare the students to address the full scope of business they
will face as leaders in the business world. This is done by having student
teams work with real start-up companies to develop a complete business plan for
the company. The plans are developed in phases over the term with the teams
working closely with their companies and culminating in a presentation of the
plan to a simulated investor panel made up of the company CEOs. Students must
have three or fewer courses left to complete the degree requirements after
taking MBA 681.
MBA 682. Management Science
Spring; Bowman
Management science refers to the use of mathematical/
computer models to solve managerial problems or help make
managerial decisions. This course covers the management science tools most
widely used in industry (mathematical programming, queuing theory, decision
analysis, network models of project management, and an introduction to simulation).
Students will learn the solution procedures associated with each approach,
utilize software to implement the procedures, and conduct case studies using
the computer models. Prerequisites: MBA 506 and 531.
MBA 683. Management Internship
No fee; Fall, Winter, Spring, Summer
MBA 690. Independent Study
Written permission of the instructor and Dean is required.
MBA IN HEALTHCARE
MANAGEMENT COURSES
HCM 500. Introduction to Health Systems
Fall; Strosberg
(Cross-listed as LIM 502)
This course examines the determinants of health, illness,
and medical care utilization, institutional arrangements and settings for the
delivery of acute and chronic care, the
doctor-patient relationship, resource allocation and
financing, and measuring and evaluating system performance. This is a
prerequisite to all advanced health courses.
HCM 501. Health Systems Management
Winter; Nydegger
This course examines the various aspects of managing in the
modern health care environment. A variety of methods including lectures, case studies,
in-class exercises, and student presentations will be used. Topics covered
include quality improvement, ethical management, managing diversity,
communications, leadership, motivation, team building, and conflict resolution.
Prerequisite: HCM 500.
HCM 526. Health Systems Marketing
Winter; Huppertz
This course introduces students to the principles of
marketing and their application to Healthcare settings. At the end of this
course, students should a.) Understand what marketing can do for the healthcare
organization in terms of contribution to strategic planning, building business,
strengthening relationships between the organization and its constituents, and
achieving competitive advantage. b.) Clearly understand how to use health data
in marketing planning and implementation. c.) Appreciate the challenges of
evaluating the effectiveness of marketing communications investments made by
healthcare organizations. d.) Understand the relationship between
patient/customer satisfaction and service quality in health organizations. e.)
Understand how to judge marketing communications quality, both qualitatively
and quantitatively. f.) Demonstrate effective communications skills through
in-class participation, writing assignments, and class presentations. g.) Analyze
marketing problems and select effective strategies for solving them. h.)
Understand key marketing concepts and their applications to business and
healthcare organizations.
HCM 571. Clinical Leadership Practicum
(Cross-listed as LIM 571 - Spring; Strosberg)
Students will work in the field with a preceptor in a
clinical leadership role. Students may be placed in a variety of health care
settings including: hospitals, physician offices, health maintenance
organizations, etc. Classes meet every other week to discuss students’ field
experiences and selected readings.
HCM 690. Independent Study in Health Systems
Students pursue programs of independent study in a
particular area of health systems under the supervision of a faculty member.
Written permission of the instructor and MBA Dean is required.
HCM 617. Healthcare Finance
Winter, Spring; Colacino
This course covers financial management in a regulated
health care environment. Topics include cost-finding and third-party
reimbursement, contemporary issues in health care financing, sources of
capital, capital budgeting, financial planning and analysis, cost accounting,
and managed care issues. Prerequisites: MBA 510 & 512.
HCM 620. Health Economics
Fall; Lambrinos
This course is intended for students entering the health
field and investigates economic approaches to problems and solutions. Students
obtain an understanding of how
economics contributes to public and private decision-making
in health care, and learn to properly interpret economic research results and
apply them to work performed by health planners and administrators.
Prerequisites: HCM 500, MBA 506 and 520.
HCM 645. Introduction to Strategic Use of Information
Technology (1/2)
Fall, Winter, Spring, Summer; McCorkle
This is a five-week introductory class which will cover the
basic concepts of information technology. Specific topics include hardware,
software, databases, and telecommunications. Class will be a mix of lecture,
class participation, and guest speakers. Case studies, along with discussion of
contemporary IT events and situations will be used to demonstrate the
importance and impact of IT in the modern world. The focus of the course is on
real-world problem solving and interactive discussions rather than a
presentation of facts. This course is the first five weeks of MBA 545. This
course is a prerequisite for HCM 646 Health Information Technology.
HCM 646. Health Information Technology (1/2)
Winter; Smith
HCM 646 builds on the information technology foundation
presented in HCM 645 by focusing on clinical and administrative applications
commonly found in health care organizations. The course surveys the historical
development, structure, role and use of information systems in the management,
strategic planning and operation of health service organizations. Emphasis is
on information technology from the end user’s perspective, particularly the
role of information technology in patient safety, quality management and how
information technology supports the efficient and effective delivery of health
services to the target population. Prerequisite: HCM 645 Introduction to the
Strategic Use of Information Technology.
HCM 650. Structural Dynamics in Healthcare Systems
Fall; Strosberg
Application of organization theory to health care organizations
and systems for the purpose of improving performance. Topics include:
organizational structure and design, coordination and control, power and
politics, organizational culture, organizational ethics, organizational change.
Prerequisites: HCM 500 and 501.
HCM 656. Group Practice Administration
Seminar and Practicum*
Winter; Staff
The objective of this course is to introduce students to the
organization and management of private group practice through seminar and
practical experience. It is intended that this course will prepare students for
employment in private group practices and/or other ambulatory care
organizations. Prerequisites: HCM 500 and 501.
HCM 674. Legal Aspects of Healthcare
Summer; Zambri/Hussar
(Cross-listed as LIM 674)
This course is designed to familiarize students with basic
legal issues involved in managing health care systems. Antitrust, consent,
labor law, malpractice, professional rights and other problems are explored
using actual and hypothetical case studies. Not open to JD/MBA students.
HCM 680. Health Policy and Managerial Epidemiology
Spring; Strosberg and Stephens
(Cross-listed as LIM 670)
This course covers two main topics. The first (focusing on
public policy formulation and implementation) is designed to provide an understanding
of the political and regulatory environment of health care organizations. The
second focuses on understanding and applying basic epidemiological
methodologies to the health care management arena. Prerequisites: HCM 500 and
501.
HCM 681. Strategic Issues for Healthcare Organizations
(Health MBA Capstone)
Spring; Huppertz and Smith
This course is designed to integrate the concepts and skills
associated with managerial problem-solving learned throughout the MBA in Health
Systems Administration program. Students analyze case studies addressing the
strategic realignment of health service organizations in today’s turbulent
environment. A variety of expert practitioners present their views on this
topic. Students must have three or fewer courses left to complete after taking
HCM 681.
HCM 683. Health Internship
No fee; Fall, Winter, Spring, Summer
HCM 684. Strategic Issues for Healthcare Organizations (Capstone)
Summer; Staff
This course is designed to integrate the concepts and skills
associated with managerial problem-solving learned throughout the MBA in Health
Systems Administration program. Students analyze case studies addressing the
strategic realignment of health service organizations in today’s turbulent
environment. A variety of expert practitioners present their views on this
topic.
STA 501. Introduction to Probability and Statistics
Winter; Eno
This course studies the fundamentals of applied probability,
most important distributions, acceptance sampling, confidence intervals, point
estimation, and tests of hypotheses.
CENTER FOR
BIOETHICS AND CLINICAL LEADERSHIP COURSES
MS IN BIOETHICS COURSES
BIE 500. Proseminar in Health and Human Values
Summer (two weeks in August), On-site, D, Union Graduate
College w/ Clinical Visit to Mount Sinai School of Medicine (NYC); Baker,
Rhodes
An intensive two-week introduction to current topics in
clinical ethics and bioethics, taught seminar style at Union Graduate College, with a clinical visit to Mount Sinai School of Medicine in New York City.
This overview of current issues in bioethics humanities involves four special
pro-seminars, case conferences and ethics rounds. There will also be training
in the computer skills (demonstrations, workshops) essential to mastering
distance learning. Must be taken in the first fifteen months of enrollment.
BIE 510. Biomedical Ethics
Fall, Distance Learning; Baker
An advanced historically-based introduction to bioethics and
clinical ethics focusing on such formalizations of medical morality as the
Hippocratic Oath, the AMA codes, the Belmont Report and Beauchamp and Childress
Principles, and the idea of casuistry. Major cases in bioethics will also be
reviewed and the evolution of the core concepts and infrastructure of medical
ethics and bioethics will be examined.
BIE 520. Healthcare Policy
Winter, Distance Learning; Strosberg
This course provides an understanding of the public
policy-making process and the political and regulatory environment in which
health care organizations function. It also provides an understanding of
managerial processes, politics, and structure of the health care organizations
where ethical policies and practices are implemented and carried out on an
ongoing basis. Policies for consideration include resource allocation,
end-of-life decision-making, accountability and performance measurement, and
conflict-of-interest.
BIE 530. Bioethics and the Law
Spring, Distance Learning; Greenlaw and Ouellette
This course is designed to familiarize students with major
legal issues and legal concepts relevant to bioethics.
BIE 545. Reproductive Ethics
(elective)
Summer, Distance Learning; Steinbock
An investigation of the ethical and legal problems
associated with new reproductive technologies and genetics.
BIE 555. Research Ethics
(elective)
Fall, Distance Learning; Gligorov
A course in research ethics including a discussion of the
IRB process.
BIE 565. Empirical Research Methods in Bioethics
(elective)
Winter, Distance Learning; Oppenlander
A course in empirical research methodology designed to teach
how to conduct empirical research in the field, and how to analyze the
empirical bioethics literature.
BIE 590. Clinical Ethics
Winter, Distance Learning; Rhodes
This course deals with the practical applications of
clinical ethics, including clinical ethics consulting and its recording and
documentation, the work of ethics committees and IRBs, and other practical
ethics of clinical ethics.
BIE 610. On-Line Practicum
Spring, Distance Learning; Orr, Rhodes, Strosberg
A supervised practical experience in clinical ethics
designed to teach skills of clinical ethics consultation. Prerequisite: BIE
590.
BIE 620. On-Site Practicum
Spring, On-site, Mount Sinai School of Medicine
A supervised practical experience in clinical ethics
designed to teach skills in clinical ethics consultation. (One week during
Spring Term) Prerequisite: BIE 590.
BIE 630 & BIE 640. Masters Project
Winter and Spring, Distance Learning
The masters project in bioethics or clinical ethics, will
involve two terms of research culminating in a written document addressing some
aspect of clinical ethics or bioethical policy, such as a proposal to revise or
reform practices at a medical institution or managed care organization, or a
proposal to change bioethical policy.
BIE 650. Capstone
Spring, On-site, Union Graduate College
Capstone practicum in which students demonstrate their mastery
of clinical ethics, research ethics, or health policy. (One week during Spring
Term)
MS IN CLINICAL LEADERSHIP
COURSES
PHL 574. Biomedical Ethics
Spring E; Baker
An advanced historically based introduction to bioethics and
clinical ethics focusing on such formalizations of medical morality as the
Hippocratic Oath, the AMA codes, the Belmont Report and Beauchamp and Childress
Principles, and the idea of casuistry. Major cases in bioethics will also be
reviewed and the evolution of the core concepts and infrastructure of medical
ethics and bioethics will be examined.
LIM 500. Introduction to Health Systems
Fall D; Weiner
This course examines the determinants of health, illness,
and medical care utilization, institutional arrangements and settings for the
delivery of acute and chronic care, the
doctor-patient relationship, resource allocation, and the
measuring and evaluating system performance.
LIM 502. Introduction to Health Systems
(Cross-listed as HCM 500)
This course examines the determinants of health, illness,
and medical care utilization, institutional arrangements and settings for the
delivery of acute and chronic care, the
doctor-patient relationship, resource allocation and
financing, and measuring and evaluating system performance. This is a
prerequisite to all advanced health courses.
LIM 503. Healthcare Leadership
Winter D; Strosberg
This course examines managerial roles and processes within
health service organizations - organization design, managerial epidemiology,
governance, total quality management, human resource management, labor
relations, and ethics. Prerequisite: LIM 500.
LIM 544/545. Health and Human Values
Summer (two weeks in August), On-site, D, Union Graduate
College w/ Clinical Visit to Mount Sinai School of Medicine (NYC); Baker,
Rhodes
The seminar in Health & Human Values I & II (LIM 544
& LIM 545) is an intensive two-week introduction to current topics in
clinical ethics and bioethics. The courses are taught seminar style, at Union Graduate College and the Mount Sinai School of Medicine. Students are immersed in
clinical case conferences, attend ethics rounds and are given an overview of
current issues in bioethics.
Leading scholars from around the US conduct special
pro-seminars for the Leadership in Medicine students and students in the Bioethics Program; a joint program
between Union Graduate College and the Mount Sinai School of Medicine. Students
in the two programs work in teams to prepare case analyses guided by
professional clinical ethicists.
LIM 553. Economics of Health
Spring; Chang
Examination of demand and supply for medical personnel;
analysis of hospital cost, inflation, and health insurance. Discussion of
issues in cost benefit analysis of public health and regulation of health care
markets.
LIM 571. Clinical Leadership Practicum
Spring; Strosberg
(Cross-listed as HCM 571)
Students will work in the field with a preceptor in a
clinical leadership role. Students may be placed in a variety of health care
settings including: hospitals, physician offices, health maintenance
organizations, etc. Classes meet every other week to discuss students’ field
experiences and selected readings.
LIM 674. Legal Aspects of Healthcare
(Cross-listed as HCM 674)
This course is designed to familiarize students with basic
legal issues involved in managing health care systems. Antitrust, consent,
labor law, malpractice, professional rights and other problems are explored
using actual and hypothetical case studies. Not open to JD/MBA students.
LIM 670. Health Policy and Managerial Epidemiology
(Cross-listed as HCM 680)
This course covers two main topics. The first (focusing on
public policy formulation and implementation) is designed to provide an
understanding of the political and regulatory environment of health care
organizations. The second focuses on understanding and applying basic
epidemiological methodologies to the health care management arena.
Prerequisites: HCM 500 and 501.