DEPARTMENTAL
COURSE SYLLABUS
1. Course Prefix and Number: EDF 7493
2. Course Title: Systems Approaches
to Educational
Program Planning, Evaluation and
Development
3. Course Prerequisites (if any): Advanced Graduate Standing
4. Course Description: The
successful completion of the course requirements is expected to result in
increased ability to analyze complex
phenomena in a systematic way, (b) apply systems approaches to problems arising
from the operations of schooling processes, (c) develop coherent and
comprehensive plans for systems and (d) communicate effectively with peers and
other professionals on complex issues.
5. Course Goals and Objectives:
The
Consistent with
this conceptual framework, the course is intended to introduce students to
the concepts, methods, and applications of General System Theory. The emphasis
will be on methods and applications most frequently encountered in the social
sciences research, especially in the field of education.
Course Objectives: Students
who successfully complete all course requirements should be
able to:
a. Define
basic concepts of General Systems Theory.
b.
Differentiate
systems approaches from traditional
scientific methods,
c.
Analyze
existing systems and identify potential areas for systems improvement.
d. Design
systems to accomplish education‑related goals.
Topics Assignments
_________ __________________________________
PART
I: Foundations of General Systems Theory
Course
overview W: CH 1 & 2
Systems
Thinking
Observations
W: CH 3 & 4
Miller
Lindblom (both)
Boundaries
W: CH 5
Smith
Weiss
Descriptions
W: CH 6 & 7
Kaufman & Herman
Cutright
Project
Presentations
Catching
Up
PART
II: Some Applications of General Systems
Theory
Research
Projects as Systems
Bronfenbrenner
Simms
Swanson
Theories as Systems Ehrenberg
Simon
Tzeng
& Jackson
Dickmeyer
Evaluations as System Frederikson & Collins
House
Organizations As Systems Kaufman & Senge
Bryson
Foster
Project Presentations Kilburg
Catching Up
7.
Evaluation of Student Outcomes:
Criteria for Evaluation of Student Performance:
Each student is expected to complete the reading assignments in the text and
any supplementary readings prior to the class session. If we all have basic
familiarity with the material, our class sessions will be more productive for
us all. In addition, each student is encouraged to complete homework exercises
whether or not the homework is collected and graded.
8. Grading Criteria:
The final course grade will be computed as a weighted
combination of (a) homework assignments, (b) system analysis project, and (c)
system development project.
Analysis Project 40%
Development Project 40%
Homework 20%
________________________________________
Total 100%
Two homework assignments will be collected and
graded during the semester. I will let you know at the time that the
assignments are made if the assignment will be collected. These assignments
will contribute 20% of the final grade. Two papers will be required in the
course, each of which will contribute 40% of the final grade. These projects
will be applications of systems thinking to phenomena in your field of
specialty. The first project will be an analysis of an existing system, to
include an explication of the system elements and their interrelationships. The
second paper will be either (a) a plan for the development of a system which
does not currently exist, or (b) a plan to correct or improve a system in your
field of expertise. Based on the principles of General Systems Theory that we
will learn about this semester, include a rationale to support the
existence/purpose of the proposed system. If you have identified a deficient
system, you should analyze the existing system and suggest corrective measures.
Then present both the existing system and the new, revised system for your
second project.
9. Textbook(s) and
Weinberg, G. M. (1975). An Introduction to
General Systems Thinking.
Required
Bronfenbrenner, U. (1976).
The experimental ecology of education. Teachers College Record, 78,
157‑204.
Bryson, J. M. (1988). A
strategic planning process for public and non‑profit organizations. Long
Range Planning, 21, 73‑81.
Cutright, M. (1996). Can
chaos theory improve planning? Planning for Higher Education, 25, 18‑22.
Dickmeyer, N. (1989). Metaphor,
model, and theory in education research. Teachers College Record, 91,
151‑160.
Ehrenberg, A. S. C. (1968).
The elements of lawlike relationships. Journal of the Royal Statistical
Society, 131, 280‑302.
Foster, T. J. (1988,
April). The nature and uses of coercion. Paper presented at the annual
meeting of the Central States Speech Association,
Frederiksen, J. R. &
Collins, A. (1989). A systems approach to educational testing. Educational Researcher,
18, 27‑32.
House, E. R. (1978).
Assumptions underlying evaluation models. Educational Researcher, ??, 4‑12.
Kaufman, R. & Herman,
J. (1991). Strategic planning for a better society. Educational Leadership,
48, 4‑8.
Kilburg, R. R. (1991). The
art of self‑regulation. In R. R. Kilburg (Ed.), How to manage your
career in psychology.
Kofman, F. & Senge, P.
M. (1993). Communities of committment: The heart of learning organizations. Organizational
Dynamics, 22, 5‑23.
Lindblom, C. E. (1959). The
science of muddling through. Public Adminstration Review, 19, 79‑88.
Lindblom, C. E. (1979).
Still muddling, not yet through. Public Adminstration Review, 39,
17‑526.
Miller, J. G. (1955).
Toward a general theory for the behavioral sciences. American Psychologist,
10, 513‑531.
Simms, J. R. (1996).
Information: Its nature, measurement, and measurement units. Behavioral Science,
41, 89‑103.
Simon, H. A. (1968). On
judging the plausibility of theories. In B. VanRootselaar & J. F. Staal Eds.),
Logic, methodology, and philosophy of Sciences III. Amserdam: North‑Holland.
Smith, R. D. (1995). The
inapplicability principle: What chaos means for social science. Behavioral
Science, 40, 22‑40.
Swanson, H. L. (1993).
Selecting a research program in special education: Some advice and
generalizations from published research. Remedial and Special Education,
14, 7‑20.
Tzeng, O. S. C. &
Jackson, J. W. (1991). Common methodological framework for theory construction
and evaluation in the social and behavioral sciences. Genetic, Social, and
General Psychology Monographs, 117, 49‑76.
Weiss, R. S. (1966).
Alternative approaches in the study of complex situations. Human
Organization, 25, 198‑206.
DEPARTMENTAL COURSE SYLLABUS
ATTACHMENT I
Please respond to each of the following questions
and complete the attached Matrix:
1. Rationale
for Setting Goals and Objectives:
What sources of information (e.g., research, best practices) support the
formulation and selection of course goals and objectives.
Systems approaches to
problem formulation, analysis and solution reflects best practices in a variety
of fields, including the field of education.
2. What aspects of the COE conceptual
framework is/are specifically addressed in this course? This course primarily
addresses research, and to a lesser extent academic excellence, ethics, and
collaboration.
3. List
the specific competencies addressed from the relevant national guidelines.
This course introduces students to the concepts of
General Systems Theory, and provides guided practice in the use of systems
theory for the analysis of systems and the design of systems.
4.
Are there field-based experiences
in this course? If so, please briefly
indicate nature and duration.
No field-based
experiences
5.
Is technology used in this
course? If so, please briefly indicate
type of technology and how it is used to manage, evaluate and improve
instruction. Are students provided opportunities
to access and/or demonstrate use of technology in instruction in this
course? If so, please briefly
describe. (See Accomplished Practice
#12)
Technology is used in
this course in that the Blackboard course management system is used for the
distribution of course materials. In addition, students use technology in
presentations of their course projects.
6.
How are issues of diversity addressed in this course? Indicate which aspect(s) of the course (e.g.,
instructional strategies and/or experiences) provide the candidates the
opportunity to acquire and/or apply knowledge, skills, and/or dispositions
necessary to help all students learn.
(“All students” includes students with various learning styles, students
with exceptionalities and different ethnic, racial, gender, language,
religious, socioeconomic, and regional/geographic origins, and achievement
levels.)
Diversity is addressed in the context
of general systems theory (for example, interfaces betweens systems and
environments, ecological theories, and system maintenance vs. change).
7. (For Master’s Plan
II Programs only)
(a) List the specific competencies addressed
from the Florida Subject Matter Content Standards or the
(b) Describe any component(s) of the course
designed to prepare teacher candidates to help PK-12 students achieve the
N/A
DEPARTMENTAL
COURSE SYLLABUS
Attachment
I (cont'd)
MATRIX
(For
7. Complete the following matrix showing the association among
(1) course objectives (item #6 of syllabus), (2) related topics, (3) evidence
of achievement of objectives (including performance-based assessments, as
appropriate), and (4) Accomplished Practices (Undergraduate and Plan II
Master's Programs).
|
Course Objectives |
Evidence of Achievement |
Predominant Accomplished Practices* (For Undergraduate and Plan
II Masters Courses Only) |
|
1.0 Define
basic concepts of General Systems Theory |
Homework assignments Class projects |
|
|
2.0 Differentiate
systems approaches from traditional scientific methods |
Homework assignments Class projects |
|
|
3.0 Analyze
existing systems and identify potential areas for systems improvement |
Homework assignments Class projects |
|
|
4.0
Design systems to accomplish education‑related goals |
Homework assignments Class projects |
|