Mathematics is one of the great unifying themes in our modern culture. It is a language, a science, an art form, and a tool of tremendous power. The Department of Mathematics and Statistics, in its courses for both majors and nonmajors, seeks to introduce students to this vast area of knowledge and to show them how mathematics can be used to solve problems.
B.S. Mathematics –
Matrix Assessment
OVERARCHING GOALS
Mathematics
instruction should:
(from MAA’s Source Book for College
Mathematics Teaching , Schoenfeld, 1990)
·
Provided students with a sense of the discipline of
mathematics.
·
Develop student’s understanding of important
concepts in core areas of mathematics.
·
Develop student’s ability to explore problem
situations in a range of settings, at several levels of difficulty, and with a
variety of methods.
·
Help students to develop a mathematical point of view – perceive and represent structure and
structural relationships.
·
Help student’s to develop the ability to read and
use mathematical literature and reference material.
A
graduate of a baccalaureate program in mathematics should:
1. Excel in the use of basic quantitative skills
including:
¨
Symbolic representation.
¨
Symbolic manipulation.
¨
Modeling.
¨
Pattern recognition.
¨
Problem solving.
¨
Quantitative reasoning.
¨
Estimation.
2. Demonstrate content knowledge of core areas
of mathematics
including:
¨
Algebraic,
order, and completeness properties of the real number system.
¨
Analysis of
functions from Rn
to Rm.
¨
Algebra of
linear functions from Rn
to Rm.
¨
Axiomatic
Systems
3. Apply analytic, algebraic, and algorithmic
techniques to solving applied problems.
¨
Include techniques from several areas such as
differential equations, linear transformations, numerical analysis, series of
functions, analysis of algorithms, statistics, operations research, etc.
¨
Use
appropriate technology.
¨
Communicate how the problem is translated into a
mathematical formulation, and how to interpret the result of the mathematical
analysis.
4. Read, analyze, and write mathematical proofs.
¨
Analyze
logical structure of statements using logical connectives, negation, and
quantifiers.
¨
Use
contradictions and counter examples appropriately.
¨
Use
mathematical induction.
5.
Historical and social development of mathematics.
6.
Collaborative Skills
7.
Critical Thinking
¨
Develop Research Questions.
¨
Analyze and Interpret Data.
¨
Use results to formulate new questions.
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Mathematical Content Standards |
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CS-1 |
CS-2 |
CS-3 |
CS-4 |
CS-5 |
CS-6 |
CS-7 |
CS-8 |
CS-9 |
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Real
and Complex |
Functions |
Limits
& Continuity |
Analytic
Geometry |
Differentiation |
Integration |
Sequences
and Series |
Applications |
Mathematical
Proof |
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Level
14 (Soph Level) |
1113 |
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x |
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x |
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x |
x |
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2211 |
x |
x |
x |
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x |
x |
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x |
x |
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2212 |
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x |
x |
x |
x |
x |
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2215 |
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x |
x |
x |
x |
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x |
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3000 |
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x |
x |
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General
Learning Outcomes |
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Technology |
Quantitative
Reasoning (Problem
Solving) |
Critical
Thinking |
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Communication
Skills |
Collaborative
Skills |
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Calculators
and/or Computers |
Numerical
Competency, Num. Sense |
Geometric
and Symbolic |
Pattern
Recognition |
Develop
Research Questions |
Analyze
and Interpret Data |
Use
Results to formulate new Quest. |
Oral |
Written |
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Level
14 (Soph Level) |
1113 |
x |
x |
x |
x |
x |
x |
x |
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x |
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2211 |
x |
x |
x |
x |
x |
x |
x |
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x |
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2212 |
x |
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x |
x |
x |
x |
x |
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x |
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2215 |
x |
x |
x |
x |
x |
x |
x |
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x |
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3000 |
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x |
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x |
x |
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Alignment of Required Coursework in
Mathematics Major with Standards/Outcomes
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Basic
Quantitative Skills |
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Symbolic
Representation |
Symbolic
Manipulation |
Modeling |
Pattern
Recognition |
Problem
Solving |
Quantitative
Reasoning |
Estimation |
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3435 |
x |
x |
x |
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x |
x |
x |
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4441 |
x |
x |
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x |
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4435 |
x |
x |
x |
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x |
x |
x |
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4751 |
x |
x |
x |
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x |
x |
x |
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4661 |
x |
x |
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x |
x |
x |
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Core
Areas of Mathematics |
Communication
Skills |
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Real
Numbers System |
Analysis
of Functions |
Algebra
of Functions |
Statistics |
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Oral |
Written |
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3435 |
x |
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x |
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x |
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4441 |
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x |
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4435 |
x |
x |
x |
x |
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x |
x |
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4751 |
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x |
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x |
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4661 |
x |
x |
x |
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x |
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Techinques
for Solving Problems |
Read,
Analyze, and Write Mathematical Proofs |
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Analytically |
Algebraically |
Algorithmically |
Technology |
Modeling |
Connectives,
Negation, Quantifiers |
Contradictions |
Counter
examples |
Induction |
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3435 |
x |
x |
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x |
x |
x |
x |
x |
x |
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4441 |
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x |
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x |
x |
x |
x |
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4435 |
x |
x |
x |
x |
x |
x |
x |
x |
x |
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4751 |
x |
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x |
x |
x |
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4661 |
x |
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x |
x |
x |
x |
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Development
of Mathematics |
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Historical |
Social |
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3435 |
x |
x |
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4441 |
x |
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4435 |
x |
x |
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4751 |
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x |
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4661 |
x |
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Time line of assessment
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Fall |
Spring |
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Collaborative Skills |
Critical Thinking |
Read -Analyze Do proofs |
Quantitative
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Apply Analytic/ Algebraic/ Algo-techniques |
History/Cult. Development |
Core Content |
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Develop and/or evaluate effectiveness of assessment elements Group Projects - determine which classes, how many, etc |
Develop and/or evaluate effectiveness of assessment elements Common elements? Which courses? |
3000 - 4661/2 (Alignment of problems for “pre and post testing” to measure growth/development) |
3435, 4751 Develop and/or evaluate effectiveness of assessment elements |
4441 – Project 4435 – Project (Technology) |
4441 and 4435 – Project and Oral Presentations Develop and/or evaluate effectiveness of assessment elements |
End of Program Broad Evaluation Determine viability of implementing ETS Major Field Test or GRE Subject Test Or Development of our own |
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Senior Seminar |
Senior Seminar |
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Use Senior Seminar to administer departmental survey
(attached). (Secondary School Teaching survey
attached).
B.S. in Mathematics Program Survey
Program Overview:
Undergraduate programs in mathematics should prepare graduates to understand the field of mathematics, both as an academic discipline and as a profession within the context of a larger society. Thus, graduates should be aware of the history of mathematics, including those major developments and trends – economic, scientific, legal, political, and cultural – that have combined to shape the discipline.
SA: Strongly Agree, A: Agree, N: Neutral, D: Disagree, SD: Strongly Disagree
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SA |
A |
N |
D |
SD |
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The program exposed you to the history of mathematics. |
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The program exposed you to the major developments of mathematics |
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The program exposed you to the trends -economic, scientific, legal, political, and cultural-that have combined to shape the discipline |
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Program Goals:
The first goal for undergraduate mathematics programs, therefore, is to provide a coherent and broad-based coverage of the discipline of mathematics. Graduates should develop a reasonable level of understanding in each of the subject areas and the processes that define the discipline, as well as an appreciation for the interrelationships that exist among them.
Seven broad subject areas have been identified as comprising the subject matter of the discipline. Each of these areas has a significant theoretical base, significant abstractions, and significant design and implementation achievements. While these subject area definitions cover the entire discipline, they each contain certain fundamental subjects that should be required in all undergraduate programs in mathematics.
The
seven subject areas are:
Analysis Discrete
Mathematics and Combinatorics
Probability and Statistics Applied Mathematics
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SA |
A |
N |
D |
SD |
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The program exposed you to the specified areas. |
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The program contained to many required classes |
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A second goal for undergraduate programs in mathematics is to function effectively within the wider intellectual framework that exists within the institutions that house the programs. These institutions vary widely in their respective missions. Some of them emphasize breadth of study over depth, while others emphasize the opposite. Some are rigid in the overall balance between requirements and electives, while others are more flexible. As is the case in other disciplines, undergraduate programs in mathematics necessarily reflect institutional differences in their respective degree requirements. It follows that graduates of different programs will have received different levels of coverage in the subject areas of mathematics, as well as a different balance of emphasis among the processes of theory, abstraction, and application.
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SA |
A |
N |
D |
SD |
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The program emphasized breadth over depth. |
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The program contained too much theory. |
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The program contained too much abstraction. |
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The program contained too much application. |
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Third, different undergraduate programs place different levels of emphasis upon the objectives of preparing students for entry into a mathematics profession, preparing students for graduate study in the discipline of mathematics, and preparing students for the more general challenges of professional and personal life. Students enrolled in any undergraduate program in mathematics should be aware of that program’s particular emphasis with regard to these three objectives.
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SA |
A |
N |
D |
SD |
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The program adequately prepared me to get a job. |
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The program adequately prepared me for graduate study. |
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The program adequately prepared me to do research. |
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Fourth, undergraduate programs should provide an environment in which students are exposed to the ethical and societal issues that are associated with the mathematics and mathematics teaching fields. This includes maintaining currency with recent technological and theoretical developments, upholding general professional standards, and developing an awareness of one’s own strengths and limitations, as well as those of the discipline itself.
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SA |
A |
N |
D |
SD |
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The program provided adequate exposure to ethical and societal issues. |
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The program provided adequate exposure to recent technological and theoretical developments. |
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The program provided guidance on upholding general professional standards. |
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The program developed an awareness of my own strengths and limitations |
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The program exposed me to the strengths and limitations of the discipline itself. |
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Fifth, undergraduate programs should prepare students to apply their knowledge to specific, constrained problems and produce solutions. This preparation includes
· the ability to define a problem clearly;
· to determine its tractability;
· to determine when consultation with outside experts is appropriate;
· to evaluate and choose an appropriate solution strategy; to study, specify, design, implement, test, modify, and document that solution;
· to evaluate alternatives and perform risk analysis on that design;
· to integrate alternative technologies into that solution;
· to communicate that solution to colleagues, professionals in other fields, and the general public. This also includes the ability to work within a team environment throughout the entire problem-solving process.
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SA |
A |
N |
D |
SD |
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The program provided me with the ability to apply my knowledge to specific, constrained problems and produce solutions |
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The program taught me to define a problem clearly. |
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The program taught me to determine its tractability. |
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The program taught me to determine when consultation with outside experts is appropriate. |
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The program taught me to evaluate and choose an appropriate solution strategy. |
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The program taught me to study, specify, design, implement, test, modify, and document that solution. |
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The program taught me to evaluate alternatives and perform risk analysis on that design |
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The program taught me to integrate alternative technologies into that solution |
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The program taught me to communicate that solution to colleagues, professionals in other fields, and the general public. |
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The program taught me to work within a team environment throughout the entire problem-solving process. |
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Finally, undergraduate programs should provide sufficient exposure to the rich body of theory that underlies the field of mathematics, so that students appreciate the intellectual depth and abstract issues that will continue to challenge researchers in the future. In this light, graduates should be aware of the unusually high rate of change in the application of mathematics, the relatively gradual rate of growth in the theory of mathematics, and the delicate interaction that takes place between these two. They should thus have a strong foundation on which to base lifelong learning and development.
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SA |
A |
N |
D |
SD |
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The program provided me with sufficient exposure to the theory that underlies the field of mathematics. |
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The program provided me with an adequate appreciation to the intellectual depth and abstract issues that will continue to challenge researchers in the future. |
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The program provided me with adequate appreciation to the unusually high rate of change in the applications of mathematics. |
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The program provided me with an adequate appreciation to the relatively gradual rate of growth in the theory of mathematics. |
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The program provided me with adequate appreciation to the delicate interaction that takes place between these two. |
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The program provided me with a strong foundation on which to base lifelong learning and development in the area of mathematics?. |
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Science and Technology Literacy:
To support the development of maturity in the technical and scientific aspects of mathematics, an undergraduate curriculum should also include certain computer science and science course material to complement the subject matter in the discipline. Similarly, to support the development of maturity in the scientific and engineering aspects of the discipline, the present guidelines recommend that students regularly engage in laboratory work and other educational experiences.
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SA |
A |
N |
D |
SD |
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The program provided me with adequate computer science courses. |
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The program provided me with an adequate with adequate science courses. |
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The program provided me with sufficient laboratory work. |
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The program provided me with adequate with adequate written and oral skills. |
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Please also include any comments, specific or general,
concerning your program. What do you consider to have been the strengths and
weaknesses of the program?
Concentration in Secondary School Teaching Survey
(from http://www.ferris.edu/education/education/Edu.htm)
SA: Strongly
Agree, A: Agree, N: Neutral, D: Disagree, SD: Strongly Disagree
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1. I have a
commitment to student learning and achievement, including the understanding
and ability to: |
SA |
A |
N |
D |
SD |
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a. Apply knowledge of human growth, development,
and learning theory. |
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b. Expand cognitive, affective, physical, and
social capacities of students for the development of the “whole person”. |
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c. Demonstrate appropriate classroom management and
disciplinary techniques to ensure a safe and orderly environment that is
conducive to learning. |
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d. Plan instruction to accommodate diversity,
e.g., cultural, racial, and social diversity. |
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e. Plan instruction to accommodate various
backgrounds of students. |
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f. Use multiple approaches to appropriately
assess student abilities and needs to plan instruction. |
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g. Use various kinds of literacy to promote
access to knowledge, e.g., numeracy, graphics,
printed text, computers, and other electronic media. |
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2. I have
knowledge of subject matter and pedagogy, including the understanding and
ability to: |
SA |
A |
N |
D |
SD |
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a. Create learning environments that promote
critical and higher order thinking. |
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b. Help students access and use information,
technology, and other resources to become independent learners and problem
solvers. |
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c. Integrate and transfer knowledge across
subject areas and encourage the same among students. |
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d. Engage students in practical activities that
demonstrate the relevance, purpose, and function of subject matter. |
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3. I have the
ability to manage and monitor student learning, including the understanding
and ability to: |
SA |
A |
N |
D |
SD |
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a. Plan and use different cognitive, affective,
and psychomotor strategies to maximize learning and to accommodate
differences in the backgrounds, learning styles, aptitudes, interests, levels
of maturity and achievement of students. |
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b. Use a variety of teaching methodologies and
techniques, e.g., lectures, demonstrations, group discussion, cooperative
learning, small-group activities and how to assess one's effectiveness in
utilizing them. |
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c. Involve and work effectively with parents
and/or guardians to maximize opportunities for students' achievement and success. |
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4. I have the
ability to systematically organize teaching practices and learn from
experiences, including the understanding/ability to: |
SA |
A |
N |
D |
SD |
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a. Exercise good judgment in planning and
managing time and other resources to attain goals and objectives. |
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b. Maximize the use of instructional time by
engaging students in meaningful learning experiences. |
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c. Demonstrate an understanding of the economic,
social, political, legal, and organization foundations and functions of
schools. |
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d. Accept teaching as a lifelong learning process
and continue efforts to develop and improve. |
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e. Interact successfully with other teachers,
parents, students, administrators, counselors, and other support personnel to
benefit students and to advance one's own professional development. |
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f. Engage in meaningful self-evaluation and
reflect on the professional practice of colleagues. |
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5. I have a
commitment and willingness to participate in learning communities, including
the understanding and ability to: |
SA |
A |
N |
D |
SD |
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a. Use community and home resources to enhance
school programs. |
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b. Interact with parents to maximize the learning
of students at school, home, and in the local community. |
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6. I have an
ability to use information technology to enhance learning and to enhance
personal and professional productivity. I … |
SA |
A |
N |
D |
SD |
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a. Design, develop, and implement student
learning activities that integrate information technology for a variety of
student grouping strategies and diverse student populations. |
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b. Identify and apply resources for staying
current in applications of information technology in education. |
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c. Demonstrate knowledge of uses of multi-media,
hyper-media, telecommunications, and distance learning to support
teaching/learning. |
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d. Use information technologies to support
problem solving, data collection, information management, communications,
presentations, and decision-making including word processing, database
management, spreadsheets, and graphic utilities. |
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e. Use information technology to enhance
continuing professional development as an educator. |
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Survey information that is specific often reveals
how our program is actually performing. Please give detailed information about
yourself that would qualify as evidence to the impact of our teacher
preparation program (ex. achievements, student assessment levels, research,
etc).