Program-Level Outcomes: AS Degree
21. Biology
23. Chemistry
25. Engineering/Engineering Technology
26. Computer Science
27. Physics
Students completing Option 1 of the AS degree should be
able to show competence in the following areas:
Chemistry
Physics or Biology
Students completing Option 2 of the AS degree should be
able to show competence in the following areas:
Physics
Chemistry
Computer Science
Students completing either option may also
develop competence in additional program outcome areas.
AS Program-Level
Outcome 21
|
1 |
Describe
the flow of energy within systems. |
|
2 |
Evaluate
function as it relates to structure throughout the spectrum of biological
organization (from molecules, to cells, to the organism, to the biosphere). |
|
3 |
Describe
how genetic information is duplicated, maintained, and expressed in living
organisms. |
|
4 |
Describe
and explain the interactions among species, as well as between species and
the environment. |
|
5 |
Describe
how genetic mutations lead to the evolution and diversity of species. |
|
6 |
Evaluate,
interpret and discuss scientific journal articles. |
|
7 |
Demonstrate
proficiency using the microscope to locate and study microscopic objects. |
|
8 |
Demonstrate
proficiency in using the metric system and scientific notation. |
|
9 |
Plan,
execute and interpret an experiment following the tenets of the scientific
method. |
|
10 |
Demonstrate
laboratory safety. |
|
11 |
Analyze
and interpret data for presentation in both written and oral formats. |
|
12 |
Write
a coherent review of the scientific literature on a particular topic. |
|
13 |
Demonstrate
professional conduct and strong interpersonal communication skills. |
|
14 |
Recognize
and act upon the need for continuing education. |
|
15 |
Collect
and report data honestly and ethically. |
|
16 |
Use
articulate speech and appropriate scientific vocabulary. |
|
17 |
Act
as an environmentally responsible citizen. |
|
18 |
Evaluate
scientific discovery in terms of its scientific merit and its ethical,
societal, and global implications. |
|
19 |
Define anatomical and physiological terms. |
|
20 |
Describe the normal anatomy and physiology of the integumentary, skeletal, muscular, nervous, endocrine,
cardiovascular, lymphatic/immune, respiratory, digestive, urinary and
reproductive systems and diseases common to these systems. |
|
21 |
Describe how body systems interact with one another in
human health and disease. |
|
22 |
Explain the concept of homeostasis and give examples of
homeostatic regulatory mechanisms in cells, tissues, organs, and body
systems. |
AS Program-Level
Outcome 22
|
1 |
Demonstrate proficiency in inquiry-based
search strategies in collecting data on environmental topics. |
|
2 |
Use appropriate data to evaluate risk
assessment and to propose reasonable action as an effective citizen. |
|
3 |
Use
knowledge gained in multiple disciplines to analyze environmental issues and practices and
accurately identify the strengths and limitations of your analysis. |
|
4 |
Respond to ideas from various
perspectives and formulate viable approaches to environmental issues. |
|
5 |
Communicate environmental research
findings to various audiences using language, concepts, models, and
strategies appropriate to the discipline. |
|
6 |
Design and conduct environmental research
using appropriate technology and laboratory and field data. |
|
7 |
Explore the complexity
and interconnected nature of environmental issues and articulate a contextualized
and pragmatic response to the selected issue. |
AS Program-Level
Outcome 23
|
1 |
Explain and apply the basic principles of inorganic,
organic, analytical and physical chemistry. |
|
2 |
Recognize the connections between chemistry and other
areas of science and mathematics. |
|
3 |
Solve new problems using knowledge of basic chemical
principles. |
|
4 |
Apply the theoretical concepts learned in class to
problems explored in the laboratory. |
|
5 |
Apply knowledge of chemistry to real life examples. |
|
6 |
Plan, execute and interpret an experiment following the
tenets of the scientific method. |
|
7 |
Demonstrate an understanding of and proficiency in a
variety of chemical laboratory techniques and instrumentation. |
|
8 |
Demonstrate safe laboratory techniques |
|
9 |
Keep legible and complete experimental records in a lab
notebook. |
|
10 |
Analyze, interpret and draw reasonable conclusions from
experimental results and communicate these finding effectively via both
written and oral reports. |
|
11 |
Perform accurate quantitative analysis of unknown samples
to within an accuracy of ± 5%. |
|
12 |
Use and understand modern chemical instrumentation. |
|
13 |
Use the computer as a tool for learning and applying
chemical principles. |
|
14 |
Statistically analyze data and draw appropriate
conclusions regarding the accuracy and precision of experimental data. |
AS Program-Level
Outcome 24
|
1 |
Apply information presented during the class sessions,
labs, field trips, and reading of the text to the solutions of open-ended
questions. |
|
2 |
Identify common rocks and the processes that form them.
Use relative age history principles to discuss the history of a geological
map. |
|
3 |
Make observations (in class and on field trips) and
correctly link those observations to information from the course. |
|
4 |
Use a computer to analyze or obtain geological data. |
|
5 |
Develop skills to work effectively with peers in finding
solutions to geological problems |
|
6 |
Develop the ability to describe and to answer questions
about dynamic Earth processes such as plate tectonics, earthquakes, volcanic
activity, weathering, mountain building, mass wasting, glaciation,
groundwater movement, rivers, shorelines, and the methods we use to determine
the history of the Earth. |
AS Program-Level
Outcome 25
|
1 |
Define, perform, and manage steps to create and deliver a
technological product that meets or exceeds needs of clients. (Design
Process) |
|
2 |
Organize and manage the activities and resources of
multiple people to achieve results beyond what can be done individually.
(Teamwork) |
|
3 |
Exchange and manage information needed to support
effective design. (Design Communication) |
AS Program-Level
Outcome 26
|
1 |
Demonstrate
the ability to apply knowledge of mathematics, sciences and computing in
developing an understanding of real world problems. |
|
2 |
Identify,
formulate and solve real world problems, working either alone or as a team member. |
|
3 |
Communicate
effectively. |
|
4 |
Explain
the ethical, legal, and professional responsibilities associated with work in
the computing field. |
|
5 |
Explain
why computing professional need to engage in life-long learning. |
|
6 |
Demonstrate
knowledge of theoretical computer science, including preparation adequate for
further work in theoretical computer science itself or in related areas such
as algorithm design, artificial intelligence, or computer security. |
|
7 |
Demonstrate
an awareness of computational techniques for science and engineering,
including preparation adequate for further work in areas such as numerical
analysis, systems simulation, optimization, image processing, or computer
vision. |
|
8 |
Demonstrate
an understanding of software systems and paradigms, including preparation
adequate for further work in areas such as databases, compilers, concurrency,
or distributed computing. |
|
9 |
Demonstrate
knowledge of net-centric computing, including preparation adequate for
further work in areas such as computer graphics, digital libraries,
multimedia, web-site design, or Windows programming. |
|
10 |
Demonstrate knowledge of
architecture and networks, including preparation adequate for further work in
areas such as computer architecture, computer networks, parallel processing,
or real-time computing. |
AS Program-Level
Outcome 27
|
1 |
Provide detailed and accurate descriptions of various
physical systems, |
|
2 |
Solve multi-step problems in physical analysis, |
|
3 |
Identify pertinent elements of physical systems and
problems, |
|
4 |
Design meaningful experiments and clearly report their
conclusions, |
|
5 |
Interpret scientific data including the results of
experiments designed by others, |
|
6 |
Apply mathematical tools to the solution of complex
problems, |
|
7 |
Use electronic and numerical
instruments as tools for investigation and analysis. |