An
Ideal of Higher Education |
A general outline
of a four-year program of problem-based and systems science informed
education (see:
http://en.wikipedia.org/wiki/Problem-based_learning and
http://en.wikipedia.org/wiki/Systems_science). This education would prepare
students for many different careers while still strengthening their critical
thinking and communications/math skills. |
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All
students complete the first year as a large cohort. During that time they can
get to know others in their class and form ideas about what areas of
knowledge they would like to pursue. They will all share the same basic
knowledge in communications skills, systems thinking, and mathematics. |
In the first quarter of year 2 they will
start to form smaller cohorts based on their developing interests. They will
still share a common set of educational experiences as above, but by the
third quarter they will be expected to have identified the major area they
wish to pursue over the next two years. |
The summer before year 1 is spent in a
college preparatory course (bridge from high school to college). The summer
before year 2 is spent in a foreign country studying the culture and immersed
in the language. Before year 3 students will live in a rural community and
learn some very practical skills in permaculture. Then, before year 4 they
will live in an urban setting studying the culture (especially in contrast to
the rural). In all summer courses, the students write reports describing
their experiences, what they liked, didn't like and what challenges they
thought those ways of life brought for the residents. |
In year 3 the students form smaller
cohorts/problem groups and select a major area of knowledge. They work with
their cohort to focus in on a single problem domain within the knowledge
area. For example, students in the natural sciences can select from problems
centered around biology, ecology, chemistry, etc. There should be a large
number of problem foci that will allow cohorts to form around areas that
constitute their desired specialization. |
The problems should be chosen so that
they are complex enough to include facets from the other knowledge domains
and not just be about a specific specialization. For example a technical
problem, the solution to which might rely heavily on computer science, would,
nonetheless include social and natural world components. For example the
students might be posed a problem in building a computer model of a specific
sustainability issue that would require they understand the social and
environmental aspects of the problem. |
Problems are presented as challenges to
the students. They are challenged to not only solve the problem but to
discover what knowledge they need to acquire in order to do so. They can rely
on the teachers as guides, mentors, and coaches who will facilitate their
acquisition (for example, helping students find a specific form of an
integral they might need). The
teachers are always monitoring progress and ready to intervene in the event a
group goes off course. All problems are sufficiently complex that they are
interesting. They are all real world. And they will require
multi-disciplinary approaches to solving. |
Year |
Summer |
Q 1 |
Q 2 |
Q 3 |
1 |
College prep. |
Comm.1 - Literature and Critique writing |
Comm.2 - Historical/ Biographical Texts and essays |
Comm.3 - Oral communications; listening and speaking |
Introduction to Systems Thinking |
Qualitative systems analysis; intro to critical thinking |
Modeling systems and computer skills development |
Math 1 - Algebra and the Story of Mathematics |
Math 2 - Intermediate Algebra; Readings in Mathematics |
Math 3 - Adv. Algebra and Trig |
2 |
Study
Abroad - language emersion |
Comm.4a - Readings in Science; analytical writing |
Comm.5a - Readings in the Humanities (to include music and art
appreciation); critical and analytical writing |
Comm.6 - Essay writing -- What area of knowledge I want to
pursue and why |
Comm.4b - Readings in Social Sciences;
analytical writing |
Comm.5b - Readings in student chosen texts; analytical and
critical writing |
Advanced Systems Science Topics with technical writing |
Language Arts 1 (in chosen foreign language) |
Language Arts 2 (in chosen foreign language) |
Language Arts 3 (in chosen language) - written essay on student
selected subject |
Math 4 - Calculus I |
Math 5 - Calculus 2 |
The application of mathematics in the real world - Introduction
to Problem-based Learning |
3 |
Rural
Living and working in a Permaculture Academy |
Prob. 1a - Problems in the Humanities |
Prob. 2a - Analyzing the Problem |
Prob. 3a - Modeling and Characterizing the Problem; Writing
reports |
Prob. 1b - Problems in the Social Sciences |
Prob. 2b - Analyzing the Problem |
Prob. 3b - Modeling and Characterizing the Problem; Writing
reports |
Prob. 1c - Problems in Technical Areas
(engineering, business, and IT) |
Prob. 2c - Analyzing the Problem |
Prob. 3c - Modeling and Characterizing the Problem; Writing
reports |
Prob. 1d - Problems in the Natural Sciences |
Prob. 2d - Analyzing the Problem |
Prob. 3d - Modeling and Characterizing the Problem; Writing
reports |
4 |
Urban Living and working in an urban center |
Prob. 4a -
Proposing and Designing a Solution |
Prob. 5a - Implementation |
Prob. 6a - Testing, Evaluation, and Reporting Results |
Prob. 4b - Proposing and Designing a Solution |
Prob. 5b - Implementation |
Prob. 6b - Testing, Evaluation, and Reporting Results |
Prob. 4c - Proposing and Designing a Solution |
Prob. 5c - Implementation |
Prob. 6c - Testing, Evaluation, and Reporting Results |
Prob. 4d - Proposing and Designing a Solution |
Prob. 5d - Implementation |
Prob. 6d - Testing, Evaluation, and Reporting Results |
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