Checking the Virtues of
Going for a STEP Grant using Minutes from
November 30, 2007
There are two main items covered by this file.
- Proposing a meeting that follows the suggestion of Dave for going
for a STEP Proposal:
- Minutes from Nov 30, 2007 that will help structure this upcoming
meeting:
I. Proposing a meeting that
follows the suggestion of Dave for going
for a STEP Proposal:
Here are some guidelines I suggest.
- Specific discussion by each member of the seminar
as to what appeals to, or disheartens, them on two issues:
- Possible success
of going for a STEP grant
- Particular suggestions in Dave's message about the approach to
going for STEP
- That the meeting be long enough to include such discussions
(like
1 1/2 hours; maybe a dinner meeting, so everyone can stay for the
meeting)
- Proposal of names and reasons for bringing particular people
on campus into a later meeting (or discussion) to further the
directions of #2.
For #3,
we need to say specifically what we are doing so we can tell
someone named in #3 why they would be valuable/necessary. Getting
specific people aboard is our first action item. Even more, we need an
action item, and soon.
Our meetings – where Dave has been present for just the first part –
have been very specific about the relation between mathematics and
science. This makes sense because all three of us (Christy, Mark,
and Mike) spoke of the precise intertwining of mathematics, engineering
and physics. Here is a piece of our respective experience brought out
at the meetings:
- Mark works with the Physics department right now in an electrical
engineering capacity
- Christy gives testimonial from her niece on the relation between
calculus and Atmosphere Science
- Mike worked as a full-time electrical engineer for the years when
he was 18-21 before returning to get his PhD in Mathematics
So, to give shape to the discussion proposed at for this meeting,
statements of Dave's appear from his previous e-mail. Questions follow
these that might come up at the proposed meeting. The statement are
directly from Dave's message, numbered as Statement 1, Statement 2,
etc.
Statement 1: "First, it is
my thought that we do not want to focus on the calculus class alone.
Many of our students may need
precursor classes before even getting to the calculus class that is
most likely required for most math/science majors. If we examine
the demographics
of our students (as opposed to UCI), I think we will see a significant
need for improvements to our lower-level math classes. I
believe that incorporating a series of classes that help propel a
student successfully forward in math concepts may be a good
idea."
Response to Statement 1:
Two of the four people on the seminar are mathematicians. Why was UCI
brought into this statement? The example of UCI brought up in our
discussions was how WebWorks (mastery learning technology) was used to
allow one person to handle courses before calculus for hundreds of
students. The experience at UCI was exactly what Dave was asking for.
Also, in the years after its introduction, Webworks was used by Science
teachers at UCI to produce success for many more students in
introductory science courses, documented in a talk Mike gave on campus.
Two of the four people on the seminar are mathematicians with
physics/engineering training. They know it is unlikely that a student
who needs pre-algebra will even want to do science. Some students who
need pre-calculus training may manage to like and handle science, yet
it is rare. Is Dave's statement suggesting we must turn students who
require pre-calculus training into scientists?
Statement 2: "We need
to think through the process of what the students need, not focus on
what we can provide with existing technology and programming."
Response to Statement 2:
Two of the four people on the seminar believe that assessment holds the
key to understanding MSU-B students. The phrase "existing technology
and programming" does not speak in detail to the seminar discussions on
assessment, and it sounds dismissive, as if the seminar spoke blandly
of "technology and programming." Does Dave have examples of the
"technology and programming" other projects use, so we can compare
those with our discussions? Section II.2. from our last seminar meeting
(after Dave left) is a brief summary what we mean by technology.
Statement 3: "We need to
allow individual schools to develop programs that will help that school
increase
majors in STEM fields. There are many components to enhancing the
student experience, and the use of the computer technologies is one of
those components ..." [This comes with ] "Finally, I don't want
to sound like a
naysayer; however, the general mood around campus is rather negative
and difficult at present. Getting a large-scale involvement and
commitment to a project
like we are developing may be difficult. It may work to get a few
key people on board with us but we
have to be very careful that our ideas incorporate all of the
appropriate parties early on. I have heard so many stories from
faculty that describe a
feeling of helplessness due to poor communications from the
administration."
Response to the combination of
the two parts of Statement 3: The seminar has discussed the
difficulty of involving people on campus, though it wasn't said so
negatively as is Statement 3. That is why we came to this conclusion:
Start with something that is sure to be successful in getting students
through a set of core courses. That is why the surprisingly positive
experience at UCI came up.
Further, since you can't do much science without calculus, that is why
pre-calculus and calculus was used. Also, the mathematics department is
already inundated with low level courses. You can't ask the present
faculty in any subject to teach more. Unless the adminstration is
willing to hire more people, where would extra teaching power come
from, except from deft use of the technology we are discussing? That
technology allows multiplying feedback so that instructors do much less
grading. Grading and student feedback – the first element of assessment
– is what inundates instructors. Do people know that? Faculty do.
Finally, three people in the seminar thought that getting others on the
campus to do actual writing on the proposal would be difficult. That is
also Mike's experience with the grants he has gotten. One way in that
direction is to interview people in person in their offices. Then,
write it up yourself for inclusion in the proposal.
Statement 4: "As we
continue to develop our ideas, I think the best direction is to
address the total student concept. The use of technology is one
aspect. Additional student services (e.g., additional tutoring,
social support interventions, academic support services and remedial
classes, etc.) have been pretty standard parts of highly rated STEP
proposals. Also required is strong university support that
demonstrates that the program will be integrated into the standard
operations of
the university. This will have to be developed and it is not
merely asking the right questions of an administrator. "
Response to Statement 4:
What is "the total student concept?" Three of us thought you, Dave,
were going to bring in precise statements about "Additional Student
Services," at this time, to this meeting.
Is it possible to get a STEP proposal in the negative atmosphere you
describe in Statement 3? Maybe you say, "YES!" if we work hard enough.
On the other hand, you are describing an atmosphere were it is hard to
get others to work in such a direction "due to poor communications from
the administration." At the talk Mike gave two years ago – Dave, was
there – Janie Park asked Matt Benequista (in front of the whole group
of 59 people – my son counted) to start in the direction of what my
talk suggested about using WebWorks and IQs. Matt's response, "What
would I get for that?"
Aren't most faculty here going to ask that in private? Three people on
this seminar are curricular
motivated. Those people also happen to be much more service oriented than most of MSU-B
faculty. Aren't we service oriented enough?
Statement 5: "We need to
develop (and we have time to do this) a comprehensive approach to
increasing math/science majors at MSU-B. We need to involve
more members of the science and math departments. We need to
involve Deans. We need to build a case for a focused push to
increase math/science majors. And, perhaps most importantly, we
need to develop the data that supports our directions and provides the
evidence that
our proposed program/interventions will succeed."
Response to Statement 5:
Our seminar meetings have been very specific on approach specific
faculty, departments and Deans. On the other hand, we have taken the
approach that we will approach one person at a time. It's a tiny
campus, with a lot of politics. We have little political power. We
thought approaching one person at a time, and getting their specific
approaches, was a good idea, agreeing with many of your statements. Was
that wrong?
Mike has suggested at the seminar that STEP will be a hard step for us.
The success rate of proposals to NSF has never been especially high.
In that direction, Mike has also suggested starting smaller, and
directed toward the actual expertise of the people on this committee.
Is that wrong?
II. Minutes from mtg Nov 30, 2007
that will help structure this upcoming meeting:
II.1. Researching MSU-B Students:
Stacy K has been contacted about retention
Ms. Gwenn Braun (academic support system) was contacted
We haven't yet found out if these two people
can help us understand the possibility of gathering/collecting data on
MSU-B students. Questions: – access to student records
directly/indirectly; we need this data – identify info we need to
create profile and write the proposal – will we have access to ACT or
SAT – identify key courses; we have the expertise in math/science areas
– academic advising
STEP grant is geared toward producing Math/Science majors – increase
students in Math and/or Science discipline
--cross-curricular emphasis
MSUB has hired Director of eLearning Hub – Tim Tirrell. Christy will be
working closely with Tim
II.2. Overall Technology Tool:
Reports are important for every activity. One advantage of using
technology is that text-based material – for example, gathered from
seminar people interacting with faculty, departments and Deans –
can be
manipulated to produce automated reports.
For example, WebWorks and I(nteractive) Q(uestionnaire)s, are not
multi-media. The seminar discussed how to show the faculty what
non-multimedia technology could do for them, without their needing to
ever use the technology directly themselves.
First stage: Transformational Learning
theory can be incorporated into the process.
– one on one communication from one of our seminar with faculty, to
discuss problems they have with finding success with students. This
listening stage asks how it would help if students were able to get
more time from faculty.
Second stage: Discuss with faculty what they could do with more info on
their students. What things about their students – background, feelings
of
competence, desires to accomplish – faculty would find helpful to know.
This is where we would show faculty how technology like WebWorks and
IQs would produce such information.
Third stage:
Develop IQ's together with an instructor/expert. Show the faculty how
to revamp exam questions to parse what aspects of critical/higher order
thinking skills that have been stymied from current questioning. In
this way, the instructor sees what kind of things they (instructors)
can do with technology; even though they may never program themselves.
II.3. Another proposal from NSF
came up:
http://www.nsf.gov/funding/pgm_summ.jsp?pims_id=503233
Workforce Program in the Mathematical Sciences
Among intermediate goals to this end are improvements in recruitment,
retention, education, and placement of trainees in the mathematical
sciences.
- recruitment and retention: increasing the number and
diversity of U.S. students who successfully pursue undergraduate and
graduate degrees in mathematics and statistics;
- educational breadth:
broadening graduate education and undergraduate education content in
the mathematical sciences to prepare students for a wider range of
career opportunities; and
- professional development: enhancing the
professional skills of mathematical sciences postdoctoral associates,
graduate students, and undergraduate students to better prepare them
for both academic and nonacademic employment.