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How much of the
NSF funded ÒfundamentalÓ scientific educational research is really fundamental?
The
other day I received an email from the NSF:
Here
are the active links shown in the picture:
(https://www.nsf.gov/news/news_summ.jsp?cntn_id=190509&WT.mc_id=USNSF_51&WT.mc_ev=click)
The webpage tells you that (in part):
ÒThe new awards fund
projects aimed at generating foundational knowledge in:
_
Improving and advancing STEM learning and
learning environments for students, parents, teachers and the general
population in all settings, from formal and informal education to technological
learning environments.
_
Supporting and preparing a STEM professional
workforce that is ready to capitalize on unprecedented advances in technology
and science and address current and future global, social and economic
challenges.
_
Diversifying and increasing participation in
STEM, effectively building institutional capacity and informal learning
environments that foster the untapped potential of underrepresented groups in
STEM fields.Ó
The
brief reading of the bullets already raises a question Ð do the goals really
represent the search for a fundamental
scientific knowledge, or they rather aim at improving immediate social issues education system currently deals
with?
The following link
leads to Òthe complete list of ECR projects and their abstractsÓ
(the picture shows page 1).
The
total number of projects funded within $61 million is 114. However, only 3
projects from 114 really fall in a category Òfundamental scientific researchÓ. Those
three truly fundamental scientific projects are related to a neurology of
thinking; they study various connections between process of thinking and
processes happening in a brain while thinking. The total amount of funding set
aside for those projects is #2,242,982, which is equal to 3.7 % of the total
funds.
It
means that 96.3 % of the funds are being used for projects of another kind (do
not belong to a fundamental scientific research).
If one just reads the titles of the
projects one can find several more projects which also may be sought as a part
of a fundamental scientific research, but that would require the detailed
analysis of the projects.
If the NSF would ask me to do such
an analysis, I could, but I doubt that the NSF would.
A
brief reading of the project titles and some of the abstracts shows that the
majority of the projects are of a social nature; they aim at improving a
current social situation by solving a specific immediate social problem within
the field of education.
No doubt, some of those socially
oriented projects are fundamentally important for making education better, more
successful, more student oriented, more diverse.
But
they would not help much to advance a science of education.
The
classification of socially oriented projects as a part of a fundamental
scientific research is a very common practice; and it is based on a common
misconception of what a science is.
There
is a wide-spread opinion (also
held by many people in the field of education) that:
1)
when a person poses a question, and
2)
then describes some steps which would lead to the answer to this questions, and
3)
then describes how he or she would assess if the question was answered
correctly
Ð
that person conducts a scientific research.
In
reality, this procedure is most commonly
used for achieving a specific social goal.
This
procedure is used when a person feels some disconnection between his or her
social position and the position the person desires to have. This procedure has
been an object of a study of a General Theory of Human Activity (a.k.a.
Activity Theory), which has several different forms, or academic schools,
including the one used in the field of a teacher professional development.
Not any possible question
(a.k.a. a proposition which starts from ÒIs it true that ÉÓ) should be called a
hypothesis, and not any possible activity which leads to an answer should be
called a research.
In general, there are three kinds of human
practices/projects with the goal of advancing human life: (a) scientific
research - the goal of a scientific research is discovering new knowledge; (b)
engineering and art - the goal of an engineering development is building new
devices (and systems of devices), the goal of art is bringing/developing
artifacts of art; (c) social advancement - the goal of a social advancement
project is developing or adopting new collective practice(s) (new - for the
given social group, but may have been used already by other people).
Clearly, every practice has some elements of a
scientific research: when we start a project, we generally have some
understanding of what we want to achieve and how we want to achieve that (Òa
hypothesisÓ), and how will we assess (measure) how close we are to the goal
(ÒfactsÓ).
The
difference between a scientific research and a social project is in Òwhat
utilizes whatÓ.
In a scientific research, some social activity is
being used as a vehicle to obtain new knowledge. In that case, some advancement
in some social practice represents a ÒcollateralÓ result of the research.
In a social project, some scientific knowledge is
being used to achieve positive changes in a certain social situation. In this
case, some newly recorded knowledge represents a ÒcollateralÓ result of the
project.
The majority of the 114 projects funded by the NSF aim
at the achievement of some positive social changes in a certain educational
environment.
For
example, the very first project at the top of the first page ÒTransitioning
Learners to Calculus in Community CollegesÓ aims at ÒImproving
student outcomes in mathematics courses in community collegesÓ. The main vehicle of the project is improving instructions
by utilizing various instruments (mostly surveys, and self-assessments). Is
this an important social project? Of course! Does it
represent a fundamental scientific research? Of course
not!
And many more projects sound like
this one. If we strip off all the scientific language, we will read Ð
paraphrasing Ð
1) ÒWe want our students to do
better. For that we plan on trying this.Ó Ð if the project mostly involves
faculty or teachers who directly teach students.
or
2) ÒWe want our school teachers to
teach better. For that we plan on trying this.Ó Ð if the project mostly
involves faculty from a school of education.
I donÕtÕ claim that all projects are fall into the two
described categories, but most of them do.
One might ask, what harm is in
calling social projects as scientific ones? Both kinds are important and do
good for education.
A short answer is: it is bad because
it makes an impression of a huge amount of a scientific research happening in
the field of education; when in fact a
true scientific research in the field of education does not exceed 3 Ð 5 % of
the total funding (if we want to promote a
science of education to a true science we need to change that).
The
bigger problem is that unwillingly Òthe
NSF essentially forces people into faking doing science. The core of any
science is being truthful about everything; including goals, methods, types of
actions being used to achieve the goals. If people assume that faking science
is fine Ð even for the sake of achieving positive social changes Ð that will
water down the essence of science.
It
is a scientific fact that both, the Religion and the Government, have benefited
from the separation of Church and State. Similarly, the separation of programs
for social advancement from programs for scientific advancement will be
beneficial for both, social and scientific advancement.
Not
enforcing such a separation makes the way the NSF funds of some of educational
projects to be wrongÓ.
The
last quote has been taken from a recent essay, which offers a
broader discussion.
Another
recent essay offers a discussion on what should the fundamental
research in the field of education be about. The central premise of the
approach for marking a research as ÒfundamentalÓ is based on the facts, that
1)
For every child, there is a finite number of
individual characteristics describing his or her learning, behavioral, and
social styles.
2) There
is a finite number of subjects to learn, and within each subject there is a
finite volume of knowledge to learn, and a finite number of skills to master.
Hence, it
should take a finite amount of time to study all relevant and sustainable
correlations (a.k.a. laws).
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