Skip to main content

Events in Science Education



This past week I visited Washington DC as part of an NSF grant.  It was all about creating more science, technology, engineering, and math majors.  Acronym: STEM.  This NSF STEP toward the STEM advocacy program is successful, and the grantees and grant administrators are highly motivated.  The meeting was excellent.  New ideas were presented; old ideas were reaffirmed; alternative ideas were presented.  It is acknowledged that more STEM majors are wanted and are needed.  For the USA, this is correct.  Make no doubt. The foundational question was how to get them?

As usual, the keynote speaker cited the well known facts that USA students do poorly, actually very poorly, on international exams in these subjects, particularly math.  So, these sad facts loomed in the background.

In short, the basics question was:  How do we get more people to pursue STEM degrees? Remarkably, there is no clear consensus on how this may be achieved.  The NSF project directors wanted us to report out on challenges, innovations, strengths, insights, improvements, and more.  The NSF participants suggested multiple solutions, mostly all clearly heart-felt, mostly all practical, and mostly all on the same page of STEM directives.  What will happen?  We do not know. The NSF wishes to improve the situation; they have wonderful people engaged to this end; they want more and more STEM majors.  Yet, my sense is that the NSF hierarchy wants demonstrable, sustained long-term results.  They're under pressure.  So are we.

On the other side of the coin comes the AAAS (American Association for the Advancement of Science) report about just this topic. See:
http://php.aaas.org/programs/centers/capacity/documents/SmartGrid.pdf.  In this report, the AAAS authors reduced the entire STEM vacuum issues to recruiting new adherents to the engagement of minorities and women toward these ends.  At no point in this report, which is both scholarly and well written, was there any comment on the nature of people in STEM disciplines.  There was no comment on the mind-set of students that commit to science, that have the predilection for science, and that have the discipline to endure the early difficult of STEM course in their curriculum. This is particularly sad, because their view seems to be that if the government throws money at STEM education on any basis other than the inclination to be a scientist, the result will be success.  But maybe this is not so.

As a youth, I knew many capable friends - for any major.  Their inclination was just not to STEM.  They just did not do STEM.  They went in other directions. They were successful. 

New scientists under these programs?  Let us hope. 

Comments

Popular posts from this blog

UNCERTAINTY IS CERTAIN

  Uncertainty is Certain G. Donald Allen 12/12/2024 1.       Introduction . This short essay is about uncertainty in people from both secular and nonsecular viewpoints. One point that will emerge is that randomly based uncertainty can be a driver for religious structure. Many groups facing uncertainty about their future are deeply religious or rely on faith as a source of comfort, resilience, and guidance. The intersection of uncertainty and religiosity often stems from the human need to find meaning, hope, and stability in the face of unpredictable or challenging circumstances. We first take up the connections of uncertainty to religion for the first real profession, farming, noting that hunting has many similar uncertainties. Below are groups that commonly lean on religious beliefs amidst uncertainty.   This short essay is a follow-up to a previous piece on certainty (https://used-ideas.blogspot.com/2024/12/certainty-is-also-emotion.html). U...

Problem Solving? Then Find Those Gaps

  Problem Solving - Finding Gaps 12/28/2024 Introduction. Solving complex problems often arises from the presence of gaps in knowledge, resources, understanding, or perspectives. These gaps introduce uncertainty, ambiguity, or constraints, making solutions difficult to achieve. Below, we explore the primary types of gaps that complicate problem-solving and their implications. Many are of the technical, informational, theoretical, and social nature. You may discover some of these gaps are also sources of uncertainty in problem-solving, in that they supply us with another list of things that can go wrong based on something missing. Gaps also form a type of impossible problem, that will be discussed in a later chapter. Finally, this essay is about all problems and solutions, not just those of science. Contents Comprehension Gaps Consistency Gaps Solution-Type Gaps Invisible Gaps   Knowledge and Evidence Gaps   Methodological and Technological Gaps Ethical and Cult...

CERTAINTY IS ALSO AN EMOTION

  Certainty is also a Feeling Certainty is often viewed as a mental state tied to knowledge and confidence, but it also functions as a feeling with distinct emotional and physiological components. While it arises from cognitive processes, certainty also has a subjective and emotional quality that makes it more than just a rational judgment. It provides a sense of assurance and security that shapes human experience in profound ways. Emotional Dimension . At its core, certainty evokes emotions that influence how we perceive and interact with the world. When someone feels certain, they often experience relief, comfort, or empowerment. These emotions are particularly strong when uncertainty or doubt is resolved, offering a sense of closure. For example, solving a complex problem or having a belief validated by evidence brings not just intellectual satisfaction but also emotional reassurance. Subjectivity. Certainty is inherently personal and subjective. It depends on individual...