Some Thoughts on Science Education Reforms in the Past Century

Cover of "Inquiry and the National Scienc...

Cover via Amazon

Policymakers have tried to improve science education by altering curriculum for well over a century. The dream is that a new curriculum will get teachers to shift routine classroom practices and changed teaching practices will get  students to learn more and better science. Over time, clear patterns have emerged from those dreams.

*Persistent shifting in purposes for science education, uncertainty over how best to teach the subject, and how to assess student learning. Multiple and competing aims for science education have plagued policymakers, academic scientists, practitioners, and reformers of all stripes for decades. Back-and-forth, time and again, different purposes have reverberated through the multi-layered curriculum (official, taught, learned, and tested),  echoing previous reform efforts at the beginning of the 20th century, before and after Sputnik, and since the 1980s.

And there were differences over how to teach science. The dichotomy about teaching about science (e.g., teachers teaching directly to students the knowledge and skills associated with disciplines of biology, chemistry, and physics) as opposed to learning to do science (e.g., hands-on classroom activities, discovering scientific principles through inquiring into real-world problems) has run like a tangled thread through past and present efforts to alter science curricula. Transmitting content to unknowing learners through texts, lectures, and demonstrations or learners dealing with questions that scientists ask and trying to answer them produced tensions—and slogans–among policymakers, curriculum specialists, and practitioners repeatedly. Should students become literate in science to do what scientists do or literate because, as citizens, they will have to deal with questions about climate change, pollution, health, technology, and statistical claims? No certainty on answers to this and similar questions has emerged  yet the cycle of science education reform keeps going.

*Plans for structural changes have consistently come from top of the policymaking pyramid, not the bottom.  Drum roll, please, for past plans to reorganize science: The Committee of Ten (1893); Commission on Reorganization of Secondary Education (1918); National Science Foundation grants and National Defense Education Act (1950s); the National Science Teachers Association and Academy of Science curriculum standards (1980s and 1990s); the National Research Council’s “Framework for K-12 Science Education: Practices, Crosscutting Concepts, and Core Ideas” (2011). Academic scientists, science educators, textbook publishers, and organized teachers advance their separate interests by lobbying top decision-makers to make policies that support their positions. It has been uncommon that curricular changes in science education have either begun with or spread from teachers to top decision-makers who then adopt them.[i]

*Historically, top-down designs for structural changes have run afoul of the multi-layered curriculum in U.S. schools. The strata of official, taught, learned, and tested curricula have revealed time and again that changes in the top layer—the official or intended curriculum—may or may not show up in other strata. Without changes in teaching practices and the state and district tests that students take, the chances of students learning what is intended approach nil.

* Policymakers have come to slowly recognize that within the curricular structure are the crucial supports of pedagogy, assessment, professional development, and the age-graded school. Over the decades, decision-makers now see that it is precisely this infrastructure that determines whether an intended curriculum gets implemented in teaching practices, what students take away from lessons, and what is tested.

In the past century of science curricular change, these patterns have become clear although issues arising from these patterns still remain unresolved. Changes have indeed occurred time and again but reforms of actual classroom practices have often disappointed advocates of a better science education. Yet amid repeated disappointments over a new science curriculum improving classroom teaching,  reform-driven designs for better teaching and learning, like the Energizer Bunny, continue.


[i] In 1991, the National Science Teachers Association asked the National Research Council to develop standards for science education. According to the publication of Inquiry, “Between 1991 and 1995, groups of teachers, scientists, administrators, teacher educators, and others organized by the NRC produced several drafts of the Standards and submitted those drafts to extensive review by others in these same roles.” While teachers were clearly involved in the creation of science standards that were published in 1996, still this was not a bottom up effort where teachers across the nation or even critical masses of science teachers championed standards for teaching science. See Inquiry and The National Science Education Standards: A Guide for Teaching and Learning (Washington, D.C.: National Academy Press, 2000), Preface.

About these ads

6 Comments

Filed under how teachers teach, school reform policies

6 responses to “Some Thoughts on Science Education Reforms in the Past Century

  1. As a science educator, I appreciate your synopsis of the last century of efforts, but am a bit troubled by the lack of nuance. Yet, this is forgivable in the blog format.

    My assertion is that these seemingly divergent calls for reform need not be so dichotomous. For example, consider the issue of learning *about* science versus learning to *do* science. I have always taken the approach that students can learn much about science while also learning both how to do science and how science is done. Some would argue that if students do not fully understand how science is done at a deep level, one cannot understand the science concepts. For example, one cannot fully understand a scientific law unless that understanding also recognizes aspects of how scientific laws are developed – most particularly the necessity of idealization.

    Rather than an “either/or” perspective, I believe these diverse values each can contribute to a stronger science education. Perhaps you agree.

    I think your note about top-down approaches is most significant. As you note history is littered with these approaches that simply have not resulted in changes to classroom practice. I wonder if we should spend less time telling teaching what to do and more time helping teachers learn strategies for what they want to do. I believe we would be hard pressed to find a teacher who wants their students to simply memorize formulas and regurgitate answers only to be forgotten in a week. Yet, I suspect many educators struggle with how to move create learning experiences that go beyond trivialities. The assumption policy-makers seem to make is that teachers don’t have an appropriate vision. Perhaps the assumption we should make is that teachers either are not aware of or do not know how to implement appropriate means or strategies.

    Anyway. Thanks for the post. Off to teach some elementary teachers about how to teach science!

    • larrycuban

      Thanks for the comment. A distinction David Tyack and I have made often–one that was in Tinkering toward Utopia–is between policy talk, action, and implementation. The either/or perspective you criticize over learning “about” science and “doing” science occurred most frequently in reformist policy talk over the past century. Less so in action, that is, in the official or intended curriculum. In the implementation of science curricular reforms among teachers, many ended up doing what you have done with your students. And I do agree that blends of these reforms in classrooms make the most sense, given the multiple purposes of science education.

  2. Bob Calder

    I don’t believe scientists ever thought not doing science could be a good thing. The institution of education brought hands-on science to a halt for student safety and as a cost cutting measure. It has taken years to get project-based learning off the ground. The US implements it poorly. It works better in other countries. Is this an historic issue? No. We do not hire or train properly.

    Project 2061 was started in 1985 (I think) and is the definitive framework. If it isn’t, it should be and everybody else should just sit quietly.

    We are on the edge of a second scientific revolution. If we are not prepared to change fundamental ways of thinking, we will most surely have an *actual* failure to educate.

    • larrycuban

      Bob,
      I do believe that the shuttling back and forth in science education over the purposes for teaching science to children and youth is an “historic issue.” Uncertainty among policymakers and experts over purposes for science education in the past century has led, in part, to the outcomes you deplore.

  3. Pingback: Some Thoughts on Science Education Reforms in the Past Century | Transformational Leadership | Scoop.it

  4. Pingback: Problems that schools are expected to solve

Leave a Reply

Fill in your details below or click an icon to log in:

WordPress.com Logo

You are commenting using your WordPress.com account. Log Out / Change )

Twitter picture

You are commenting using your Twitter account. Log Out / Change )

Facebook photo

You are commenting using your Facebook account. Log Out / Change )

Google+ photo

You are commenting using your Google+ account. Log Out / Change )

Connecting to %s