ARISE

Advancing Research & Innovation in STEM Education of Preservice Teachers in High-Needs School Districts

NSF
  • Home
  • About
    • About ARISE
    • ARISE Evaluation
    • ARISE Advisory Board
    • ARISE Team
    • About AAAS
    • About NSF
  • Blog
    • ARISE Blog Submission Criteria
  • What’s New?
    • News
    • Newsletters
  • Resources
    • Noyce Track 4 Research Book
    • Commissioned Papers
    • ARISE Webinars
    • NSF Proposal Preparation Webinars
    • Bibliography
      • Annotated Bibliography
      • Promising Practices
    • ARISE Convenings
      • Upcoming Meetings & Presentations
      • Past Meetings & Presentations
        • Noyce Regional Dialogues
    • Helpful Links
  • Opportunities
    • Submit an Evidence-Based Innovation
      • ARISE Evidence-Based Innovation Guidelines
    • Submit a Research Article/Report
    • Submit Ideas for Our Blog/Webinar/Newsletter
    • Grants
    • Dissemination
    • Professional Development Opportunities
  • Contact
    • Subscribe
ARISE / Reflecting On Our Roots – Part Seventeen: Teachers for the 21st Century

Reflecting On Our Roots – Part Seventeen: Teachers for the 21st Century

September 13, 2018 by Dawn Smith

By: Shirley Malcom, Ph.D., Senior Advisor, SEA Change; Emeritas Director, Education and Human Resources Programs, American Association for the Advancement of Science

This essay was originally published in the NSF INCLUDES Open Forum and is published here with permission of the author. Reflecting On Our Roots is a series of essays outlining some of the historical context of the field of broadening participation.

As the time for “back to school” comes around I remember the excitement of returning to class from the summer. I also remember those teachers (at every level) who made a big difference in my life: Mr. Smoot who, in the months following the launch of Sputnik in 1957 by the then Soviet Union, excited us all into thinking about the science problems that had to be solved to put the satellite in orbit; or Miss Goddard who, in the face of too many students in her class, taught a group of us to learn mathematics on our own and to teach each other. This was a critical time in my life: late 1950s, Birmingham Alabama, attending segregated and under-resourced Lewis Elementary School, poised at the edge of the Civil Rights movement where Birmingham – as the epicenter – would play a starring role.

At each inflection point in our lives there have been teachers who made a difference. We had some brilliant, dedicated teachers in our schools, perhaps because of segregation. These teachers were driven to do the best they could for us, to give us the tools to survive in an unforgiving world. Had more opportunities been available to them to put their knowledge to use in other sectors, would they have made different occupational choices? I’m not sure. (See also the recent Brookings Institution article on this topic.)

The world has changed so much since those days, and science and technology were major drivers in shaping it. As with my teachers in Birmingham, today’s teachers are being called upon to do the very best they can for the young people who will shape the future. This is nowhere more evident than in the high-needs schools of the 21st century, schools which sometimes look all too similar to those I attended. What do our 21st century teachers need to know and be able to do? How must they teach the children? What courses and experiences must colleges and universities provide these next generation teachers to prepare them to teach students who will confront 21st century problems of poverty, food insecurity, climate change, and much more?

Next year will mark the 30th anniversary of the historic Education Summit in Charlottesville convened by President George H.W. Bush and the Nation’s governors (including his successor, then Governor Bill Clinton) where they put forward ambitious education goals for the United States. Among those goals was that the U.S. would be “first in the world in science and mathematics achievement” by the year 2000.

Even as many of us privately thought that such an audacious goal was unlikely to be met, given the lack of grassroots consensus and the inadequacy of resources, we appreciated its intent; to put us on the road to reform. We could argue that we needed to change the way science and mathematics were taught, that we needed rigorous standards, appropriately resourced schools, well-qualified teachers and better ways to assess learning, as well as removal of barriers to access. Every school and all children were prominent in the language of reform at that time.

Without that Summit and the “goals” it is unlikely that we would have been able to sustain momentum into the new millennium to the goal and the challenges of providing quality science and mathematics education. (Few such reform efforts survive from one Administration to another and especially when there is also a change in parties). And many of the institutions and initiatives that were created during that time have continued to move that work forward. But the greatest challenges in education reform have always been about achieving the “each and every and the for all.”

While there are ongoing efforts to address the availability of well qualified teachers of science and mathematics there is also the need to figure out how to retain them. How do we attract a diverse corps of STEM teachers and keep them in the districts, in the schools, in the classrooms and with the students who have the greatest need?

We continue to work on increasing and improving the STEM teaching workforce. Programs such as UTEACH (begun at UT Austin in 1997); NSF Robert Noyce Teacher Scholarship Program http://www.nsfnoyce.org/ (authorized in 2002) and the umbrella 100K in10 (announced in 2011) are tackling the supply issue. But what about the need to provide teachers with the preparation and resources to teach all students well? Research on retention of STEM teachers points to issues that include preparation and induction as well as salary, school environment, culture and stability – it makes a difference if you have good school leadership and supportive policies, if you feel prepared for the job you are to carry out and if you are respected in the work you do. (See also this recent ChalkBeat article on the topic.)

One of my colleagues who reviewed this essay raised the point that perhaps the goal should be that of providing teachers with the preparation and resources to persist in the school environments they will face. Having encountered that argument in the context of women in science (and our past efforts to “fix the women”), I pushed back. Why should the onus be on the teacher rather than also on communities to demand and work for systems and schools within in them that work for teachers and students?

True, I learned how to learn and became excited about science in large part because of teachers — who looked beyond the hand -me-down textbooks and lack of equipment, the chaos of our city, the injustice in our lives and the peril that surrounded us. They saw something in us and helped us see it in ourselves. But why should teachers have to provide these resources to children in spite of the circumstances they encounter? If you are reading this today, thank your teachers. Let’s honor them by working to improve the schools and systems in which 21st century teachers must do their work.

Shirley Malcom, Ph.D., Senior Advisor, SEA Change; Emeritas Director, Education and Human Resources Programs, American Association for the Advancement of Science
smalcom@aaas.org

Shirley Malcom has led numerous programs in education, activities for underrepresented groups, and public understanding of science and technology. Dr. Malcom was head of the AAAS Office of Opportunities in Science from 1979 to 1989. Between 1977 and 1979, she served as program officer in the Science Education Directorate of the National Science Foundation (NSF). Prior to this, she held the rank of assistant professor of biology, University of North Carolina, Wilmington, and for two years was a high school science teacher. Dr. Malcom received her doctorate in ecology from The Pennsylvania State University; master’s degree in zoology from the University of California, Los Angeles; and bachelor’s degree with distinction in zoology from the University of Washington. In addition she holds thirteen honorary degrees. Read More.

Filed Under: Blog

Stay Connected

Sign up to receive the:
  • newsletter,
  • blog,
  • webinars, and
  • announcements
to keep current on the latest ARISE happenings

SUBSCRIBE

Featured Post

Picture of sky with bursts of light
January 18, 2023
Teaching the Teacher: Social Justice, Equity, and the Future of Science
As we reflect on the past three years that embroiled Americans in a pandemic, which highlighted educational inequities and social justice issues, two looming questions arise. How will we utilize the lessons learned and our new awareness of individual and communal perseverance and resilience? Will we employ these lessons and new awareness to frame and... Read More

Past Posts

December 13, 2022
Let’s Stop Saying that Math is the Universal Language
Every math and science teacher of a certain age has seen it, probably multiple times. Many of us have shown it in our classes. It’s the scene from the movie Contact (Zemeckis, 1997) where the character played by Jodie Foster first hears from the aliens. It’s exciting, dramatic—the pulsing noise from space pushing through the... Read More
November 9, 2022
Productive Struggle: An Opportunity for In-Depth Mathematics Learning
Struggle is a regular part of mathematics class: students struggle to get started, to carry out a process, to express misconceptions and errors, and with “uncertainty in explaining and sense-making” (Warshauer, 2015, p. 385). We have been investigating the struggles of prospective mathematics teachers (PTs) in a middle school methods course (Kamlue & Van Zoest,... Read More

This material is based upon work supported by the National Science Foundation (NSF) under Grant Numbers DUE- 2041597 and DUE-1548986. Any opinions, findings, interpretations, conclusions or recommendations expressed in this material are those of its authors and do not represent the views of the AAAS Board of Directors, the Council of AAAS, AAAS’ membership or the National Science Foundation.

AAAS

ARISE is Brought to You by NSF and AAAS - The World's Largest General Scientific Society

  • About AAAS ARISE
  • AAAS ISEED
  •  
  • Subscribe to ARISE
  • Contact Us
  •  
  • Privacy Policy
  • Terms of Use
© 2023 American Association for the Advancement of Science