Sign at the entrance to Capital Area Career and Technical Education Center.
This week I am pleased to welcome guest blogger Scott Phair to the SciTech Framework Blog. Scott’s experience as director of Capitol Area Career and Technical Education Center (CTE) and former high school principal give him a unique perspective on the implementation of A Framework for K-12 Science Education. Here are Scott’s thoughts….
Scott Phair, Director of the Capitol Area Technical Center.
I first heard about A Framework for K-12 Science Education during Anita’s presentation at the Maine Principal’s Association Conference in November. I was immediately struck by the alignment between the ideas of the Framework and the goals of our CTE programs.
The document, A Framework for K-12 Science Education: Practices, Crosscutting Concepts and Core Ideas, (National Academy of Sciences, 2011) has three dimensions that describe the vision for student learning in science and engineering: 1.) Scientific and engineering practices, 2.) Crosscutting concepts and 3.) Core disciplinary ideas. In my opinion, there is nowhere in public education where these concepts more applied and embraced than in Career and Technical Education (CTE) programs.
Students at Capitol Area Career and Technical Education Center.
Let us consider three CTE experiences, the Business Careers Academy, the Computer Assisted Drafting and Design class, and the Certified Nursing Assisting class as examples. Students in the Business Careers Academy apply science and engineering practices. They ask questions to diagnose mechanical problems, develop models for precision machining, and analyze and interpret data.
Computer Assisted Design 3-D printer.
Students enrolled In the Computer Assisted Drafting & Design class must identify any and all parts of a mechanism (from the human brain to a wheel hub) render the part digitally with specific computer software, and then “print” the rendering on a 3D printer that casts the rendering in close to perfect scale and proportion using a plastic material. Crosscutting ideas like structure and function, and stability and change are elements that these CTE students explore daily. These ideas unify the study of science and engineering through their common application across fields. I also recently observed a Certified Nursing Assisting class on the care of elderly patients. Half the students in the class were required to simulate the behaviors and symptoms typical of elderly patients living in an assisted environment. The other half of the class read medical charts, problem solved strategies for the barriers to successful feeding, and gained an appreciation of the many medical implications regarding food, medications, and physical disabilities. To provide high quality care for the elderly, our students (tomorrow’s caregivers) are expected to collect, evaluate, and communicate technical science information. These skills are highlighted in the science and engineering practices of A Framework for K-12 Science Education.
These are just a few examples of science and engineering applied across many fields. Successful students in CTE programs earn industry-standard portable credentials. These credentials are recognized by businesses and industry as indicators that the students have solid entry-level skills. It’s satisfying for students. Its the nature of working with real people, on real problems that have real rewards and consequences.
This fall Commissioner of Education, Stephen Bowen, with support from the Coalition for Excellence in Education, gave every Superintendent of Schools and Career and Technical Education Director a copy of the book Inevitable: Mass Customized Learning. This book describes a vision for the schooling of the future. A Framework for K-12 Science Education provides a vision for the future of science education. The promise of science, technology, engineering and math education simply cannot be realized in the present system of instruction in most U.S. schools. We must replace the complacency and slow pace of change in education with a sense of urgency and the iron will to construct schools and school programming designed to make students successful in the future. Tomorrow’s STEMers will be determined by the ideas we embrace today and choices we make right now.