Sunday, January 25, 2015

Tongue Depressors and Marshmallows: Integrating STEM Activities in the Adult Classroom


Science, Technology, Engineering, and Math (STEM) in the Adult Basic Education Classroom
By Diana McIntyre, Nevada State Leadership Professional Development Coordinator

     Now, more than ever, Science, Technology, Engineering, and Math (STEM) should be integrated in the Adult Basic Education (ABE) classroom.  After all, numerous careers require scientific and mathematical thinking:  scientists, geologists, ecologists, biologists, physicists, chemists, statisticians, research analysts, software designers, civil engineers, and architects to name a few.   It is the responsibility of ABE educators to understand student goals when creating curriculum.  Employees in STEM occupations use technology and engineering in the workplace to obtain solutions to quandaries important to the world.  Curriculum that integrates STEM supports the state of our global economy and growing concerns over the competitiveness of the United States (U.S.) in STEM fields.  What’s more, integration of math and science concepts with technical disciplines target essential 21st Century learning skills, and STEM is endorsed by the U.S. Department of Education-Office of Career, Technical, and Adult Education (OCTAE). 

     Importantly, the College and Career Readiness Standards (CCRS) call for students to be proficient in reading complex informational text and its academic vocabulary in a variety of content areas.  What better way to impart science and technical curriculum to ABE students than by integrating subjects through purposeful STEM activities.  Teachers trust students to be more responsible for their learning through STEM problem solving and extension activities.

     Providing hands-on, high interest experiences for ABE students, and more deeply involving them in the curriculum, will in turn increase program retention.  When students are engaged in the learning process, coming to class becomes more meaningful because it connects to the real world.  Best practices of differentiating the curriculum through STEM activities allow for all students to be successful because it naturally appeals to all learning styles.  Purposeful student groupings increase student academic conversation as well as needed socialization connections, further intensifying the educational experience.  When students are engaged and excited about their learning, they share their experiences with family and friends, and persevere in the community college education process. 

     Consider for example the impact of a STEM project that involves students with authentic opportunities to apply science, math concepts and language arts when constructing a catapult.  Students would first recall what a catapult is and how it is useful.  Students would then be provided with various supplies to choose from to construct the most efficient functioning catapult to thrust a large marshmallow a specified distance.  Supplies might include different sized rubber bands, tongue depressors, plastic spoon, straws, string, large paper clips, glue, index card, ruler, small pieces of wood, hammer, and nails.  In collaborative learning groups, students would calculate distance, speed, length of lever, tension, height, angle, weight, transfer of energy, accuracy, and other variables associated with the accuracy of hitting a target, predict, launch and collect data, graph, analyze, discuss, journal trials and errors, research, adjust, practice, question, share successes and failures, and present.  Students have implicit ownership in their learning because they have choices in how they design the most efficient catapult and no two catapults are engineered the same.  Think about how a lesson would be significantly different if students do not have the opportunity to design and learn through experimentation. 


     For further information regarding STEM, visit www.stemtransitions.org.