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Shannon L. W. Accettone; Cassandra DeFrancesco; Lori Van Belle; Joel Smith; Erin Giroux – Journal of Chemical Education, 2022
The ability of students to perform quantitative analysis is a fundamental aspect of analytical chemistry courses and laboratories. In this laboratory experiment, students quantitatively analyze both liquid and solid samples through the use of internal standard calibration and ATR-FTIR spectroscopy. Using a problem-based approach to selecting their…
Descriptors: Chemistry, Spectroscopy, Science Education, Problem Solving
Jackson, Julie K.; Forsythe, Michelle; Parthemore, Joseph; Rix, Alexis; Medeiros, Danielle – Science and Children, 2021
Engineering design-based learning entered the discourse of science education with the release of the "Next Generation Science Standards" (NGSS Lead States 2013). Since that time there has been a focused effort to embed engineering design and engineering-based thinking in elementary school experiences. As thinking like an engineer is…
Descriptors: Engineering Education, Science Instruction, Standards, Design
Albert, Daniel R. – Journal of Chemical Education, 2020
Monte Carlo simulations for uncertainty propagation take as inputs the uncertainty distribution for each variable and an equation for the calculation of a desired quantity. The desired quantity is then calculated by randomly drawing from the specified uncertainty distributions of the input variables. This calculation is then repeated many times…
Descriptors: Monte Carlo Methods, Science Instruction, Measurement, Undergraduate Students
Cheong, Yong Wook; Ha, Sangwoo; Byun, Taejin – Physics Education, 2019
Although students experience friction in their everyday life, they have difficulty understanding the scientific concept of friction. To solve this problem, various instructional suggestions have been made by researchers concerning the teaching of friction. In this study, we conducted a survey to investigate science high school students' reasoning…
Descriptors: Physics, Science Instruction, Logical Thinking, Problem Solving
Trundle, Kathy Cabe; Hagevik, Rita; Wheeler, Laura; Vela, Katherine N.; Parslow, Michelle; Joy, David N. – Science Activities: Projects and Curriculum Ideas in STEM Classrooms, 2023
Social connections are crucial for today's middle and high school students. We address this social need through a 3-H Social and Emotional Learning (SEL) Cycle. Through the Three Sisters Garden activity presented here, we teach secondary school students about biodiversity and sustainability as we integrate the arts into STEM (STEAM). Students…
Descriptors: Gardening, Middle School Students, High School Students, Learning Activities
Strong, Kristin M.; Lawanto, Oenardi; Wilson-Lopez, Amy – Journal of Technology Education, 2020
Engineering design was integrated into K-12 science education in the "Next Generation Science Standards" (NGSS Lead States, 2013), but teaching design remains a challenge for educators. Design problems are ill-defined, ill-structured, and complex problem-solving tasks. Their solutions require creativity and recursive, metacognitive…
Descriptors: Engineering Education, Design, Problem Solving, Metacognition
Bao, Lei; Koenig, Kathleen; Xiao, Yang; Fritchman, Joseph; Zhou, Shaona; Chen, Cheng – Physical Review Physics Education Research, 2022
Abilities in scientific thinking and reasoning have been emphasized as core areas of initiatives, such as the Next Generation Science Standards or the College Board Standards for College Success in Science, which focus on the skills the future will demand of today's students. Although there is rich literature on studies of how these abilities…
Descriptors: Physics, Science Instruction, Teaching Methods, Thinking Skills
Masters, Heidi; Daggett, Kayden; Fonk, Amanda; Geiser, Anna; Hund, Jennifer; Kohlbeck, Kierra; Peterson, Amanda; Smith, Jackson; Zander, Zachary; Zaspel, Tyler – Science and Children, 2019
Severe flooding was prevalent within the authors' region at the beginning of the school year. Many homes and fields were affected by the amount of rain that fell within a short period of time over multiple days. Their students were concerned about the impact this natural phenomena was having on their local community. Natural phenomena can provide…
Descriptors: Problem Solving, Engineering Education, Scientific Concepts, Units of Study
Bremert, Helen; Stoff, Amy; Boesdorfer, Sarah B. – Science Teacher, 2020
Scientists and other professionals across the globe require employees to collaborate, think critically, and solve problems effectively. To this end, the "Next Generation Science Standards" (NGSS) have a vision of ensuring that through inquiry, collaboration, and evidence-based instruction, students will have the necessary skills to be…
Descriptors: Science Instruction, Teaching Methods, Cooperative Learning, Classroom Environment
Gatling, Anne; Vaughn, Meredith Houle – Science and Children, 2015
Engineering is not a subject that has historically been taught in elementary schools, but with the emphasis on engineering in the "Next Generation Science Standards," curricula are being developed to explicitly teach engineering content and design. However, many of the scientific investigations already conducted with students have…
Descriptors: Engineering Education, Design, Science Instruction, Standards
Johnson, Carla C., Ed.; Walton, Janet B., Ed.; Peters-Burton, Erin E., Ed. – NSTA Press, 2019
What if you could challenge your 11th graders to figure out the best response to a partial meltdown at a nuclear reactor in fictional Gammatown, USA? With this volume in the "STEM Road Map Curriculum Series," you can! "Radioactivity" outlines a journey that will steer your students toward authentic problem solving while…
Descriptors: Grade 11, High School Students, STEM Education, Nuclear Energy
Gunckel, Kristin L.; Tolbert, Sara – Journal of Research in Science Teaching, 2018
The push for STEM has raised the visibility of engineering as a discipline that all students should learn. With the release of the "Framework for K-12 Science Education" and the Next Generation Science Standards (NGSS), engineering now has an official place in the science curriculum. In both the "Framework" and the NGSS,…
Descriptors: Engineering Education, Science Instruction, Standards, Elementary Secondary Education
Tan, Verily; Nicholas, Celeste; Scribner, J. Adam; Francis, Dionne Cross – Technology and Engineering Teacher, 2019
With the introduction of "Next Generation Science Standards" ("NGSS"), teachers have been called to find meaningful and engaging ways to teach science content while incorporating engineering practices and, to a lesser extent, computing and computational thinking. The task becomes even more complex when they also have to…
Descriptors: Interdisciplinary Approach, Teaching Methods, Standards, Science Instruction
Hynes-Berry, Mary; Berry, Gordon – European Journal of Science and Mathematics Education, 2014
We explore the power of allowing students to construct their own conceptual understanding as they "read an object" in a series of guided inquiry steps, developing their own questions about the object. Their ownership of questions increases the learner's engagement and results in more efficacious learning and meets the standards of…
Descriptors: Ownership, Standards, Lifelong Learning, Inquiry
Activity Structures and the Unfolding of Problem-Solving Actions in High-School Chemistry Classrooms
Criswell, Brett A.; Rushton, Greg T. – Research in Science Education, 2014
In this paper, we argue for a more "systematic" approach for studying the relationship between classroom practices and scientific practices--an approach that will likely better support the systemic reforms being promoted in the Next Generation Science Standards in the USA and similar efforts in other countries. One component of that…
Descriptors: Science Education, Teaching Methods, Systems Approach, Chemistry
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