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Johns, Gary; Mentzer, Nathan – Technology and Engineering Teacher, 2016
Teachers can find opportunities to incorporate design thinking and scientific inquiry within any lesson where a constraint of the design can be connected to a scientific experiment. Within a lesson, this connection establishes context between engineering and science and can positively impact students' learning and interest in these subjects. The…
Descriptors: Integrated Curriculum, Design, Inquiry, Engineering Education
Gobert, Janice D.; Kim, Yoon Jeon; Sao Pedro, Michael; Kennedy, Michael; Betts, Cameron – Grantee Submission, 2015
Many national policy documents underscore the importance of 21st century skills, including critical thinking. In parallel, recent American frameworks for K-12 Science education call for the development of critical thinking skills in science, also referred to as science inquiry skills/practices. Assessment of these skills is necessary, as indicated…
Descriptors: Learning Analytics, Science Education, Teaching Methods, 21st Century Skills
Gobert, Janice D.; Sao Pedro, Michael; Raziuddin, Juelaila; Baker, Ryan S. – Journal of the Learning Sciences, 2013
We present a method for assessing science inquiry performance, specifically for the inquiry skill of designing and conducting experiments, using educational data mining on students' log data from online microworlds in the Inq-ITS system (Inquiry Intelligent Tutoring System; www.inq-its.org). In our approach, we use a 2-step process: First we use…
Descriptors: Intelligent Tutoring Systems, Science Education, Inquiry, Science Process Skills
Daehler, Kirsten; Shinohara, Mayumi; Folsom, Jennifer – WestEd, 2011
Proven through more than a decade of rigorous research to be effective with both teachers and students, "Making Sense of SCIENCE" helps teachers gain a deep and enduring understanding of tricky science topics, think and reason scientifically, and support content literacy in science, thereby increasing student achievement. The materials…
Descriptors: Science Education, Scientific Concepts, Misconceptions, Concept Formation
National Center for Education Statistics, 2012
Science education is not just about learning facts in a classroom--it's about doing activities where students put their understanding of science principles into action. That's why two unique types of activity-based tasks were administered as part of the 2009 National Assessment of Educational Progress (NAEP) science assessment. In addition to the…
Descriptors: Investigations, Student Evaluation, Science Tests, National Competency Tests
Meissner, Barbara; Bogner, Franz – Journal of Chemical Education, 2011
Although teachers in principle are prepared to make use of science centers, such excursions often fail to facilitate learning processes. Therefore, it is necessary to improve the link between science centers and schools. The design and evaluation of valuable outreach projects may enhance students' out-of-school science learning. In our study, we…
Descriptors: Foreign Countries, Science Teaching Centers, Grade 5, Grade 8
Peer reviewedRhea, Marilyn; Lucido, Patricia; Gregerson-Malm, Cheryl – Science Activities: Classroom Projects and Curriculum Ideas, 2005
These series of lessons uses the process of student inquiry to teach the concepts of force and motion identified in the National Science Education Standards for grades 5-8. The lesson plan also uses technology as a teaching tool through the use of interactive Web sites. The lessons are built on the 5-E format and feature imbedded assessments.
Descriptors: Motion, Science Education, Inquiry, Student Research
Boster, Franklin J.; Meyer, Gary S.; Roberto, Anthony J.; Inge, Carol; Strom, Renee – Communication Education, 2006
Although much contemporary thinking leads to the expectation that communication technology, such as video streaming, enhances educational performance on the average, a dearth of strong evidence consistent or inconsistent with this claim precludes a thoughtful evaluation of it. A series of experiments designed to examine this proposition…
Descriptors: Instructional Effectiveness, Science Experiments, Social Studies, Grade 3
Peer reviewedDawson, Paul Dow – Science Activities, 1974
Describes the laboratory procedures for the measurement of thermal expansion and viscosity of liquids. These experiments require inexpensive equipment and are suitable for secondary school physical science classes. (JR)
Descriptors: Grade 8, Grade 9, Laboratory Experiments, Laboratory Procedures
Peer reviewedBerr, Stephen – Science Activities, 1991
Presents a sequence of activities designed to allow eighth grade students to deal with one of the fundamental relationships that govern energy distribution. Activities guide students to measure light bulb brightness, discover the inverse square law, compare light bulb light to candle light, and measure sun brightness. (two references) (MCO)
Descriptors: Astronomy, Energy, Fundamental Concepts, Grade 8
Peer reviewedRowell, Jack A.; Dawson, Chris J. – Research in Science and Technological Education, 1984
Investigated the efficacy of an instructional program designed to induce students to construct a mental scheme in which experimental design and natural experiments are understood as facets of the same problems and which incorporates a general solution procedure applicable to both. Results show a highly significant posttest achievement by the…
Descriptors: Academic Achievement, Cognitive Processes, Grade 8, Problem Solving
New York City Board of Education, Brooklyn, NY. Div. of Curriculum and Instruction. – 1985
This document was developed to provide eighth-grade teachers in New York City with a sequence of instructional activities in science. The major portion of the guide is divided into four instructional units. The first unit, "Chemistry," includes lessons and activities on liquid solutions, suspensions and emulsions, acids, bases,…
Descriptors: Biology, Chemistry, Earth Science, Environmental Education
Peer reviewedRoth, Wolff-Michael; Bowen, G. Michael – Cognition and Instruction, 1995
Examines perceptions of eighth graders in a science teaching environment in which they guide their own learning, frame problems for inquiry, design data collection procedures, and interpret and present data in a convincing fashion. Asserts that, in constructing their inquiries, students successfully negotiated courses of action and established…
Descriptors: Active Learning, Constructivism (Learning), Elementary Education, Elementary School Students
Peer reviewedWinemiller, Jake; And Others – Science Scope, 1991
Describes an extra credit science project in which students compete to see who can build the most efficient water rocket out of a two-liter pop bottle. Provides instructions on how to build a demonstration rocket and launching pad. (MDH)
Descriptors: Discovery Learning, Experiential Learning, Force, Grade 8

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