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Lotter, Christine; Taylor, Laurie – Science Teacher, 2016
In the 2 day lesson presented in this article, students explain how ionic substances interact in solutions by developing and revising their own explanatory models. The lesson engaged students in three-dimensional learning through creating and revising their own models to explain the interaction of ionic substances and polar molecules in a closed…
Descriptors: Molecular Structure, Science Activities, Science Instruction, Scientific Methodology
Baird, Bill – Physics Teacher, 2014
When students are first introduced to the idea of radioactive decay, a large conceptual hurdle must be overcome. The thought that an object's age has no bearing on the chance it will "die" (decay in this case) on a particular day is completely at odds with biological notions of life and death. Through the use of a simple…
Descriptors: Scientific Concepts, Scientific Principles, Teaching Methods, Science Activities
Shultz, Ginger V.; Gere, Anne Ruggles – Journal of Chemical Education, 2015
Traditional methods for teaching the Lewis dot structure model emphasize rule-based learning and often neglect the purpose and function of the model. Thus, many students are unable to extend their understanding of molecular structures in new contexts. The assignment described here addresses this issue by asking students to read and write about the…
Descriptors: Science Instruction, Chemistry, Teaching Methods, Scientists
Pasley, Joan D.; Trygstad, Peggy J.; Banilower, Eric R. – Horizon Research, Inc., 2016
The Next Generation Science Standards (NGSS) are composed of three intertwined dimensions--disciplinary core ideas, science and engineering practices, and crosscutting concepts--that provide a foundation for what students should know and be able to do at various grade levels. The eight science practices outlined in the NGSS are critical components…
Descriptors: Program Implementation, Science Education, Elementary Secondary Education, Scientific Principles
Lindquist, William; Forsberg, Britt – Science and Children, 2014
One author shares the unique opportunity to be immersed in the science of "sound at work" through participation in NOAA's (National Oceanic and Atmospheric Administration) Teacher at Sea Program. A third- through fifth-grade learning outcome within the Nature of Science section of the "Next Generation Science Standards"…
Descriptors: Acoustics, Instructional Innovation, Science Course Improvement Projects, Teaching Methods
Peer reviewedBarton, Andrea M. – Science Teacher, 2001
Introduces a high school science curriculum that embodies inquiry-based genetics, evolution, and astronomy. Presents two astronomy units of scientific modeling. The first activity involves a black box to explain a hidden mechanism's effect on the outflow of water. The second activity involves the development of celestial motion models to explain…
Descriptors: Astronomy, Inquiry, Models, Science Activities
Melville, Wayne; Fazio, Xavier – Science Teacher, 2007
Due to his work to determine how cholera was spread in the 18th century, John Snow (1813-1858) has been hailed as the father of modern epidemiology. This article presents an inquiry model based on his life and work, which teachers can use to develop a series of biology lessons involving the history and nature of science. The lessons presented use…
Descriptors: Scientific Principles, Science Programs, Epidemiology, Science Instruction
Peer reviewedSpurlin, Quincy – Science and Children, 1995
Modifies the "What's in a Bag?" activity to effectively and engagingly demonstrate the nature of science. Describes each step of the activity and lists necessary materials. Shows students that, like scientists, their scientific models change as more data are gathered and incorporated into what is already known. (NB)
Descriptors: Data Collection, Elementary Education, Hands on Science, Inquiry
Peer reviewedFernandez, Rolando Hernandez; Tomey, Agustin Vicedo – Biochemical Education, 1991
Presents Principles of Biochemistry for use as main focus of a biochemistry course. The nine guiding ideas are the principles of continual turnover, macromolecular organization, molecular recognition, multiplicity of utilization, maximum efficiency, gradual change, interrelationship, transformational reciprocity, and information transfer. In use…
Descriptors: Biochemistry, Curriculum Design, Higher Education, Models
Johnson, Donald M. – Journal of Natural Resources and Life Sciences Education, 2004
Evaporative cooling systems are commonly used in controlled environment plant and animal production. These cooling systems operate based on well defined psychrometric principles. However, students often experience considerable difficulty in learning these principles when they are taught in an abstract, verbal manner. This article describes an…
Descriptors: Climate Control, Agronomy, Animal Husbandry, Physical Environment
Peer reviewedCrenshaw, Neil – American Biology Teacher, 1979
An approach is suggested for teaching science history through inquiry training. A series of investigations are given for illustrating to students the manner in which organisms are grouped taxonomically. (SA)
Descriptors: Biological Sciences, Classification, Inquiry, Models
Peer reviewedBortone, Stephen A. – American Biology Teacher, 1979
Presents a model for teaching the principles of evolution. The model presents three major factors that direct changes and affect an individual's fitness. Uses and adaptations of the model are suggested. (Author/SA)
Descriptors: Biological Influences, Biology, College Science, Evolution
Peer reviewedSchamp, Homer W., Jr. – Science Teacher, 1990
Discussed is the idea that models should be taught by emphasizing limitations rather than focusing on their generality. Two examples of gas behavior models are included--the kinetic and static models. (KR)
Descriptors: Chemistry, Cognitive Dissonance, Concept Formation, Energy
Peer reviewedDresden, Max – Physics Teacher, 1992
Discusses the early recognition of chaos as seen in Poincar's work solving dynamical problems. Proposes five examples from which an inventory of the manifestation of chaos can be inferred. Discusses some instructional consequences of the development of ideas of chaos. (MDH)
Descriptors: Chaos Theory, Energy, Functions (Mathematics), High Schools
National Aquarium in Baltimore, MD. Dept. of Education. – 1997
"Living in Water" is a classroom-based, scientific study of water, aquatic environments, and the plants and animals that live in water. The lessons in this curriculum integrate basic physical, biological, and earth sciences, and mathematics. The integration of language arts is also considered essential to its success. These lessons do not require…
Descriptors: Biological Sciences, Biology, Classification, Earth Science
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