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Yin, Yue – Science Scope, 2012
Misconceptions about sinking and floating phenomena are some of the most challenging to overcome (Yin 2005), possibly because explaining sinking and floating requires students to understand challenging topics such as density, force, and motion. Two scientific principles are typically used in U.S. science curricula to explain sinking and floating:…
Descriptors: Science Education, Misconceptions, Scientific Principles, Physics
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Wilcox, Jesse; Kruse, Jerrid – Science Scope, 2012
Although inquiry is more engaging and results in more meaningful learning (Minner, Levy, and Century 2010) than traditional science classroom instruction, actually involving students in the process is difficult. Furthermore, many students have misconceptions about Earth's seasons, which are supported by students' prior knowledge of heat sources.…
Descriptors: Investigations, Prior Learning, Misconceptions, Science Instruction
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Herald, Christine – Science Scope, 2010
According to the National Science Education Standards, students should be able to describe an object by its position, direction of motion, and speed (NRC 1996). During a unit on motion, the author decided to use Hot Wheels cars as the object students would describe. The first two activities are used to introduce students to the equipment and the…
Descriptors: Science Activities, Science Instruction, Science Laboratories, Scientific Principles
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Fairweather, Elizabeth; Fairweather, Thomas – Science Scope, 2010
Mendel and his peas. Goodall and her chimpanzees. Bentley and his snowflakes. Pasteur and his sheep. Not only do these stories intrigue students, but they also demonstrate the trials and tribulations associated with scientific inquiry. Using scientists' biographies piques student interest while providing an added dimension to their understanding…
Descriptors: Scientific Principles, Inquiry, Discovery Processes, Scientists
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Worch, Eric – Science Scope, 2009
The United States has a significant deficit in the number of university students choosing to major in science, technology, engineering, and mathematics (STEM) and subsequently entering STEM professions (National Science Board 2008). One way to address this problem is to find ways to make STEM careers more interesting and intellectually accessible…
Descriptors: Scientific Principles, Scientific Concepts, Inquiry, Scientific Attitudes
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Balgopal, Meena; Cornwall, Shaun; Gill-Robinson, Heather; Reinhart, Damien S. – Science Scope, 2009
When the nature of science (NOS) is reinforced, middle school students will be able to appreciate scientific inquiry processes and communication, as outlined in the National Science Education Standards (NRC 1996). To this end, the authors developed a mummy-making and dissection activity to help sixth- and seventh-grade students learn more about…
Descriptors: Middle School Students, Scientific Principles, Anthropology, Inferences
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Nargund, Vanashri; Rogers, Meredith A. Park – Science Scope, 2009
Learning how the periodic table has developed over time can provide an important foundation for students' future science learning, as they begin to explore the explanatory power of other models in science. In this activity, students are given the opportunity to investigate the generation of the modern periodic table, through a process of creating…
Descriptors: Scientific Principles, Chemistry, Active Learning, Inquiry
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McCann, Florence; Pedersen, Jon; Falsarella, Carell; McCann, Patrick – Science Scope, 2008
This investigation was part of a multi-lesson unit that gave students direct experience using increasingly sophisticated tools to make more detailed observations and measurements of light. Through these lessons, students experienced a key aspect of the nature of science (McComas 2004), namely how scientists constantly refine and modify theories as…
Descriptors: Units of Study, Scientific Principles, Science Education, Observation
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Limson, Mel; Witzlib, Crystal; Desharnais, Robert A. – Science Scope, 2007
It is widely accepted that inquiry-based curriculum programs have positive effects on cognitive achievement, process skills, and attitudes toward science (NRC 2000). Science teachers seek engaging, effective, and inquiry-based activities that are standards-aligned and convenient to implement in their classrooms. For many years, the web has…
Descriptors: Internet, Computer Simulation, Inquiry, Science Achievement
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Kao,Yvonne S; Zenner, Greta M.; Gimm, J. Aura – Science Scope, 2005
Nanotechnology deals with machines, materials, and structures and their behaviors at the scale of atoms and molecules, or the nanoscale. By working on this scale, scientists are able to create enhanced materials with desirable properties, such as stain-resistance. The authors developed the activity described in this article to introduce middle…
Descriptors: Teaching Methods, Scientific Principles, Scientific Research, Scientists
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Harrell, John; Christmann, Edwin; Lehman, Jeffrey – Science Scope, 2002
Points out that a shift toward inquiry-based learning is one of the main tenants of a new approach to science education that also includes technology and the history and nature of science. Includes a sample lesson of how science educators can incorporate the Internet into the classroom. (DDR)
Descriptors: Computer Uses in Education, Discovery Learning, Educational Change, Elementary Secondary Education
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Crawford, Teresa – Science Scope, 2003
As science teachers, they understand the importance of gaining student interest to promote learning. They know how challenging it is to spark the curiosity to truly engage students in the processes of "doing science." One often-used method of motivation is the demonstration of science in action. Demonstrations such as "discrepant events". They are…
Descriptors: Science Activities, Scientific Principles, Student Interests, Science Teachers