Publication Date
| In 2026 | 0 |
| Since 2025 | 65 |
| Since 2022 (last 5 years) | 385 |
| Since 2017 (last 10 years) | 1245 |
| Since 2007 (last 20 years) | 4109 |
Descriptor
Source
Author
Publication Type
Education Level
Audience
| Teachers | 607 |
| Practitioners | 128 |
| Students | 66 |
| Researchers | 36 |
| Policymakers | 18 |
| Administrators | 6 |
| Community | 4 |
| Parents | 4 |
| Media Staff | 1 |
| Support Staff | 1 |
Location
| Turkey | 196 |
| Australia | 54 |
| China | 49 |
| United Kingdom | 46 |
| United States | 46 |
| Canada | 44 |
| Germany | 43 |
| South Africa | 43 |
| United Kingdom (England) | 36 |
| Taiwan | 32 |
| Greece | 30 |
| More ▼ | |
Laws, Policies, & Programs
| No Child Left Behind Act 2001 | 15 |
| First Amendment | 2 |
| Kentucky Education Reform Act… | 1 |
| United States Constitution | 1 |
Assessments and Surveys
What Works Clearinghouse Rating
| Meets WWC Standards with or without Reservations | 1 |
Peer reviewedCooper, Robert A. – American Biology Teacher, 2002
Describes methods used by scientists to investigate the past. Explains the scientific model existing in textbooks and methods for studying evolutionary history. (Contains 30 references.) (YDS)
Descriptors: Evolution, Misconceptions, Mythology, Science Education
Wassersug, Richard – Informal Learning, 2002
For many, doing science is entertaining, and engaging in a science activity for its entertainment value is a credible rationale. Drawing parallels between science and various forms of entertainment from sports to opera, highlights the value of "infotainment". Also mentions the risks associated with entertaining the public with science.…
Descriptors: Misconceptions, Science Activities, Science and Society, Science Education
Peer reviewedCrane, H. Richard, Ed. – Physics Teacher, 1989
Describes the nature, history, and applications of Doppler radar detecting the speed of moving object. Gives an example of measuring the radial velocity of a scattered wave. (YP)
Descriptors: Electronics, Physics, Radar, Science Experiments
Peer reviewedFinocchiaro, Maurice A. – Science and Education, 1999
Distinguishes between Galileo's original 20-year trial and the subsequent 350-year controversy and the historical aftermath of the original episode from the reflective commentary on it. Provides an in-depth characterization and sketch of the historical aftermath and reflective commentary. Contains 90 references. (Author/WRM)
Descriptors: Astronomy, Philosophy, Physics, Religion
Peer reviewedTurner, Steven; Sullenger, Karen – Science, Technology, and Human Values, 1999
Examines how science educators and educational researchers have drawn on the fragmented teachings of science studies about the nature of science, and how they have used those teachings as a resource in their own projects. Analyzes some of the deep assumptions about the relationship between science, school science, and children's learning.…
Descriptors: Educational Research, Higher Education, Science Education, Scientific Concepts
Peer reviewedWorrall, John – Science and Education, 1999
Argues that, although naturalized philosophy of science points to important aspects of the scientific process that have not attracted the attention they deserve, it is not an acceptable philosophy. Claims that the basic theses of full-fledged naturalized philosophy of science simply cannot be true since they end up either in logical circles or in…
Descriptors: Naturalism, Science Education, Scientific Enterprise, Scientific Methodology
Peer reviewedClarke, Steve – Science and Education, 1999
Examines recent developments in Nancy Cartwright's philosophy of science against the background of her earlier ideas. Argues that Cartwright's views fall within the broad empiricist tradition. Contains 19 references. (Author/WRM)
Descriptors: Epistemology, Philosophy, Science Experiments, Scientific Enterprise
Peer reviewedMusgrave, Alan – Science and Education, 1999
Defends deductivism, the view that the only valid arguments are deductively valid arguments, and that deductive logic is the only logic that is or is needed. Explains the validity and soundness of some inductive arguments in terms of this view. Contains 12 references. (Author/WRM)
Descriptors: Deduction, Induction, Logical Thinking, Philosophy
Peer reviewedIrzik, Gurol – Science Education, 2001
Describes the division of universalists and multiculturalists over the question of the nature of science. Universalists maintain that science has a universal essence and western modern science is the paradigm example of such science. Multiculturalists appeal to the disunity of science thesis to undermine the view that all sciences must have a…
Descriptors: Curriculum Development, Multicultural Education, Science Instruction, Scientific Principles
Peer reviewedPedretti, Erminia – Studies in Science Education, 2002
Examines the debate about how science should be re/presented in informal science settings, specifically the possibility of science centers and science museums addressing socio-scientific issues. Situates the debate within the current science education literature on the nature of science (NOS) and science, technology, society and environment (STSE)…
Descriptors: Museums, Science Education, Science Teaching Centers, Scientific Principles
Chi, Michelene T. H. – Journal of the Learning Sciences, 2005
This article offers a plausible domain-general explanation for why some concepts of processes are resistant to instructional remediation although other, apparently similar concepts are more easily understood. The explanation assumes that processes may differ in ontological ways: that some processes (such as the apparent flow in diffusion of dye in…
Descriptors: Misconceptions, Scientific Principles, Scientific Concepts, Science Education
Ashbrook, Peggy – Science and Children, 2005
This month, "The Early Years" is focusing on magnets. The predicting and testing students do in this month's activity also relate to "Science and Children's" theme this issue, teaching the nature of science. Magnets are typically included in early childhood science curriculums because they are irresistible to children. Also, understanding that…
Descriptors: Scientific Principles, Science Curriculum, Investigations, Play
Damonte, Kathleen – Science and Children, 2004
One thing scientists study is how objects move. A famous scientist named Sir Isaac Newton (1642-1727) spent a lot of time observing objects in motion and came up with three laws that describe how things move. This explanation only deals with the first of his three laws of motion. Newton's First Law of Motion says that moving objects will continue…
Descriptors: Motion, Physics, Science Instruction, Teaching Methods
Crowther, David T.; Lederman, Norman G.; Lederman, Judith S. – Science and Children, 2005
Along with the awesome responsibility to teach science content and inquiry comes a responsibility to nurture an understanding of the nature of science. Just what is nature of science? As simple as this statement sounds, the term in and of itself is not readily agreed upon in scientific communities. For K-12 and science education communities,…
Descriptors: Scientific Principles, Science Teachers, Science Education, Lesson Plans
Lederman, Judith Sweeney; Lederman, Norman G. – Science and Children, 2005
The phrase "nature of science" refers to the characteristics of scientific knowledge that necessarily result from the scientific investigations that scientists conduct to develop knowledge. Yet, these characteristics are assumed by many to be "difficult" to teach. Not so. Many important aspects of nature of science can be directly linked to…
Descriptors: Scientific Principles, Science Education, Observation, Inferences

Direct link
