Publication Date
| In 2026 | 0 |
| Since 2025 | 99 |
| Since 2022 (last 5 years) | 815 |
| Since 2017 (last 10 years) | 2357 |
| Since 2007 (last 20 years) | 4550 |
Descriptor
Source
Author
Publication Type
Education Level
Audience
| Teachers | 595 |
| Practitioners | 267 |
| Students | 58 |
| Researchers | 49 |
| Policymakers | 35 |
| Administrators | 33 |
| Parents | 3 |
| Community | 2 |
| Media Staff | 1 |
| Support Staff | 1 |
Location
| Turkey | 119 |
| Australia | 77 |
| United Kingdom | 50 |
| Canada | 48 |
| Indonesia | 46 |
| New York | 46 |
| Germany | 44 |
| California | 43 |
| Spain | 34 |
| North Carolina | 33 |
| Texas | 33 |
| More ▼ | |
Laws, Policies, & Programs
| No Child Left Behind Act 2001 | 6 |
| Americans with Disabilities… | 3 |
| Elementary and Secondary… | 1 |
| Individuals with Disabilities… | 1 |
| Rehabilitation Act 1973 | 1 |
| Rehabilitation Act 1973… | 1 |
Assessments and Surveys
What Works Clearinghouse Rating
| Does not meet standards | 2 |
Peer reviewedJournal of Chemical Education, 1978
Describes procedures for the disposal of chemicals commonly used in secondary school chemistry laboratories. Special reference is given to inorganic salts. It is suggested that cyanides and other highly toxic salts should be disposed of by experts. (MA)
Descriptors: Chemistry, Pollution, Safety, Science Education
Peer reviewedBredderman, Ted – Elementary School Journal, 1977
Gives recommendations for the establishment of science laboratory programs in elementary schools, cites research on various types of programs and provides an extensive list of texts that can be used. (MS)
Descriptors: Elementary Education, Program Development, Science Curriculum, Science Education
Tinker, Robert F. – Electronic Learning, 1984
Briefly reviews arguments for and against high school science laboratory instruction and suggests using the microcomputers as a laboratory instrument. How the microcomputer-based laboratory (MBL) works is explained and some hardware and software packages are noted. (MBR)
Descriptors: Computer Programs, Microcomputers, Science Education, Science Laboratories
Progressive Architecture, 1972
Three science departments share lecture facilities in one compact building. (Author)
Descriptors: College Buildings, Science Facilities, Science Laboratories, Science Teaching Centers
Peer reviewedLingren, Wesley E.; Hughson, Robert C. – Journal of Chemical Education, 1982
Describes a science facility built at Seattle Pacific University for approximately 70 percent of the capital cost of a conventional science building. The building serves seven disciplines on a regular basis. The operation of the multidisciplinary laboratory, special features, laboratory security, and student experience/reactions are highlighted.…
Descriptors: Chemistry, College Science, Higher Education, Science Education
Sommer, Richard G., Ed. – Guide to Scientific Instruments 1980-81, 1980
Provides an alphabetical listing of laboratory instruments and equipment and the names and addresses of their manufacturers. (CS)
Descriptors: Equipment, Equipment Manufacturers, Laboratory Equipment, Science Education
Peer reviewedEducation in Science, 1977
Discusses issues raised by the English Health and Safety at Work Act, legislation regulating laboratory safety in industry and in schools in Great Britain. (SL)
Descriptors: Labor Legislation, Laboratory Procedures, Laboratory Safety, Legislation
Peer reviewedDavidowitz, Bette; Rollnick, Marissa – Research in Science Education, 2003
Explores the Competency Tripod model and flow diagrams as two sources for enabling students' metacognition in a second year undergraduate chemistry laboratory. Results indicate that all four students engaged in metacognitive practices, all believed that flow diagrams are extremely useful, and all understood the Competency Tripod model, but only…
Descriptors: Case Studies, Chemistry, Higher Education, Learning
Peer reviewedCuicchi, Paul M.; Winter, Joshua B.; Hamil, Burnette – Science Teacher, 2003
Presents an activity to teach buoyancy. The lab determines what mass of sand can be added to the open end of hollow plastic containers of various shapes so that objects just float at the surface, without sinking, with their entire volume submerged. Discusses Archimedes' principle and aligns with current national science education standards.…
Descriptors: Force, High Schools, Middle Schools, Physics
Peer reviewedHoward, Robert E.; Boone, William J. – Journal of College Science Teaching, 1997
Investigates which factors are important in revising chemistry laboratory experiments to enhance student interest and enjoyment of experimental science. Findings indicate the importance of several factors including varied content, real-world connections, items from outside the student's usual range of experience, well-paced experiments, error-free…
Descriptors: Chemistry, Higher Education, Science Experiments, Science Instruction
Manicone, Santo – Facilities Manager, 2003
Written in response to the frequent budget overruns experienced by higher education facilities when renovating and expanding laboratories, provides an overview of possible problems and presents a series of procedures and checklists to manage activities associated with such a move or renovation. (EV)
Descriptors: Construction Costs, Construction Management, Educational Facilities Improvement, Higher Education
Peer reviewedWest, Sandra S. – Science Teacher, 1991
In response to the Texas Hazardous Communication Act (THCA) of 1986 which raised many new health and liability issues regarding students in science laboratories, a laboratory safety survey was generated for use in evaluating laboratory safety. This article contains the easy-to-use survey. (ZWH)
Descriptors: Laboratory Safety, School Safety, Science Education, Science Laboratories
Peer reviewedVolkmann, Mark J.; Eichinger, David C. – School Science and Mathematics, 1999
Focuses on three habits associated with personal values and attitudes, and one habit associated with social skills of doing science. Illustrates four habits of mind, first through a story of modern scientific investigation, then as the basis of school laboratory science experience. Discusses implications related to integration of these four habits…
Descriptors: Behavior Development, Elementary Secondary Education, Laboratory Experiments, Science Activities
Peer reviewedEllis, Linda K. – American Biology Teacher, 2000
Introduces a laboratory activity designed for an undergraduate developmental biology course. Uses Play-Doh (plastic modeling clay) to build a multicellular embryo in order to provide a 3-D demonstration of cleavage. Includes notes for the instructor and student directions. (YDS)
Descriptors: Biology, Embryology, Higher Education, Models
Peer reviewedBavis, Ryan W.; Seveyka, Jerred; Shigeoka, Cassie A. – American Biology Teacher, 2000
Defines dichotomous keys as common learning tools based on identification rather than memorization. Provides an example of a dichotomous key developed for introducing histology in human anatomy and physiology (A&P) courses and explains how students can use the dichotomous key. Discusses the goals of the exercises and the process of…
Descriptors: Anatomy, Biology, Classification, Higher Education


