Publication Date
| In 2026 | 0 |
| Since 2025 | 30 |
| Since 2022 (last 5 years) | 209 |
| Since 2017 (last 10 years) | 472 |
| Since 2007 (last 20 years) | 773 |
Descriptor
| Learning Activities | 2656 |
| Problem Solving | 2656 |
| Teaching Methods | 938 |
| Mathematics Instruction | 808 |
| Mathematics Education | 561 |
| Elementary Education | 436 |
| Secondary Education | 436 |
| Elementary School Mathematics | 383 |
| Foreign Countries | 356 |
| Instructional Materials | 351 |
| Thinking Skills | 293 |
| More ▼ | |
Source
Author
| Iozzi, Louis A. | 22 |
| Agro, Sally | 12 |
| Duncan, David R. | 10 |
| Jewell, Larry R. | 10 |
| Litwiller, Bonnie H. | 9 |
| Brannan, Richard | 7 |
| Bussey, Margery Koo | 7 |
| Dunne, Faith | 7 |
| Allen, Rodney F. | 6 |
| Brahier, Daniel J. | 6 |
| Hwang, Gwo-Jen | 6 |
| More ▼ | |
Publication Type
Education Level
Audience
| Practitioners | 1041 |
| Teachers | 875 |
| Students | 145 |
| Researchers | 28 |
| Administrators | 21 |
| Parents | 20 |
| Counselors | 9 |
| Media Staff | 8 |
| Policymakers | 4 |
| Support Staff | 2 |
| Community | 1 |
| More ▼ | |
Location
| Australia | 36 |
| Turkey | 35 |
| Indonesia | 34 |
| Canada | 28 |
| Ohio | 18 |
| China | 13 |
| United Kingdom (England) | 12 |
| Germany | 11 |
| Illinois | 10 |
| Japan | 10 |
| Spain | 10 |
| More ▼ | |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Andersson, David; Reimers, Karl – Journal of Educational Technology, 2010
The field of education is experiencing a rapid shift as internet-enabled distance learning becomes more widespread. Often, traditional classroom teaching pedagogical techniques can be ill-suited to the online environment. While a traditional entry-level class might see a student attrition rate of 5-10%, the same teaching pedagogy in an online…
Descriptors: Computer Software, Computer Oriented Programs, Online Courses, Electronic Learning
Taber, Susan B.; Canonica, Michele – Teaching Children Mathematics, 2008
Learning mathematics has traditionally been thought of as a sequential progression. Children learn to count to 10, then to 20, and then to 100. They learn to add without regrouping and then with regrouping. The authors teach addition before multiplication and the two-times table before the six-times table. They usually teach division as a separate…
Descriptors: Learning Activities, Textbooks, Symbols (Mathematics), Problem Solving
Horowitz, Jeff – Academic Therapy, 1986
The author presents ideas for allowing LD students to discover ways to improve their problem-solving skills. Activities touch upon the influence of the environment, the need for patience and planning, factors in sequencing and organization, and the importance of thoroughness and revision. (CL)
Descriptors: Discovery Learning, Elementary Secondary Education, Learning Activities, Learning Disabilities
Godwin, R. Kenneth – Teaching Political Science, 1981
Presents an exercise for use in political science courses on the college level that requires students to solve a frequently occurring problem--the provision of a collective good and the allocation of its costs. To solve the problem, students answer questions such as "Why do we have governments?" and "What constitutes a just policy?" (Author/DB)
Descriptors: Higher Education, Learning Activities, Political Science, Politics
Zjawin, Dorothy – Instructor, 1980
Presents 21 ideas for helping children learn to do story problems in math. (SJL)
Descriptors: Elementary Education, Elementary School Mathematics, Learning Activities, Problem Solving
Peer reviewedKushman, John E. – Advancing the Consumer Interest, 1992
Describes a university consumer affairs course using management tools to improve problem-solving skills. The Interaction Method teaches specific material and enables learning through participation. (SK)
Descriptors: Consumer Education, Course Content, Higher Education, Interaction
Peer reviewedCuster, Rodney L. – NASSP Bulletin, 1999
Collectively, technological literacy embraces everything from intelligent consumerism to concerns about environmental degradation, ethics, and elitism. Technological problem solving can have social, ecological, or technological goals and may be categorized by four types: invention, design, trouble shooting, and procedures. Every citizen should be…
Descriptors: Creativity, Learning Activities, Problem Solving, Secondary Education
Knypstra, Sytse – Journal of Statistics Education, 2009
In a statistics course for bachelor students in econometrics a new format was adopted in which students were encouraged to study more actively and in which cooperative learning and peer teaching was implemented. Students had to work in groups of two or three students where each group had to perform certain tasks. One of these tasks was: explaining…
Descriptors: Cooperative Learning, Peer Teaching, Economics, Active Learning
Nelson, Dean – Journal of Statistics Education, 2009
Following the Guidelines for Assessment and Instruction in Statistics Education (GAISE) recommendation to use real data, an example is presented in which simple linear regression is used to evaluate the effect of the Montreal Protocol on atmospheric concentration of chlorofluorocarbons. This simple set of data, obtained from a public archive, can…
Descriptors: International Relations, Regression (Statistics), Statistics, Evaluation Methods
Hussin, Supyan – College Teaching Methods & Styles Journal, 2008
Formal learning usually takes place in a physical classroom. An extension of learning process may continue to occur in a conventional setting where learners get together physically after class hours. In other words, learning may take place within particular zones. Vygotsky's idea of zone of proximal development (ZPD) suggests that learning may not…
Descriptors: Foreign Countries, Higher Education, Internet, English (Second Language)
Sobey, Ed – Journal on School Educational Technology, 2006
A method of instruction is presented in which learners construct their own understanding by engaging in experiments directed to solving specified problems. The method is based on how successful inventors learn and create new inventions.
Descriptors: Experiments, Intellectual Property, Active Learning, Problem Solving
Grosse, Cornelia S.; Renkl, Alexander – Learning and Instruction, 2006
Most mathematical problems can be solved using different methods. We tested the effectiveness of presenting more than one solution method by means of worked-out examples. In Experiment 1, a 2x3-factorial design was implemented ("multiple solutions": multiple/uniform; "instructional support": none/self-explanations/instructional explanations).…
Descriptors: Mathematics Education, Problem Solving, Learning Activities, Mathematics Activities
Leadbetter, Mark – Mathematics Teaching Incorporating Micromath, 2007
In this article, the author describes a 200-year-old ladder problem that can carry learners to high levels of mathematical thinking and activity. This problem requires learners to go from a word problem to an equation to a graph and from there to a solution. As this problem of specifics is turned into a problem using variables, technology,…
Descriptors: Mathematics Instruction, Problem Solving, Mathematical Logic, Thinking Skills
Delozanne, E.; Le Calvez, F.; Merceron, A.; Labat, J. – Journal of Interactive Learning Research, 2007
In this article we present a structured set of Design Patterns (DPs) that deals with tracking students while they solve problem in specific domains such as programming or mathematics. Our collection of 17 DPs yields a three step approach: First step: to collect and analyze information on each student for each exercise; Second step: to build a…
Descriptors: Educational Research, Learning Activities, Problem Solving, Management Systems
Peer reviewedMartin, Dennis S. – Arithmetic Teacher, 1976
Calculation of the percentage of work completed when the edges of jigsaw puzzles have been assembled provides interesting problems. (SD)
Descriptors: Elementary Secondary Education, Geometry, Learning Activities, Mathematics Education

Direct link
