Publication Date
| In 2026 | 0 |
| Since 2025 | 62 |
| Since 2022 (last 5 years) | 534 |
| Since 2017 (last 10 years) | 1272 |
| Since 2007 (last 20 years) | 2533 |
Descriptor
Source
Author
Publication Type
Education Level
Audience
| Teachers | 385 |
| Practitioners | 332 |
| Researchers | 30 |
| Students | 29 |
| Administrators | 14 |
| Policymakers | 14 |
| Community | 1 |
| Parents | 1 |
Location
| Australia | 57 |
| Canada | 46 |
| California | 45 |
| Turkey | 40 |
| United States | 39 |
| New York | 32 |
| Indonesia | 30 |
| South Africa | 28 |
| Texas | 26 |
| Mexico | 22 |
| United Kingdom | 22 |
| More ▼ | |
Laws, Policies, & Programs
| Elementary and Secondary… | 2 |
| No Child Left Behind Act 2001 | 2 |
| Pell Grant Program | 2 |
Assessments and Surveys
What Works Clearinghouse Rating
| Does not meet standards | 10 |
Peer reviewedHeid, M. Kathleen – Journal for Research in Mathematics Education, 1988
During the first 12 weeks of an applied calculus course, two classes of college students studied calculus concepts using graphical and symbol-manipulation computer programs to perform routine manipulations. Three weeks were spent on skill development. Students showed better understanding of concepts and performed almost as well on routine skills.…
Descriptors: Calculus, College Mathematics, Computer Assisted Instruction, Computer Graphics
Lance, R. H.; And Others – Engineering Education, 1985
Sophomore and junior students in the College of Engineering at Cornell University have been taught engineering mathematics using new computer software that performs exact symbolic algebraic and calculus operations. Describes this software, the computer-based mathematics laboratory, changes in the teaching/learning environment, and short- and…
Descriptors: Algebra, Calculus, College Mathematics, Computer Assisted Instruction
Giraldo, Victor; Carvalho, Luiz Mariano; Tall, David – International Group for the Psychology of Mathematics Education, 2003
In this paper, we discuss the (potentially positive) pedagogical role of intrinsic limitations of computational descriptions for mathematical concepts, with special focus on the concept of derivative. Our claim is that, in a suitable approach, those limitations can act for the enrichment of learners' concept images. We report a case study with a…
Descriptors: Undergraduate Students, Foreign Countries, Educational Technology, Mathematical Concepts
Merenluoto, Kaarina – International Group for the Psychology of Mathematics Education, 2003
The starting point for this study was the resistant nature of prior knowledge in conceptual change from natural numbers to rational numbers observed in our previous study. Thus, in this study the effects of deliberately teaching the abstraction of the density of numbers on the number line was tested in a quasi-experimental study at the beginning…
Descriptors: Control Groups, Numbers, Prior Learning, Number Concepts
Anderson, Philip; Seaquist, Carl R. – 1998
Massively parallel programming languages, like StarLogo, provide a rich environment for introducing differential equations to students with an unsophisticated mathematical background. This paper describes the basic software for stimulating and monitoring various population dynamics. Simple differential equations that describe the observed dynamics…
Descriptors: Calculus, College Curriculum, Computer Software, Computer Uses in Education
Peer reviewedOrton, A. – Educational Studies in Mathematics, 1983
Investigated students' (N=110) understanding of elementary calculus using clinical interview method. Analysis of responses to tasks concerning differentiation and rate of change led to detailed data concerning degree of understanding attained and common errors/misconceptions. Implications for mathematics instruction are discussed. (This is a…
Descriptors: Calculus, College Mathematics, Educational Research, Foreign Countries
Peer reviewedMathematics Teacher, 1980
Three teaching ideas are discussed: the improvement of ditto reproduction, and exploration of congruent triangles, and an intuitive introduction to the concept of limit. (MP)
Descriptors: Calculus, Congruence (Mathematics), Geometric Concepts, Mathematics Education
Peer reviewedSilvia, Evelyn M.; Hom, Carole L. – Primus, 1996
Refutes the assumption that large classes must be impersonal, characterized by lecture style, and presented in a theorem-proof-example format. Discusses successful strategies for space use, classroom management, and collecting student feedback. (DDR)
Descriptors: Calculus, Class Size, Classroom Techniques, Educational Strategies
Peer reviewedCruthirds, John; Dodd, Fred – Mathematics and Computer Education, 1997
Provides pathological examples for which graphing calculators sometimes give surprising, misleading, or incorrect results. Investigates some of the more interesting of these examples encountered while using the TI-85 in a variety of undergraduate courses including calculus and matrix theory. (DDR)
Descriptors: Algorithms, Calculators, Calculus, College Curriculum
Peer reviewedWallace, Dorothy – Primus, 2002
Describes a successful course in mathematical biology at Dartmouth College. The course targets premedical students and biology majors rather than mathematics majors, and requires only one semester of calculus as prerequisite. Real world problems form the basis of student work. (Author/KHR)
Descriptors: Biology, Calculus, Curriculum Design, Higher Education
Peer reviewedKupitz, Yaakov S.; Perles, Micha A. – American Mathematical Monthly, 1990
Presented are two exercises on the differential geometry of curves. A generalization dealing with smoothness conditions is given that relates the two exercises. Included are the definitions, theorems, propositions, and proofs. (KR)
Descriptors: Calculus, College Mathematics, Geometric Concepts, Geometry
Peer reviewedAczel, J. – American Mathematical Monthly, 1990
Presented is a Poisson derivation using explicitly stated assumptions and exact functional equations. The assumptions are homogeneity, independence, and negligibility. Included are the derivations and proofs using L'Hopital's rule for each assumption. (KR)
Descriptors: Calculus, College Mathematics, Functions (Mathematics), Higher Education
Mathieson, Murray; And Others – Cooperative Learning, 1990
The following ideas are presented: (1) working together in calculus, including a handout for a jigsaw lesson; (2) a lesson on water and ecology from the USSR using the collective teaching technique; (3) the Israeli Havruta "Companionship" method for peer teaching; and (4) an origami lesson outlined and illustrated. (JD)
Descriptors: Calculus, Communication Skills, Cooperative Learning, Ecology
Peer reviewedBlackett, Norman – Mathematics in School, 1989
Discusses a way to help children retain the desire to understand mathematical ideas and to carry out routine procedures. Describes a method using computers to teach linear equations and calculus. Eight references are listed. (YP)
Descriptors: Calculus, Computer Graphics, Computer Uses in Education, Equations (Mathematics)
Katz, Kaila – Collegiate Microcomputer, 1989
Discussion of the use of computers for presentations in the classroom focuses on their use in a calculus course to explain graphs of functions. Topics discussed include the importance of managing the group process in the classroom; environmental considerations; and projectors and screens. (LRW)
Descriptors: Calculus, Computer Assisted Instruction, Functions (Mathematics), Group Dynamics


