How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance
We examine students’ mathematical performance on quantitative “synthesis problems” with varying mathematical complexity. Synthesis problems are tasks comprising multiple concepts typically taught in different chapters. Mathematical performance refers to the formulation, combination, and simplificati...
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2017-10-01
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Series: | Physical Review Physics Education Research |
Online Access: | http://doi.org/10.1103/PhysRevPhysEducRes.13.020120 |
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doaj-02ac41d62ce44431a9a2693d6b374e702020-11-24T22:30:50ZengAmerican Physical SocietyPhysical Review Physics Education Research2469-98962017-10-0113202012010.1103/PhysRevPhysEducRes.13.020120How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performanceBashirah IbrahimLin DingAndrew F. HecklerDaniel R. WhiteRyan BadeauWe examine students’ mathematical performance on quantitative “synthesis problems” with varying mathematical complexity. Synthesis problems are tasks comprising multiple concepts typically taught in different chapters. Mathematical performance refers to the formulation, combination, and simplification of equations. Generally speaking, formulation and combination of equations require conceptual reasoning; simplification of equations requires manipulation of equations as computational tools. Mathematical complexity is operationally defined by the number and the type of equations to be manipulated concurrently due to the number of unknowns in each equation. We use two types of synthesis problems, namely, sequential and simultaneous tasks. Sequential synthesis tasks require a chronological application of pertinent concepts, and simultaneous synthesis tasks require a concurrent application of the pertinent concepts. A total of 179 physics major students from a second year mechanics course participated in the study. Data were collected from written tasks and individual interviews. Results show that mathematical complexity negatively influences the students’ mathematical performance on both types of synthesis problems. However, for the sequential synthesis tasks, it interferes only with the students’ simplification of equations. For the simultaneous synthesis tasks, mathematical complexity additionally impedes the students’ formulation and combination of equations. Several reasons may explain this difference, including the students’ different approaches to the two types of synthesis problems, cognitive load, and the variation of mathematical complexity within each synthesis type.http://doi.org/10.1103/PhysRevPhysEducRes.13.020120 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Bashirah Ibrahim Lin Ding Andrew F. Heckler Daniel R. White Ryan Badeau |
spellingShingle |
Bashirah Ibrahim Lin Ding Andrew F. Heckler Daniel R. White Ryan Badeau How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance Physical Review Physics Education Research |
author_facet |
Bashirah Ibrahim Lin Ding Andrew F. Heckler Daniel R. White Ryan Badeau |
author_sort |
Bashirah Ibrahim |
title |
How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance |
title_short |
How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance |
title_full |
How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance |
title_fullStr |
How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance |
title_full_unstemmed |
How students process equations in solving quantitative synthesis problems? Role of mathematical complexity in students’ mathematical performance |
title_sort |
how students process equations in solving quantitative synthesis problems? role of mathematical complexity in students’ mathematical performance |
publisher |
American Physical Society |
series |
Physical Review Physics Education Research |
issn |
2469-9896 |
publishDate |
2017-10-01 |
description |
We examine students’ mathematical performance on quantitative “synthesis problems” with varying mathematical complexity. Synthesis problems are tasks comprising multiple concepts typically taught in different chapters. Mathematical performance refers to the formulation, combination, and simplification of equations. Generally speaking, formulation and combination of equations require conceptual reasoning; simplification of equations requires manipulation of equations as computational tools. Mathematical complexity is operationally defined by the number and the type of equations to be manipulated concurrently due to the number of unknowns in each equation. We use two types of synthesis problems, namely, sequential and simultaneous tasks. Sequential synthesis tasks require a chronological application of pertinent concepts, and simultaneous synthesis tasks require a concurrent application of the pertinent concepts. A total of 179 physics major students from a second year mechanics course participated in the study. Data were collected from written tasks and individual interviews. Results show that mathematical complexity negatively influences the students’ mathematical performance on both types of synthesis problems. However, for the sequential synthesis tasks, it interferes only with the students’ simplification of equations. For the simultaneous synthesis tasks, mathematical complexity additionally impedes the students’ formulation and combination of equations. Several reasons may explain this difference, including the students’ different approaches to the two types of synthesis problems, cognitive load, and the variation of mathematical complexity within each synthesis type. |
url |
http://doi.org/10.1103/PhysRevPhysEducRes.13.020120 |
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