2016 Physics Education Research Conference Proceedings 2016
DOI: 10.1119/perc.2016.pr.089
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Assessing Student Learning and Improving Instruction with Transition Matrices

Abstract: For common multiple-choice assessments, we can investigate progress in student understanding by creating simple transition matrices that identify the percentage of students who select each possible pre-/post-test answer combination on each question of a diagnostic exam such as the Force Concept Inventory. In order to create a transition matrix, we first rank answer choices from worst to best using item response curves. This allows us to determine changes in understanding of concepts and misconceptions even whe… Show more

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Cited by 9 publications
(9 citation statements)
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“…This assumption is based on the premise that students who understand more about Newtonian physics are more likely to choose better incorrect answers than students who understand less physics, and these students are also more likely to choose a greater number of correct responses. This assumption is consistent with previous work that has used item response curves (IRCs) to examine and rank incorrect responses on both the FCI and the FMCE [15][16][17][18]. We expand on this prior work by using a nested-logit item response theory (IRT) model to simultaneously estimate students' overall understanding of Newtonian mechanics (the IRT latent trait, or person parameter) and determine how closely each response choice correlates with a high level of understanding using the estimated parameters of the model [19][20][21][22][23][24].…”
Section: Introductionsupporting
confidence: 89%
“…This assumption is based on the premise that students who understand more about Newtonian physics are more likely to choose better incorrect answers than students who understand less physics, and these students are also more likely to choose a greater number of correct responses. This assumption is consistent with previous work that has used item response curves (IRCs) to examine and rank incorrect responses on both the FCI and the FMCE [15][16][17][18]. We expand on this prior work by using a nested-logit item response theory (IRT) model to simultaneously estimate students' overall understanding of Newtonian mechanics (the IRT latent trait, or person parameter) and determine how closely each response choice correlates with a high level of understanding using the estimated parameters of the model [19][20][21][22][23][24].…”
Section: Introductionsupporting
confidence: 89%
“…Given the strong correlation between the student parameter and the total score on the FCI [4], Morris et al use the total score as the independent variable rather than estimations of a latent trait. Walter and Morris expanded on this work by using IRCs to rank incorrect responses on the FCI from more to less sophisticated [8]. Their main claim is that an incorrect response that is more popular among higher-scoring students represents a higher level of understanding than a response that is most popular among lower-scoring students.…”
Section: Ranking Fmce Responsesmentioning
confidence: 99%
“…We determined students' total scores out of 33 possible points based on typical scoring recommendations for the first 43 questions of the FMCE [13]. Unfortunately, we were unable to use the method described by Walter and Morris to rank incorrect responses to FMCE questions [8]. The inclusion of up to four additional answer choices (nine on some FMCE questions compared to the FCI's five) made it impossible to distinguish between many of the options.…”
Section: Ranking Fmce Responsesmentioning
confidence: 99%
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