3D Model of Photoluminescence in Soft-Semiconductors

The incorporation of modern teaching aids, such as videos, pictures, and demonstrations, rather than relying solely on textbooks, can increase student engagement and support understanding of the material. This is particularly important when dealing with abstract or complex concepts, such as the behavior of excited charge carriers, and specifically excitons, in semiconductors, where learning aids become essential tools for comprehension. In this educational article, we propose a working model of photoluminescence in semiconductors, with particular emphasis on semiconductors with a soft crystal lattice in which self-trapped excitons can form. The model can be easily replicated using a simple 3D printer and standard electronic components. The lesson is grounded in constructivist learning theory and implemented through the predict–observe–explain (POE) framework, which promotes active learning by encouraging students to compare their prior conceptions with experimental outcomes and refine their understanding accordingly, a particularly effective approach for illustrating photoluminescence. The proposed lesson plan is applicable from middle school classrooms to undergraduate chemistry courses.

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Publication Details

Journal
Journal of Chemical Education
Published
2026-03-31
DOI
https://doi.org/10.1021/acs.jchemed.5c00711
Primary Topic
Advanced Materials and Semiconductor Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

3D Model of Photoluminescence in Soft-Semiconductors

Ido Hadar, Elisheva Michman, Leehie Aridor, Yuval Yanushpolsky
Journal of Chemical Education
Advanced Materials and Semiconductor Technologies
article

3D Model of Photoluminescence in Soft-Semiconductors

Ido Hadar, Elisheva Michman, Leehie Aridor, Yuval Yanushpolsky
article en

Abstract

The incorporation of modern teaching aids, such as videos, pictures, and demonstrations, rather than relying solely on textbooks, can increase student engagement and support understanding of the material. This is particularly important when dealing with abstract or complex concepts, such as the behavior of excited charge carriers, and specifically excitons, in semiconductors, where learning aids become essential tools for comprehension. In this educational article, we propose a working model of photoluminescence in semiconductors, with particular emphasis on semiconductors with a soft crystal lattice in which self-trapped excitons can form. The model can be easily replicated using a simple 3D printer and standard electronic components. The lesson is grounded in constructivist learning theory and implemented through the predict–observe–explain (POE) framework, which promotes active learning by encouraging students to compare their prior conceptions with experimental outcomes and refine their understanding accordingly, a particularly effective approach for illustrating photoluminescence. The proposed lesson plan is applicable from middle school classrooms to undergraduate chemistry courses.

Journal of Chemical EducationVol. 103(4)
Hebrew University of Jerusalem (IL), Center for NanoScience (DE)
United States - Israel Binational Science Foundation
Openalex Percentile: Top 36%
Advanced Materials and Semiconductor Technologies
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