P6 Pattern of Biophilic Design: Impact on Visual Comfort and Cognitive Performance of Architectural Technology Students.

Scrutiny of the NBTE-approved curricula and course specifications for both National Diploma and Higher National Diploma students of Architectural Technology revealed that the revised document has new courses and upwardly reviewed course hours of some existing courses. Students are now expected to spend extended periods in the studio for sundry academic tasks. This puts considerable pressure on their visual comfort especially when lighting conditions are below-par, inappropriate, and ineffectual. With rising cases of asthenopia, ocular fatigue, and deteriorating academic performance of architectural technology students of NBTE-accredited schools of architecture, it has become necessary to float a study directed at understudying how the P6 Pattern of Biophilic Design impacts the academic performance and well-being of students. Precisely, this study investigated how lighting conditions of studios affect the visual comfort and cognitive performance of Architectural Technology students. The study involved 176 consensual participants, 44 participants per set, who were randomly selected across the Department of Architectural Technology, Federal Polytechnic Nekede, Owerri. A battery of tests, including delta blink rate calculations and surveys, were directed at measuring cognitive performance, eye strain fatigue, and ocular fatigue within four lighting conditions - static cool white light, static warm white light, dynamic light, and diffuse light. Analysis with dual-axes composite graphs and scatter plots informed patterns, relationships, and findings which indicated that dynamic lighting conditions impacted positively cognitive performance. Participants exposed to dynamic lighting exhibited an improved cognitive performance of 1.06%, 2.17%, and 7.1% respectively over similar cohorts exposed to diffuse lighting, static cool white lighting, and static warm lighting conditions. Even though diffuse lighting conditions indicated approximate findings, ocular fatigue remained significantly lowered while eye strain fatigue tended towards a best-case scenario in dynamic lighting conditions, signifying improved visual comfort. To this end, it became pertinent to advance a recommendation that advocates for appropriate lighting conditions that mimic natural environments while supporting the circadian rhythm of students in studios, workspaces, and areas where intense mental acuity is required.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2024-08-19
DOI
https://doi.org/10.5281/zenodo.14284140
Primary Topic
Ergonomics and Musculoskeletal Disorders
Type
article
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article

P6 Pattern of Biophilic Design: Impact on Visual Comfort and Cognitive Performance of Architectural Technology Students.

Zenodo (CERN European Organization for Nuclear Research)
Ergonomics and Musculoskeletal Disorders
article

P6 Pattern of Biophilic Design: Impact on Visual Comfort and Cognitive Performance of Architectural Technology Students.

article en

Abstract

Scrutiny of the NBTE-approved curricula and course specifications for both National Diploma and Higher National Diploma students of Architectural Technology revealed that the revised document has new courses and upwardly reviewed course hours of some existing courses. Students are now expected to spend extended periods in the studio for sundry academic tasks. This puts considerable pressure on their visual comfort especially when lighting conditions are below-par, inappropriate, and ineffectual. With rising cases of asthenopia, ocular fatigue, and deteriorating academic performance of architectural technology students of NBTE-accredited schools of architecture, it has become necessary to float a study directed at understudying how the P6 Pattern of Biophilic Design impacts the academic performance and well-being of students. Precisely, this study investigated how lighting conditions of studios affect the visual comfort and cognitive performance of Architectural Technology students. The study involved 176 consensual participants, 44 participants per set, who were randomly selected across the Department of Architectural Technology, Federal Polytechnic Nekede, Owerri. A battery of tests, including delta blink rate calculations and surveys, were directed at measuring cognitive performance, eye strain fatigue, and ocular fatigue within four lighting conditions - static cool white light, static warm white light, dynamic light, and diffuse light. Analysis with dual-axes composite graphs and scatter plots informed patterns, relationships, and findings which indicated that dynamic lighting conditions impacted positively cognitive performance. Participants exposed to dynamic lighting exhibited an improved cognitive performance of 1.06%, 2.17%, and 7.1% respectively over similar cohorts exposed to diffuse lighting, static cool white lighting, and static warm lighting conditions. Even though diffuse lighting conditions indicated approximate findings, ocular fatigue remained significantly lowered while eye strain fatigue tended towards a best-case scenario in dynamic lighting conditions, signifying improved visual comfort. To this end, it became pertinent to advance a recommendation that advocates for appropriate lighting conditions that mimic natural environments while supporting the circadian rhythm of students in studios, workspaces, and areas where intense mental acuity is required.

Zenodo (CERN European Organization for Nuclear Research)
Federal Polytechnic Nekede (NG)
Sustainable cities and communities
Openalex Percentile: Top 49%
Ergonomics and Musculoskeletal Disorders
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