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Development of computational algorithm for prediction of photosensor signals in daylight conditions
Abstract This study aims to develop and validate an annual photosensor performance simulation method (APPSM) to compute the photosensor signals for a lighting control system under various daylight conditions. A series of computer simulations using PSENS, which is a simulation program within Radiance software were conducted and field measurements were performed under various daylight conditions in order to validate the simulation results of APPSM. Results indicate that the photosensor signals predicted by PSENS and APPSM showed a strong linear correlation. Prediction results by APPSM generally consisted with the results field measurements, although slight differences between them existed under particular daylight conditions. The differences in photosensor signals between the prediction by APPSM and measurement effectively decreased as shielding conditions were applied to photosensors. A strong linear relationship existed between the photosensor signals obtained from prediction by APPSM and the field measurements. The prediction models for the photosensor shielding conditions were acceptable with a significance level of 0.01. The majority of percent differences between the measured and simulated photosensor signals were within 10% under clear and partly cloudy sky conditions.
Graphical abstract Display Omitted
Highlights An annual photosensor performance simulation method (APPSM) was developed. Results of APPSM were validated using PSENS and field measurements. Photosensor signals predicted by PSENS and APPSM showed close agreement. Prediction results by APPSM consisted with the results of field measurements.
Development of computational algorithm for prediction of photosensor signals in daylight conditions
Abstract This study aims to develop and validate an annual photosensor performance simulation method (APPSM) to compute the photosensor signals for a lighting control system under various daylight conditions. A series of computer simulations using PSENS, which is a simulation program within Radiance software were conducted and field measurements were performed under various daylight conditions in order to validate the simulation results of APPSM. Results indicate that the photosensor signals predicted by PSENS and APPSM showed a strong linear correlation. Prediction results by APPSM generally consisted with the results field measurements, although slight differences between them existed under particular daylight conditions. The differences in photosensor signals between the prediction by APPSM and measurement effectively decreased as shielding conditions were applied to photosensors. A strong linear relationship existed between the photosensor signals obtained from prediction by APPSM and the field measurements. The prediction models for the photosensor shielding conditions were acceptable with a significance level of 0.01. The majority of percent differences between the measured and simulated photosensor signals were within 10% under clear and partly cloudy sky conditions.
Graphical abstract Display Omitted
Highlights An annual photosensor performance simulation method (APPSM) was developed. Results of APPSM were validated using PSENS and field measurements. Photosensor signals predicted by PSENS and APPSM showed close agreement. Prediction results by APPSM consisted with the results of field measurements.
Development of computational algorithm for prediction of photosensor signals in daylight conditions
Yoon, Younju (author) / Lee, Ji-Hyun (author) / Kim, Sooyoung (author)
Building and Environment ; 89 ; 229-243
2015-02-24
15 pages
Article (Journal)
Electronic Resource
English
Development of computational algorithm for prediction of photosensor signals in daylight conditions
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