Many "photocatalytic" reactions actually benefit from photogenerated heat: illumination heats the catalyst or support, and the temperature rise itself accelerates the reaction. Without distinction, the thermal contribution is wrongly attributed to light, leading to distorted mechanisms and reviewer challenges.
| Method | Practice | What it shows |
|---|---|---|
| Optical filter | Use a cutoff filter to block heat-related bands | Whether light excitation contributes activity independently |
| Dark-reaction heating | No light, heat to the same temperature with a hot stage | Pure thermal-effect baseline |
| Synchronous temperature measurement | Record sample temperature in real time | True temperature under photothermal coupling |
The PLR-SYTC Photothermal Synergy Solar Simulator Reaction Device can superimpose or strip the thermal field under the same optical path; the PLR-PTSR II Photothermal Catalysis Reactor is suitable for mechanism-level temperature-controlled photoreactions. Both emphasize real-time temperature measurement at the sample position, avoiding misleading "lamp-port temperature."
Free consultation: Can't sort out the light/heat contribution? Perfectlight's PLR-SYTC and PLR-PTSR II photothermal catalysis reactors come with temperature-measurement schemes to help you separate light from heat clearly.
Tel: 400-1161-365 / 010-62128921 Perfectlight Official Website
Illumination often heats the catalyst, and the resulting temperature rise accelerates the reaction; without separation, the thermal part is wrongly credited to light.
Use optical-filter controls, dark-reaction (same-temperature, no-light) baselines, and real-time sample-position temperature measurement.
The PLR-SYTC can superimpose or strip the thermal field under one optical path; the PLR-PTSR II is built for mechanism-level temperature-controlled photoreactions.
This article does not constitute a performance commitment; specific technical parameters are subject to the actual product documentation and mutual confirmation.
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