A Highly Reflective White Paint Is Not Automatically an Effective Radiative Cooling Coating.
Passive radiative cooling coatings are attracting growing interest for buildings, outdoor equipment, transportation and thermal-management applications because they can reduce surface temperature without active energy input. But developing a practical cooling coating requires much more than maximizing whiteness or adding highly reflective fillers.
The formulation must reflect a large proportion of incoming solar radiation while also emitting thermal energy efficiently through the atmospheric infrared window. Pigment selection, particle size, refractive-index contrast, binder chemistry, pigment volume concentration, porosity and film thickness can all influence that balance. At the same time, the coating still needs to disperse properly, apply consistently and retain adhesion, mechanical integrity, appearance and optical performance during outdoor exposure.
This advanced training examines how radiative cooling performance can be engineered through practical paint and coating formulation, with particular attention to pigment and filler design, binder selection, coating microstructure, colored systems, durability, application variables and real-world performance validation. The focus is not simply on achieving impressive laboratory reflectance numbers. It is on developing coatings that combine optical performance with practical formulation, processing and durability requirements.
Why Attend?
Optimize pigment and filler scattering efficiency
Balance solar reflectance and infrared emissivity
Control PVC, porosity and coating microstructure
Develop white and colored cooling coatings
Improve durability and optical-performance retention
Interpret laboratory and outdoor cooling results
Who Should Attend?
This advanced training is particularly relevant for:
Architectural and functional coating formulation scientists
Cool-roof and thermal-management coating developers
Pigment, filler and functional additive specialists
Industrial coatings R&D chemists
Polymer binder and resin development scientists
Technical teams developing energy-efficient surface coatings
Problems the Training Will Help Solve
High reflectance is achieved, but outdoor cooling remains disappointing.
Increasing filler loading improves scattering but compromises film integrity.
Initial cooling performance declines significantly after outdoor weathering.
High Pigment Volume Concentration (PVC) increases useful air interfaces but also dirt and water sensitivity.
Colored formulations lose too much cooling performance through increased solar absorption.
Laboratory spectral results do not consistently translate into field-temperature reductions.
Greater film thickness improves optical performance but increases cost and cracking risk.
Binder yellowing and surface contamination gradually reduce solar reflectance.
Training Outline
Radiative Cooling Beyond Conventional Reflective Paints
Pigment, Filler and Particle-Scattering Design
Binder Chemistry and Infrared Emissivity
PVC, Porosity and Coating Microstructure
White and Colored Radiative Cooling Formulations
Dispersion, Application and Film-Build Optimization
Weathering, Dirt Resistance and Performance Retention
Optical Testing, Outdoor Validation and Troubleshooting
Case Studies
Expert Q&A Session
Move Beyond Reflectance-Only Formulation.
Develop radiative cooling coatings that balance solar reflectance, infrared emission, film integrity, durability and real-world application performance. Register Now.
