developments, and market conditions to support the expansion of components (such as windows or curtain-wall) and converted into heat. solar energy that is transferred into indoor spaces, reducing therefore cooling demand. Methodologies are needed to assess the SHGC of BIPV PVPS Experts examined the current state of PV module recycling, modules used as architectural glazing, considering also that part of the regulatory developments, and emerging technology trends in countries absorbed solar energy is converted into electricity, and should be across the globe. The goal was to provide the evidence base and practical knowledge needed to scale up recycling capacity, improve economic viability, and ensure recovered materials feed back into the PV supply chain. As the volume of end-of-life (EOL) modules grows in the coming decades, effective recycling will be critical to ensuring that PV remains a sustainable cornerstone of the global energy transition. Regulatory frameworks are evolving worldwide. The EU has adopted the WEEE Directive for PV waste. In other parts of the world, legislative and Task 15 experts, for application to BIPV modules: calorimetric preparation. Regardless of whether there are PV-specific waste measurements and component-based calculation methods. It was EOL management and recycling, and the number has increased since it and the thermal properties of the glazing. Existing international The current low volumes, limited recycling technologies, logistics characteristics of BIPV, allowing improved comparability and accuracy challenges, and underdeveloped markets for recovered materials result in a high-cost, low-revenue scenario for PV module recycling today. Technology development is broadening the scope of recycling. PV materials. Enabling the use of recovered materials in new PV cells/modules and other high-value markets are ultimate targets, whereas impurities and additives remain issues to be solved. Recycled supply for PV module production and other industries. As global PV deployment grows rapidly, the management of modules at the end of their lifetime is becoming increasingly important. Although PV systems are designed for long service lives, significant volumes of end- of-life (EOL) modules are expected in the coming decades. → See more PVPS publications about recycling, circular economy, recovering valuable materials and reducing environmental impacts. However, scaling up recycling capacity and improving economic viability