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Horizon Europe
Tin halide perovskite solar cells show promising potential with high power conversion efficiencies and low-cost fabrication processes, though ongoing research targets further improvements in stability and scalability for broader commercial viability.
Our mission is to address the critical challenges facing the photovoltaic sector through groundbreaking research and development. By advancing thin-film PV technology and strengthening the European PV value chain, we aim to empower communities and industries with reliable, cost-effective, and sustainable solar energy solutions, fostering a cleaner and more resilient energy future.
We aim to cut solar power costs by over 50% with advanced perovskite technology and efficient production.
We enhance solar cell durability and versatility, boosting energy output in compact spaces, crucial for urban settings.
We enhance perovskite cell stability with new compositions and encapsulations, extending lifespan and commercial viability.
Perovskite solar technology holds great promise for the future of solar energy.
Our cutting-edge research in thin-film PV technology is poised to break through current barriers.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
The morphology of tin-based perovskite in scanning electron microscopy (SEM) reveals a multifaceted structure with well-defined crystal facets and surface features. SEM images provide insights into the size and shape variations of perovskite crystals, crucial for their electronic and optical properties.
Showcase a threefold reduction in raw material supply risk and a substantial increase in material recyclability compared to existing thin film PV technologies on the market.
Harnessing prosuming’s dynamic energy, we explore the boundless potential of PV foil—lightweight, flexible, and available in any color. Our pioneering plasma-assisted techniques refine tin perovskite technology, enhancing reproducibility and grain sizes for sustainable solar solutions.
Temicon is a worldwide series producer of nano and micro structured films for innovative displays, LED, Solar or Optics applications. The company temicon is a pioneer in lithographic production of micro- and nanostructures on large, seamless surfaces and replication by roll-to-roll or roll-to-plate nanoimprint processing and electroforming.
Forging ahead with the commercialization of our transformative technologies, we’ve established strategic collaborations with renowned industry leaders who share our vision for the future of solar energy.
Let’s drive innovation, transform markets, and lead the way towards a sustainable energy future together.
