Discover how to fabricate solar cells using slot-die coating in this detailed, lab-focused guide. Learn about ink preparation, substrate handling, layer coating, and printing electrodes.

Discover how Source Measurement Units (SMUs) are used to characterize solar cells, semiconductors, and electronic devices. Learn about I-V curve measurements, MPPT tracking, and stability testing for optimized performance.

Organic solar cells (OSCs) offer a promising solution to the limitations of traditional solar panels, with their flexible, lightweight design suitable for applications in wearable electronics, building-integrated technology, and portable devices.

Solar cells convert light directly into electricity, transforming energy production and its integration into society. This article covers the working principles of solar cells, the importance of semiconductors, and the different generations of solar cell technology, from silicon-based to emerging organic and perovskite solutions.

Explore the science of solar cell efficiency, from PCE to IPCE. Understand key parameters like Jsc, Voc, and Fill Factor (FF), and discover how advanced metrics like EQE and IPCE provide deeper insights into solar technology performance

LBIC plays a key role in the MADRAS project by providing high-resolution mapping of organic photodetectors and solar cells. This technique uncovers defects caused by the injection-moulding process, enabling targeted improvements in flexible electronics.

Silver nanowires (AgNWs) are ultra-thin, highly conductive materials redefining the future of electronics. With applications in touchscreens, flexible displays, solar cells, and sensors, their unique properties offer a sustainable alternative to traditional materials like indium tin oxide.

Surface treatment technologies like plasma and corona are crucial for enhancing the adhesion of inks, coatings, and adhesives, particularly when working with non-porous materials like plastics and polymers.