DISCOVER · UNDERSTAND · CONNECT
Explore the organisations, materials and ideas shaping photovoltaic innovation. Connect industry knowledge with research tools and collaboration.
A curated NexSolveAI knowledge hub · Edition 1.0 · 18 October 2026
Illustrative multilayer stack
Explore energy · light · charge transport
GLOBAL PHOTOVOLTAIC INNOVATION
Discover manufacturers, software providers, university laboratories and research centres. Listings are informational and do not imply partnership or endorsement.
START WITH THE SCIENCE
Brief introductions for students, researchers and industry visitors. Open each card to discover questions worth investigating.
Crystalline silicon photovoltaics benefit from reduced recombination, improved passivating contacts and optical management. TOPCon, heterojunction and back-contact describe different architectural features.
Compare Voc, Jsc, fill factor, temperature coefficient and bifacial response. Distinguish cell measurements from module ratings.
Metal-halide perovskites offer tunable absorption and processing routes. Ionic redistribution, interface recombination and environmental sensitivity influence performance. Perovskites can be hybrid or all-inorganic.
Report composition, area, scan direction/rate and stabilized maximum-power output. Evaluate encapsulation and operational aging; J–V hysteresis alone does not establish a mechanism.
Stacked absorbers with different bandgaps use more of the solar spectrum. Two-terminal tandems require current matching; four-terminal configurations allow separate electrical operation.
Compare subcell EQE, spectral mismatch, interconnection losses, stabilized efficiency and measurement aperture.
Thin absorbers and scalable deposition enable device architectures different from wafer silicon. CdTe and CIGS have distinct material properties and manufacturing requirements.
Study absorber quality, contacts, composition, band alignment, module uniformity and long-term degradation.
Organic semiconductors absorb light and form excitons. Charge separation, blend morphology and selective contacts influence collected current and device stability.
Compare J–V and EQE under stated illumination. Indoor and outdoor efficiencies require different spectra and cannot be directly ranked.
A sensitizer absorbs light and injects charge into a semiconductor, commonly a mesoporous oxide. Dye regeneration and charge collection complete the photovoltaic cycle.
Investigate dye absorption, redox mediation, recombination and sealing. Interpret impedance with a justified equivalent circuit.
Building integration, flexible formats and rear-side collection extend deployment choices. Irradiance, albedo, shading, temperature and mounting affect energy yield.
Compare annual kWh/kWp, thermal conditions and degradation, not only nameplate efficiency. Document rear irradiance for bifacial measurements.
J–V, EQE, impedance and transient measurements probe different aspects of device operation. Equivalent-circuit parameters depend on model assumptions and measurement conditions.
Use calibrated illumination and area, units and uncertainty. Do not infer doping density from Mott–Schottky plots without checking depletion assumptions and frequency/ionic effects.
CURATED READING & EXPLORATION
Original summaries link to official resources. Some external training or software may require registration or payment. Vendor performance claims should be assessed using their stated conditions.
Oxford PV explains its tandem technology approach.
Explore official resource ↗First Solar introduces its CdTe photovoltaic technology.
Explore official resource ↗LONGi presents its module architectures and product information.
Explore official resource ↗Explore institutional research themes and links to scientific output.
Explore official resource ↗Explore tandem solar cell concepts and departmental research links.
Explore official resource ↗Open-source tools for photovoltaic system performance modelling. Check model assumptions and documentation before use.
Explore official resource ↗Explore solar energy research infrastructure through the official institutional directory.
Explore official resource ↗CSEM introduces research and applications in integrated photovoltaic solutions.
Explore official resource ↗PUT KNOWLEDGE TO WORK
Explore available NexSolveAI toolkits for solar cell structures, energy levels, J–V analysis and impedance workflows through the customer portal.
Open customer portal ↗Explore membership and opportunities to connect with researchers through RCN. Access requirements are managed by RCN.
Explore RCN ↗Discuss research guidance, interactive tools, scientific software and tailored digital solutions with NexSolveAI.
Explore services ↗HELP THE HUB GROW
Send an official website, organisation name and a short explanation of its relevance. Suggested entries are reviewed before publication.
Compiled by NexSolveAI. Organisation summaries are based on official institutional and company pages checked on 18 October 2026. A check date records source review, not independent technical validation. Listings are a starting collection, not a comprehensive ranking. Research centres may cover technologies beyond photovoltaics. No formal affiliation is implied. Names and trademarks belong to their respective owners. Contact info@nexsolveai.net for corrections.
Technical notes are introductory. Material energy values and device performance depend on measurement conditions, morphology and interfaces. Synthetic demonstrations must be identified as synthetic and are not experimental evidence.