A porous solar cell stack uses an insulating separating layer to house a charge conducting medium for efficient electron extraction.
Chalcogenide nanoparticles enable efficient photon upconversion at low intensities, resolving toxicity and stability issues in solar and medical applications.
Segmenting the porous substrate isolates the conducting medium to lower resistive losses while maintaining mechanical stability through an insulating portion.
Adjacent current extracting portions reduce connector count in dye-sensitized solar cells, preventing moisture ingress through transparent adhesive sealing.
Segmented heating and firing of titanium dioxide nucleus crystals with alkali metal compounds to grow columnar particles.
Coplanar electrode side surfaces enable edge sealing for dye-sensitized solar cells.
A hybrid vehicle roof panel integrates transparent solar cells in the center with high-efficiency edge modules to maximize energy capture.
Physical gelling with high boiling point solvents prevents phase separation and solvent leakage in dye-sensitized solar cells.
A dye-sensitized photoelectric conversion element with optimized electrolyte and ultraviolet absorbing layer transmittance.
Sequential n-type and p-type doping with controlled thermal diffusion reduces off-current and improves integration density in semiconductor devices.
A polymer/graphene composite gel electrolyte enhances ion diffusibility and conductivity in dye-sensitized solar cells.
Thermal sublimation of melamine precursors deposits uniform graphitic carbon nitride semiconductor films, resolving adhesion-induced non-uniformity.
Aerosol-jet printing deposits perovskite layers directly onto curved substrates for scalable fabrication.