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Charge Ahead: Scale-Ready Pt₃Ni Nano-Octahedra Boost ORR Speeds and Use Far Less Platinum

Title: Charge Ahead: Scale-Ready Pt₃Ni Nano-Octahedra Boost ORR Speeds and Use Far Less Platinum This invention introduces a scalable wet-chemical process to produce Pt₃Ni nano-octahedra with {111} facets, delivering up to 6x higher oxygen reduction reaction activity while cutting platinum usage. Background: Fuel cell performance is limited by the...

Published: 11/18/2025 Updated: 1/28/2020 Inventor(s): Jiye Fang, Jun Zhang Keywords(s): #SUNYresearch, CleanTech, Technologies Category(s): Technology Classifications > Nanotechnology, Campus > Binghamton University
Smarter Catalyst Design: Low Platinum-Alloy Nanoparticles Make Fuel Cells Cheaper and More Powerful

Title: Smarter Catalyst Design: Low Platinum-Alloy Nanoparticles Make Fuel Cells Cheaper and More Powerful This invention introduces a refined process to produce platinum alloy catalysts with higher performance and durability for fuel cells by using inert/reducing gas treatment and sequential annealing to boost activity, stability, and cost-effectiveness....

Controlled-Size PtCo Nanoparticle Catalysts for High-Performance PEM Fuel Cells

A tunable, two-mode synthesis method produces highly uniform PtCo nanoparticles across a broad size range, enabling precise control of catalytic properties for next-generation fuel cells. By optimizing composition, size, and monodispersity, the technology delivers higher activity, greater durability, and reduced platinum usage for improved PEM fuel...

Advanced Nano-Fiber Composite TIM for Ultra-High-Performance Electronics Cooling

This technology solves a major heat problem in modern electronics, where traditional thermal interface materials struggle to move heat away fast enough and carbon-nanotube options are often fragile or hard to manufacture. It uses tiny, well-aligned fibers with protective layers to move heat away quickly while maintaining flexibility, durability, and...

Using Platinum is Dense, but Your Catalyst Reaction Doesn't Have to be. Hollow Pt₃Ni Frames Engineered to Rise Above in Speed and Performance.

Title: Using Platinum is Dense, but Your Catalyst Reaction Doesn't Have to be. Hollow Pt₃Ni Frames Engineered to Rise Above in Speed and Performance. This invention introduces a rapid gas-phase CO etching method to create hollow Pt₃Ni nanoframe catalysts with a Pt-rich skin, offering faster synthesis, reduced platinum usage, and superior catalytic...

Published: 1/8/2026 Updated: 1/17/2020 Inventor(s): Jiye Fang, Yiliang Luan Keywords(s): #SUNYresearch, CleanTech, Technologies Category(s): Technology Classifications > Nanotechnology, Campus > Binghamton University
A Nanocomposite Scaffold Consisting of Functionalized Gold Nanoparticles and Nanofibrous Membranes for Fabrication of Flexible Sensors

This invention introduces a flexible, multi-layer nanocomposite membrane that solves common problems with current wearable sensors, which often struggle to be both sensitive and comfortable to wear. By combining functionalized gold nanoparticles with a fibrous scaffold, it enables low-cost, real-time detection of humidity, ions, and biomolecules while...

Light-Activated Nanofiber Catalysts for Next-Generation Pollution Control

This invention introduces electrospun TiO₂ nanofibers with optimized crystalline phases and one-dimensional morphology, enabling rapid, reusable, and visible-light-driven degradation of pollutants for large-scale decontamination. Background: Persistent pollutants such as pharmaceutical waste, textile dyes, and chemical warfare agents threaten ecosystems...

High Conductivity Sintering Pastes for Durable Thermal and Electrical Bonding

This invention provides hybrid pastes that transform into a highly conductive metallic network capable of carrying heat, electricity and mechanical load. By removing the organic phase during heating and sintering the inorganic particles, the paste forms a strong bond that works at very high temperatures where conventional materials fail. Background:...