University at Buffalo, State University of New York
Explore University at Buffalo, State University of New York's available technologies.
Carbon-Doped Titania Nanofiltration Membrane with Precisely Tuned Molecular-Sized Pores
Ultrathin (30 nm) carbon-doped titania nanofiltration membrane with precisely tunable molecular weight cut-off between 200 and 1,200 Da, delivering up to two orders of magnitude higher flux than commercial nanofiltration...
Bio-based multilayer packaging recycling via solvent delamination and selective dissolution
Solvent-based delamination and selective dissolution technology for recycling complex bio-based multilayer packaging films. Enables separation of bonded polymer layers into individual recyclable films, supporting circula...
Antiviral Cu Materials for High-Touch Surface Coatings
Water-based nanostructured copper (Cu) ink designed as a spray-coatable antiviral coating for high-touch surfaces. The eco-friendly ink enables rapid, long-lasting, photocatalytic disinfection without toxic chemicals, re...
In-situ X-ray characterization of protein structural transformations during extrusion
A novel platform using SAXS/WAXS X-ray diffraction inside transparent extrusion sample environments to capture real-time protein structural data under industrial processing conditions. Enables high-throughput screening a...
Microbial production platform for salicylate glucoside (SAG) as a plant protection agent
Heterologous biosynthesis platform in E. coli producing salicylate glucoside (SAG), a natural compound that boosts plant defense against pathogens and abiotic stresses. Validated in Arabidopsis against Pseudomonas syring...
AI and informatics platform for benign-by-design chemical discovery
Computational and machine learning tools that accelerate the design of safer, high-performing chemistries by predicting toxicity, guiding safer substitutions, and screening for targeted molecular functionality.
Delamination technology for recycling multilayer packaging films
A solvent-assisted delamination process that separates and recovers high-purity polyolefins from multilayer packaging films for reuse. This method is environmentally friendly, preserving the polymers' solid state and ene...
Dative epitaxy of nitride semiconductors for advanced materials integration
Dative epitaxy offers a novel growth mechanism for nitride semiconductors, enabling integration on dissimilar substrates by leveraging donor-acceptor interactions. This method improves material compatibility and opens pa...
Hybrid ALD-Ink Epitaxy for Low-Cost Nitride Semiconductor Growth
A novel hybrid approach integrating ALD, metal-nitride inks, and 2D buffers to produce high-performance, low-cost nitride semiconductors. This method reduces costs by 30-50% while maintaining quality, using scalable proc...
Epitaxial growth of nitride semiconductors using pulsed laser deposition
This advanced solution leverages pulsed laser deposition (PLD) for the heteroepitaxial growth of nitride semiconductors, offering advantages in uniformity and surface smoothness over traditional methods. Suitable for app...
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