<?xml version="1.0" encoding="utf-8"?><rss version="2.0"><channel><title>Latest technologies from University of Wyoming</title><link>http://uwyo.technologypublisher.com</link><description>Be the first to know about the latest inventions and technologies available from University of Wyoming</description><language>en-US</language><pubDate>Fri, 10 Apr 2026 02:38:19 GMT</pubDate><lastBuildDate>Thu, 12 Mar 2026 13:43:51 GMT</lastBuildDate><docs>http://blogs.law.harvard.edu/tech/rss</docs><webMaster>nsanche4@uwyo.edu</webMaster><copyright>Copyright 2026, University of Wyoming</copyright><item><title>Novel Strategy to Manage Obesity</title><caseId>14-055</caseId><link>https://uwyo.technologypublisher.com/tech/Novel_Strategy_to_Manage_Obesity</link><description>Background

Obesity is on the rise in western countries due to sedentary lifestyles and poor diet. Traditional solutions, such as diet, exercise, and medical procedures, are imperfect to address obesity and often suffer from efficacy impacting patient non-compliance and health risks for patients whose poor physical condition subjects them to complications. Moreover, the ability to address specific areas of the body for fat reduction for aesthetic purposes remains elusive.

Technology Overview

This solution is at a TRL (Technology Readiness Level) rating of 3. TRPV1 protein agonists are a prom...</description><pubDate>Thu, 12 Mar 2026 13:43:51 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Novel_Strategy_to_Manage_Obesity</guid></item><item><title>Wood-Derived Monolithic Cathodes for High-Performance Batteries</title><caseId>22-020</caseId><link>https://uwyo.technologypublisher.com/tech/Wood-Derived_Monolithic_Cathodes_for_High-Performance_Batteries</link><description>This technology is a novel, low-cost process to manufacture high-performance, monolithic battery cathodes from woody biomass, enabling next-generation lithium-sulfur batteries with higher energy density and a secure domestic supply chain.

The Problem: The mass adoption of electric vehicles (EVs) is hindered by the high cost and limited range of current lithium-ion batteries. These batteries rely on expensive, geopolitically sensitive materials like cobalt and nickel for their cathodes, which account for over 35% of the total cell cost and face supply chain risks.

The Solution: This technolog...</description><pubDate>Tue, 10 Mar 2026 12:11:47 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Wood-Derived_Monolithic_Cathodes_for_High-Performance_Batteries</guid></item><item><title>Thermogravimetric Quantification of Porous Materials</title><caseId>23-041</caseId><link>https://uwyo.technologypublisher.com/tech/Thermogravimetric_Quantification_of_Porous_Materials</link><description>A high throughput method utilizing thermogravimetric analysis to accurately quantify the specific surface area and pore size distribution of porous solids using application relevant adsorbates at elevated temperatures.

The Problem Conventional cryogenic physisorption techniques suffer from slow kinetic diffusion rates, making equilibrium isotherms difficult to measure accurately. Furthermore, standard methods rely on cryogenic gases like nitrogen or argon, which often poorly predict how a porous solid will interact with other chemicals relevant to its actual commercial application.

The Solut...</description><pubDate>Tue, 10 Mar 2026 12:11:11 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Thermogravimetric_Quantification_of_Porous_Materials</guid></item><item><title>Reflective Assay Wells for Luminescent Signal Amplification</title><caseId>23-015</caseId><link>https://uwyo.technologypublisher.com/tech/Reflective_Assay_Wells_for_Luminescent_Signal_Amplification</link><description>The novel design amplifies fluorescent and luminescent signals, dramatically increasing measurement sensitivity for a range of tests.

Problem Improving the sensitivity of diagnostic and research assays, which are crucial for detecting diseases and performing biological research, often requires expensive, complex detectors or cumbersome sample preparation steps. Standard assay wells, like those in microplates, are inefficient as they fail to capture a significant portion of the light emitted from a sample, leading to weaker signals and higher, less sensitive limits of detection.

Solution This...</description><pubDate>Fri, 20 Feb 2026 15:46:32 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Reflective_Assay_Wells_for_Luminescent_Signal_Amplification</guid></item><item><title>Non-Intrusive Laser System for Rapid Protein Denaturation</title><caseId>19-004</caseId><link>https://uwyo.technologypublisher.com/tech/Non-Intrusive_Laser_System_for_Rapid_Protein_Denaturation</link><description>A non-intrusive, laser-based system that continuously monitors and controls the thermal digestion of biological samples to precisely determine the conclusion of digestion for mass spectrometry imaging.

The Problem: Traditional enzymatic digestion of biological samples is a slow process that takes hours and can lead to the delocalization of targeted products. Alternative thermal digestion methods lack non-intrusive monitoring, which creates uncertainty regarding the necessary duration of thermal treatment and requires extensive trial and error.

The Solution: This technology provides a non-int...</description><pubDate>Thu, 19 Feb 2026 14:18:15 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Non-Intrusive_Laser_System_for_Rapid_Protein_Denaturation</guid></item><item><title>Mobile “Drive Around” Methane Leak Detection System</title><caseId>24-024</caseId><link>https://uwyo.technologypublisher.com/tech?title=Mobile_%e2%80%9cDrive_Around%e2%80%9d_Methane_Leak_Detection_System</link><description><![CDATA[Mobile &ldquo;Drive Around&rdquo; Methane Leak Detection System

A scalable, vehicle-based monitoring solution utilizes advanced machine learning to rapidly detect and quantify methane emissions at oil and gas facilities using low-cost sensors.

Problem

Current methane measurement, reporting, and validation solutions are often prohibitively expensive or complex to implement across vast oilfields. As global regulations tighten, operators lack affordable, scalable methods to comply with strict leak detection standards without incurring high implementation costs.

Solution

This technology offer...]]></description><pubDate>Wed, 18 Feb 2026 12:36:38 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech?title=Mobile_%e2%80%9cDrive_Around%e2%80%9d_Methane_Leak_Detection_System</guid></item><item><title>A Low-Cost, Portable Method for Measuring Iron Oxidation State</title><caseId>26-004</caseId><link>https://uwyo.technologypublisher.com/tech?title=A_Low-Cost%2c_Portable_Method_for_Measuring_Iron_Oxidation_State</link><description><![CDATA[We present a simple, low-cost, and field-deployable alternative to traditional laboratory methods for quantifying the Fe2+/Fe3+ ratio, which is critical for monitoring chemical energy storage, hydrogen management

Problem

Current methods for determining the Fe2+/Fe3+ ratio in subsurface iron-bearing formations often require complex, expensive, and non-portable techniques (e.g., M&ouml;ssbauer spectroscopy, XAS, ICP-MS). These methods necessitate core retrieval and sample preservation, which can alter the oxidation state and prevent direct, real-time monitoring of subsurface processes.

Soluti...]]></description><pubDate>Mon, 16 Feb 2026 13:30:00 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech?title=A_Low-Cost%2c_Portable_Method_for_Measuring_Iron_Oxidation_State</guid></item><item><title>Injectable Clay Suspension for Underground Hydrogen Storage</title><caseId>24-020</caseId><link>https://uwyo.technologypublisher.com/tech/Injectable_Clay_Suspension_for_Underground_Hydrogen_Storage</link><description>An injectable, time-dependent clay suspension creates robust, self-strengthening barriers for large-scale underground hydrogen storage, transforming porous rock formations into secure, geographically flexible reservoirs.

The Problem

Large-scale underground storage is essential for a hydrogen-based economy, but current options like salt caverns are geographically limited and prone to leaks. Hydrogen, the smallest molecule, easily escapes through porous rock. Conventional polymer-based sealants often degrade at typical subsurface temperatures and are difficult to inject due to high viscosity a...</description><pubDate>Mon, 16 Feb 2026 13:28:46 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Injectable_Clay_Suspension_for_Underground_Hydrogen_Storage</guid></item><item><title>Low-Cost Sensor for Magnetic Nanoparticle Detection</title><caseId>24-021</caseId><link>https://uwyo.technologypublisher.com/tech/Low-Cost_Sensor_for_Magnetic_Nanoparticle_Detection</link><description>A highly stable and low-cost electronic sensor detects the presence and concentration of magnetic nanoparticles in solution by measuring the frequency shift they induce in a custom-designed oscillator circuit.

The Problem

Detecting magnetic nanoparticles is crucial for applications in subsurface monitoring and biomedicine, but current technologies like giant magnetoresistance (GMR) sensors are often complex and expensive. This high cost limits their scalability and widespread adoption, particularly for large-scale field applications like monitoring CO₂ sequestration.

The Solution

This tech...</description><pubDate>Mon, 16 Feb 2026 13:27:35 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Low-Cost_Sensor_for_Magnetic_Nanoparticle_Detection</guid></item><item><title>High-Efficiency Catalyst for Low-Temperature Carbon Capture</title><caseId>14-109</caseId><link>https://uwyo.technologypublisher.com/tech/High-Efficiency_Catalyst_for_Low-Temperature_Carbon_Capture</link><description><![CDATA[A novel nanostructured TiO(OH)2 catalyst that increases CO2 desorption rates by over 4500%, enabling carbon capture at significantly lower temperatures to reduce energy consumption and amine solvent loss.

The Problem

Standard CO2 capture technologies are hindered by slow kinetics and high energy demands during the solvent regeneration step, which typically requires temperatures above 100&deg;C. These high temperatures lead to expensive energy bills, significant amine solvent degradation, and the emission of carcinogenic byproducts.

The Solution

This technology utilizes a nanostructured TiO...]]></description><pubDate>Mon, 16 Feb 2026 12:53:28 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/High-Efficiency_Catalyst_for_Low-Temperature_Carbon_Capture</guid></item><item><title>High-Value Advanced Materials from Mixed Plastic Waste</title><caseId>24-030</caseId><link>https://uwyo.technologypublisher.com/tech/High-Value_Advanced_Materials_from_Mixed_Plastic_Waste</link><description>This technology is an integrated pyrolysis-reforming process that converts unsorted mixed waste plastics into three distinct and high-value product streams to unlock value from the entire waste stream while enhancing energy storage and solar cell efficiency.

The Problem Hundreds of millions of tons of plastic waste are landfilled or incinerated annually because most current valorization technologies are unsustainable, costly, or inefficient. Conventional methods often fail to utilize the entire waste stream, targeting only single plastic types, which necessitates complex and expensive sorting...</description><pubDate>Fri, 06 Feb 2026 08:43:38 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/High-Value_Advanced_Materials_from_Mixed_Plastic_Waste</guid></item><item><title>Electrochemically-Assisted Solvent Extraction</title><caseId>24-013</caseId><link>https://uwyo.technologypublisher.com/tech/Electrochemically-Assisted_Solvent_Extraction</link><description><![CDATA[

Technology Title&nbsp;Efficient Electrochemical Separation of Rare Earth Elements&nbsp;



Summary&nbsp;This is a minimal-waste electrochemical platform that uses recyclable ionic liquids and applied electric fields to selectively separate individual rare earth elements from complex feedstocks.&nbsp;



The Problem&nbsp;The&nbsp;U.S. currently has no domestic facilities for separating rare earth&nbsp;elements (REEs), a group of materials critical for defense, energy, and electronics. Traditional separation methods are complex, inefficient, and produce&nbsp;large amounts&nbsp;of hazardous che...]]></description><pubDate>Thu, 05 Feb 2026 15:40:14 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Electrochemically-Assisted_Solvent_Extraction</guid></item><item><title>Sustainable Bioactive Biopolymers from Sugar Beet Molasses</title><caseId>25-003</caseId><link>https://uwyo.technologypublisher.com/tech/Sustainable_Bioactive_Biopolymers_from_Sugar_Beet_Molasses</link><description>A sustainable, cost-effective process for isolating high-value biopolymers from sugar beet molasses that deliver potent antioxidant and antimicrobial protection for biomedical and cosmetic applications.

The Problem: Sugar beet molasses is a high-volume agricultural byproduct currently undervalued and sold cheaply as an animal feed additive, or road de-icer despite containing complex organic compounds. Simultaneously, the biomedical and cosmetic industries face a critical need for natural, non-toxic materials that can effectively prevent biofouling and infection on medical devices without caus...</description><pubDate>Thu, 05 Feb 2026 15:28:48 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Sustainable_Bioactive_Biopolymers_from_Sugar_Beet_Molasses</guid></item><item><title>Ultra-Sensitive Microfluidic ELISA Platform</title><caseId>17-090</caseId><link>https://uwyo.technologypublisher.com/tech/Ultra-Sensitive_Microfluidic_ELISA_Platform</link><description><![CDATA[A microfluidic enzyme-linked immunosorbent assay (ELISA) technology that increases detection sensitivity by over 200-fold while reducing sample volume requirements by 95% compared to standard commercial assays.

The Problem Traditional ELISA platforms, while widely used, struggle to detect very low biomolecule concentrations due to weak analyte binding and high background noise. Furthermore, these standard methods typically require large sample volumes (100 &micro;L), which significantly limits their utility for testing scarce biological fluids and hinders the early detection of diseases where...]]></description><pubDate>Thu, 15 Jan 2026 15:04:08 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Ultra-Sensitive_Microfluidic_ELISA_Platform</guid></item><item><title>Automated Organ Health Scoring for Beef Processing</title><caseId>25-026</caseId><link>https://uwyo.technologypublisher.com/tech/Automated_Organ_Health_Scoring_for_Beef_Processing</link><description>A machine learning system for real-time imaging in processing plants that scores beef organ health, flags disease, and provides digital traceability from carcass to feedlot.

The Problem Post-harvest organ inspection in the beef industry relies on manual, subjective grading by human inspectors. This process leads to inconsistent scoring, lacks digital records, and fails to provide feedlots with timely, actionable data on costly conditions like liver abscesses or heart failure.

The Solution BOHID (Bovine Organ Health Image Diagnostics) replaces manual inspection with an automated, AI-driven sy...</description><pubDate>Thu, 15 Jan 2026 14:54:15 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Automated_Organ_Health_Scoring_for_Beef_Processing</guid></item><item><title>High-Precision Modular Behavioral Research Chamber</title><caseId>25-029</caseId><link>https://uwyo.technologypublisher.com/tech/High-Precision_Modular_Behavioral_Research_Chamber</link><description><![CDATA[A modular behavioral research platform that delivers high-precision synchronization between animal behavior and neural recording systems at an estimated 81% cost reduction compared to commercial alternatives.

The Problem Advanced preclinical research regarding learning and neurologic disease requires linking an animal&#39;s actions to its brain activity in real time. However, current commercial systems capable of this integration are often prohibitively expensive and rely on proprietary, inflexible hardware that limits accessibility and experimental flexibility.

The Solution The NeuroAI-HAB&...]]></description><pubDate>Thu, 15 Jan 2026 14:48:28 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/High-Precision_Modular_Behavioral_Research_Chamber</guid></item><item><title>Supercritical CO₂ Extraction of Rare Earth Elements from Coal Ash</title><caseId>20-030</caseId><link>https://uwyo.technologypublisher.com/tech?title=Supercritical_CO%e2%82%82_Extraction_of_Rare_Earth_Elements_from_Coal_Ash</link><description><![CDATA[A novel extraction process that uses supercritical carbon dioxide and acid to&nbsp;efficiently and selectively recover valuable rare earth elements&nbsp;from industrial coal ash waste.&nbsp;

Problem:&nbsp;The United States is heavily reliant on&nbsp;foreign imports&nbsp;for rare earth elements (REEs), which are critical for high-tech manufacturing, electronics, and defense applications. Traditional mining and extraction from&nbsp;ores&nbsp;are energy-intensive, expensive, and generate significant hazardous waste. While coal ash&nbsp;contains&nbsp;REEs, conventional methods are not economicall...]]></description><pubDate>Thu, 15 Jan 2026 14:38:34 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech?title=Supercritical_CO%e2%82%82_Extraction_of_Rare_Earth_Elements_from_Coal_Ash</guid></item><item><title>Electrochemical Rare Earth Element Extraction Using Novel Metal Organic Frameworks</title><caseId>23-039</caseId><link>https://uwyo.technologypublisher.com/tech/Electrochemical_Rare_Earth_Element_Extraction_Using_Novel_Metal_Organic_Frameworks</link><description><![CDATA[

A sustainable, closed-loop electrochemical system that utilizes novel&nbsp;triazacoronene-based metal organic frameworks to selectively capture and recover rare earth elements from complex aqueous feedstocks.&nbsp;



The Problem&nbsp;Conventional industrial extraction of rare earth elements (REEs) relies heavily on solvent extraction, a method that is chemically hazardous, energy-intensive, and generates significant toxic waste. Furthermore, these processes often struggle to efficiently separate specific elements from complex mixtures like produced water or coal mine tailings, creating a ba...]]></description><pubDate>Thu, 15 Jan 2026 14:12:50 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Electrochemical_Rare_Earth_Element_Extraction_Using_Novel_Metal_Organic_Frameworks</guid></item><item><title>Novel Isochoric Measurement of the Onset of Vapor–Liquid Phase Transition in Bulk and Nanopores Using Differential Scanning Calorimetry</title><caseId>19-010</caseId><link>https://uwyo.technologypublisher.com/tech?title=Novel_Isochoric_Measurement_of_the_Onset_of_Vapor%e2%80%93Liquid_Phase_Transition_in_Bulk_and_Nanopores_Using_Differential_Scanning_Calorimetry</link><description><![CDATA[Technology Title: Novel Isochoric Measurement of the Onset of Vapor&ndash;Liquid Phase Transition in Bulk and Nanopores Using Differential Scanning Calorimetry

Summary: An innovative isochoric differential scanning calorimetry (DSC) method enables accurate, simplified measurement of dew and bubble points for pure fluids and gas mixtures in both bulk and nanoporous systems using standard high-pressure micro-DSC instrumentation.

The Problem: Accurate dew and bubble point data are essential for designing and operating natural gas production facilities, CO₂ capture and storage systems, tight res...]]></description><pubDate>Wed, 14 Jan 2026 14:05:18 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech?title=Novel_Isochoric_Measurement_of_the_Onset_of_Vapor%e2%80%93Liquid_Phase_Transition_in_Bulk_and_Nanopores_Using_Differential_Scanning_Calorimetry</guid></item><item><title>Materials Derived from Coal Using Environmentally Friendly Solvents</title><caseId>17-069</caseId><link>https://uwyo.technologypublisher.com/tech/Materials_Derived_from_Coal_Using_Environmentally_Friendly_Solvents</link><description><![CDATA[Technology Title: Materials Derived from Coal Using Environmentally Friendly Solvents

Summary: A tunable ionic liquid extraction platform transforms coal and coal byproducts into multiple high-value materials&mdash;carbon fiber precursors, specialty organic compounds, and rare earth element concentrates&mdash;through a modular, near zero-waste, closed-loop process.

The Problem: Coal and coal byproducts represent abundant, low-cost carbon resources that are predominantly burned for fuel or disposed of as waste, leaving enormous untapped value on the table. Meanwhile, global demand for carbon ...]]></description><pubDate>Wed, 14 Jan 2026 13:34:44 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Materials_Derived_from_Coal_Using_Environmentally_Friendly_Solvents</guid></item><item><title>Fuel Cell Catalyst: Methods, Catalysts, and Supports for Electrochemical Devices</title><caseId>16-068</caseId><link>https://uwyo.technologypublisher.com/tech?title=Fuel_Cell_Catalyst%3a_Methods%2c_Catalysts%2c_and_Supports_for_Electrochemical_Devices</link><description>Technology Title: Fuel Cell Catalyst: Methods, Catalysts, and Supports for Electrochemical Devices

Summary: A high-durability, low-platinum cathode catalyst uses corrosion-resistant molybdenum carbide (Mo₂C) nanotubes conformally coated with atomic layer deposition (ALD) platinum to achieve superior performance and longevity in proton exchange membrane (PEM) fuel cells.

The Problem: PEM fuel cells remain commercially challenging due to high platinum loading requirements at the cathode, which drives up system costs and slows market adoption in automotive and stationary power applications. Con...</description><pubDate>Wed, 14 Jan 2026 13:27:19 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech?title=Fuel_Cell_Catalyst%3a_Methods%2c_Catalysts%2c_and_Supports_for_Electrochemical_Devices</guid></item><item><title>Sugar-Based Stabilization of RNA in the Dry State</title><caseId>25-019</caseId><link>https://uwyo.technologypublisher.com/tech/Sugar-Based_Stabilization_of_RNA_in_the_Dry_State</link><description><![CDATA[Technology Title: Sugar-Based Stabilization of RNA in the Dry State

Summary:&nbsp;A biomimetic dry-state preservation technology uses disaccharide-based sugar-glass matrices to stabilize RNA therapeutics at ambient and elevated temperatures, eliminating the need for sub-zero cold-chain storage.

The Problem:&nbsp;RNA-based therapeutics and vaccines are inherently unstable and require costly sub-zero cold-chain storage throughout manufacturing, distribution, and administration. This dependency limits global accessibility, particularly in resource-limited settings, increases logistical complexi...]]></description><pubDate>Wed, 14 Jan 2026 13:00:11 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Sugar-Based_Stabilization_of_RNA_in_the_Dry_State</guid></item><item><title>Supercritical CO2 Depolymerization of PET Plastic</title><caseId>20-073</caseId><link>https://uwyo.technologypublisher.com/tech/Supercritical_CO2_Depolymerization_of_PET_Plastic</link><description><![CDATA[&nbsp;Technology Title:&nbsp;Supercritical CO2 Depolymerization of PET Plastic&nbsp;



&nbsp;



Summary:&nbsp;An environmentally friendly and highly efficient process uses supercritical carbon dioxide (CO2 )&nbsp;and water to depolymerize polyethylene terephthalate (PETE) plastic waste into valuable chemical monomers.&nbsp;



&nbsp;



The Problem:&nbsp;Conventional plastic recycling methods present significant challenges. Mechanical recycling&nbsp;



&nbsp;struggles with separating mixed plastics, chemical recycling often relies on toxic organic solvents, and incineration releases harmful...]]></description><pubDate>Tue, 13 Jan 2026 12:09:44 GMT</pubDate><author>nsanche4@uwyo.edu</author><guid>https://uwyo.technologypublisher.com/tech/Supercritical_CO2_Depolymerization_of_PET_Plastic</guid></item></channel></rss>