GP Ionics LLC received a $255,400 Project Grant award from the National Science Foundation on March 15, 2021 to support work under the SBIR PHASE I: MULTI-STEP SEQUENTIAL PROCESSING OF GAS IONS FOR IDENTIFYING VOLATILE ORGANIC COMPOUNDS IN RECIRCULATED AIR OF ENERGY EFFICIENT BUILDINGS project. The funding period runs through February 28, 2023. The award is provided through the NSF's Technology, Innovation, and Partnerships program (CFDA #47.084), which seeks to advance science, engineering, and...
This SBIR Phase I project, funded by the National Science Foundation (NSF) under the Technology, Innovation, and Partnerships (CFDA 47.084) program, aims to develop an advanced thermal oxidizer technology to cost-effectively control greenhouse gas emissions, specifically methane, as well as toxic/carcinogenic organic compounds and odors from small emission sources. The $256,657 award to Rotoheater LLC, awarded on February 15, 2024, will support research and development into a novel,...
This Project Grant award from the National Institute of Environmental Health Sciences (NIEHS) under the Environmental Health (CFDA 93.113) federal grant program provides $306,195 to Liquen Technologies, Inc. to develop a new calibration method for air pollution sensors using supercritical fluid carbon dioxide (CO2) cartridges. The goal is to create a portable, cost-effective system to deliver calibration gases and particles at trace-level concentrations for both research-grade instruments and...
This National Science Foundation (NSF) Convergence Accelerator Track L Project Grant, with a total funding of $650,000, aims to innovate and mature two miniature volatile organic compound (VOC) sensing technologies - colorimetric VOC sensor arrays and wearable VOC sensor patches. The project team, consisting of engineers, chemists, material scientists, biologists, and data scientists, will leverage machine learning and bio-inspired design to develop cost-effective, field-portable, and highly...
This $269,498 National Science Foundation Project Grant supports the development of an Internet of Things-enabled smart air filter monitoring solution by Pollux Technologies LLC. The company will leverage photosensors and machine learning algorithms to accurately detect filter clogging and determine the optimal replacement point based on indoor air quality requirements. This will help reduce premature filter replacements by 50% annually, saving 600 million filters from the landfill. Under the...
This Project Grant award of $305,260 from the National Institute of Environmental Health Sciences (NIEHS), under the Environmental Health (CFDA 93.113) Federal Grant Program, supports the development and commercialization of the AIRPEN - a wearable device for rapidly and accurately characterizing exposures to particulate matter (PM) and volatile organic compounds (VOCs) during disaster events. The key objectives of this award are to: 1) collaborate with disaster response researchers to measure...
This National Science Foundation (CFDA 47.041 Engineering) Project Grant award totaling $400,000 aims to develop a network of chemical sensors that can continuously monitor outdoor air for carcinogenic volatile organic compounds (VOCs) such as benzene, toluene, and xylene. The University of California, Davis will lead this 3-year effort to assemble a sensor network that can detect and quantify targeted VOC levels, with data relayed to a cloud platform for analysis. The team will first test...
This $994,407 project grant from the Environmental Protection Agency (EPA) Office of Research and Development, under the Science to Achieve Results (STAR) Research Program (CFDA 66.509), will fund the design, testing, and deployment of affordable particle filtration systems for evaporative coolers to reduce wildfire smoke exposures among agricultural workers and low-income families in California. The Public Health Institute will lead the effort to design an effective yet inexpensive filter...
The National Science Foundation (NSF) Directorate for Engineering (CFDA 47.041) awarded a $249,999 Project Grant to the Illinois Institute of Technology (IIT) to conduct collaborative research on characterizing the sources and sinks of the oxidative potential of indoor particulate matter (PM2.5). The overarching goal is to develop a mechanistic understanding of the oxidative potential and reactivity of indoor PM2.5 from both indoor and ambient sources. The specific objectives are to: 1)...
This $255,966 National Science Foundation Technology, Innovation, and Partnerships award to Nano-Product Engineering, LLC will support the development of an antiviral/antimicrobial micropowder for application to personal protective equipment and respiratory equipment surfaces. The award period is from September 15, 2022 through May 31, 2023. The project aims to improve the protective properties of commonly used PPE and respiratory equipment, which typically only provides passive protection and...
ELIMINATION OF AIRBORNE VOLATILE COMPOUNDS THROUGH INCORPORATION OF ADVANCED 3D NANOSTRUCTURED CATALYTIC COATINGS IN ADSORPTION/DECOMPOSITION AIR PURIFICATION SYSTEMS - PROJECT SUMMARY / ABSTRACT EVERY YEAR, EIGHT MILLION PREMATURE DEATHS AND $5 TRILLION OF SOCIETAL COSTS ARE LINKED TO AIR POLLUTION. ACCORDING TO THE US EPA, INDOOR AIR QUALITY (IAQ) IS OFTEN TWO TO VE TIMES WORSE THAN OUTDOOR AIR, WHICH IS ESPECIALLY ALARMING SINCE WE SPEND 90% OF OUR TIME INDOORS. IN FACT, POOR IAQ ACCOUNTS FOR 48% OF AIR POLLUTION-RELATED DEATHS. SUBMICRON-SCALE POLLUTANTS, PARTICULARLY VOLATILE ORGANIC COMPOUNDS (VOCS), CAUSE SERIOUS CHRONIC ILLNESSES, RANGING FROM CANCER TO PULMONARY DISEASES, AND REDUCE WORKER PRODUCTIVITY AND STUDENT CONCENTRATION. EXISTING TECHNOLOGIES RELY ON POLLUTANT CAPTURING, TRAPPING, AND SOMETIMES DESTRUCTION, BUT ARE ALL KNOWN TO HAVE PROBLEMS FROM DESORPTION TO BYPRODUCT CREATION AND OZONE GENERATION. METALMARK INNOVATIONS, INC. IS DEVELOPING AN ADVANCED HYBRID SORPTION-CATALYST AIR PURICATION SYSTEM TO CAPTURE AND DESTROY SUCH POLLUTANTS IN AN E CIENT AND BYPRODUCT-FREE MANNER. THE AIR PURIER RELIES ON METALMARK'S PROPRIETARY 3D NANOSTRUCTURED THERMAL CATALYTIC MATERIALS THAT ARE UNIQUELY SUITED FOR IAQ APPLICATIONS, DUE TO THEIR SIGNICANTLY ENHANCED ACTIVITY, REDUCED OPERATING TEMPERATURES AND ASSOCIATED REDUCTION IN ENERGY CONSUMPTION, EXCEPTIONAL CATALYST STABILITY (NO NANOPARTICLE SINTERING), AND REDUCED COST COMPARED TO THEIR COMMERCIALLY AVAILABLE COUNTERPARTS. VOCS ARE CAPTURED IN A SORBENT MODULE AND INTERMITTENTLY RELEASED TO THE CATALYST FOR COMPLETE DESTRUCTION WITHOUT RELEASE OF BYPRODUCTS. IN THIS PHASE II PROJECT, WE WILL SOURCE AND IMPROVE SORBENT MATERIALS, DESIGN THE METALMARK CATALYSTS, OPTIMIZE THE SORBENT-CATALYST SYSTEM, PRODUCE THREE GENERATIONS OF AIR PURIER PROTOTYPES THROUGH AN ITERATIVE LEARNING PROCESS, AND PERFORM AT LEAST ONE PILOT STUDY USING THE NAL PROTOTYPE. OVERCOMING THE TECHNOLOGICAL CHALLENGES POSED IN THIS SBIR PHASE II PROJECT WILL PROPEL THIS INNOVATIVE INDOOR VOC TREATMENT SYSTEM TOWARDS A COMMERCIAL PRODUCT FOR IMPROVING THE SAFETY OF INDOOR AIR OF O CES, HOTELS, SCHOOLS, HOMES, AND OTHER INDOOR OR IN-CABIN SPACES.