Project Grant 80NSSC18K0207
- This Project Grant from the National Science Foundation's Technology, Innovation, and Partnerships program totaling $256,000 will fund the development of an optimized ion mobility spectrometry system for distributed chemical sensing without the use of radioactive ionization sources. The awardee, Sensit Ventures Inc. of Davis, California, will establish an experimental and theoretical framework to miniaturize differential mobility spectrometry technology for analytical-quality chemical...
- This National Science Foundation Project Grant of $255,261 awarded under the NSF Technology, Innovation, and Partnerships program (CFDA 47.084) will fund the development of optimized extraction and projection optics for ion point sources. Steam Instruments Inc. will demonstrate technology advances in imaging mass spectrometry through this Small Business Innovation Research Phase I project. Specifically, the company aims to markedly improve mass resolving power to separate key mass...
- The National Science Foundation awarded Ionicscale LLC $256,000 under the Technology, Innovation, and Partnerships federal grant program to develop low-cost, portable mass spectrometers based on a chip-scale ion trap mass analyzer. The award aims to advance the company's technology for ubiquitous, high-specificity chemical analysis through a novel ion trap geometry that can be microfabricated at lower costs. This has the potential to bring mass spectrometry capabilities, which are currently...
- This National Science Foundation project grant of $297,176 supports the initial development of the Molecular Isomer Resolving Aerosol Collector and Analyzer (MIRACA) by the Desert Research Institute from April 2023 through March 2025. The MIRACA aims to improve measurement of the chemical composition of ambient organic aerosols with time resolution of 10 minutes to one hour. It will collect and analyze both particulate and gaseous components of organic aerosol without thermal decomposition...
- This National Science Foundation (NSF) Cooperative Agreement award, funded under the NSF Technology, Innovation, and Partnerships (CFDA 47.084) program, supports the development of a novel, miniaturized ion trap mass spectrometer technology by Ionicscale LLC, a small technology company. The $1,000,000 project aims to create an ultra-compact, remotely programmable chemical analyzer that can greatly expand the accessibility and affordability of mass spectrometry-based chemical detection and...
- This National Science Foundation Technology, Innovation, and Partnerships Project Grant of $256,000 will support the development of a novel mass spectrometer by Moires Instruments, LLC to identify molecular isomers and distinguish their conformational forms. The instrument uses high electric fields to manipulate neutral molecules based on their dipole moments, separating them by mass-to-dipole-moment ratio rather than conventional mass-to-charge ratio. This approach aims to reduce the...
- The Department of Energy Office of Science awarded Radiabeam Systems, LLC $399,110 under the Office of Science Financial Assistance Program (CFDA 81.049) to develop a Cold Plasma Cathode for High Resolution Condensed Matter Electron Spectroscopy. The project aims to deliver a new type of electron source for microscopy and spectroscopy that offers improved resolution over traditional thermionic electron sources. Work will be conducted between June 2022 through March 2023 in Santa Monica,...
- This Major Research Instrumentation Program award from the National Science Foundation will provide $580,393 to support the acquisition of a triple-quadrupole inductively coupled plasma mass spectrometer and three dedicated sample processing and introduction systems for the University of California, Santa Cruz's Institute of Marine Science Marine Analytical Laboratory. The laboratory will use the new instrumentation to enable multidisciplinary analytical work by faculty, researchers, and...
- This $336,623 Project Grant from the National Science Foundation's Geosciences program (CFDA 47.050) will fund the refurbishment and upgrade of an existing 21-year old Thermo Element 2 inductively coupled plasma mass spectrometry (ICPMS) instrument and the acquisition of a new laser ablation system at the University of Maryland, College Park. The ICPMS upgrade will include software replacement and modernization of some electronic and vacuum components to make the system compatible with current...
- Chemfinity Technologies, Inc. received a $3.0 million Cooperative Agreement from the Advanced Research Projects Agency-Energy (ARPA-E, CFDA 81.135) awarded August 1, 2026, with completion targeted for July 31, 2029. The company will develop and demonstrate a proprietary polyporous polymer (PPN) column separation process designed to recover critical minerals and metals (CMMs)—specifically platinum, iridium, and two additional CMMs—from mining and metal refinery wastewaters at approximately...
TRACE MATTERS SCIENTIFIC LLC PROPOSES TO DESIGN DEVELOP AND PROTOTYPE A MINIATURE AMBIENT DESORPTION IONIZATION AND EXTRACTION SOURCE (MADIE) AS A COMPACT ALL-IN-ONE INSTRUMENT FOR OPERATION UNDER THE AMBIENT MARTIAN ENVIRONMENT TO SEQUENTIALLY DESORB IONIZE AND EXTRACT ANALYTES FROM MARTIAN SAMPLES. THE MADIE WILL ENABLE IN SITU INTERROGATION OF THE MARTIAN MINERALOGICAL SAMPLES WITH NO SAMPLE PREPARATION AND/OR SEPARATION WHEN COUPLED TO A MASS SPECTROMETER. AT THE CORE OF THE PROPOSED MADIE WILL BE A SELF-TUNING PLASMA IONIZATION MODULE FOR SAMPLE IONIZATION CONSISTING OF AN AMBIENT CARBON DIOXIDE PLASMA SOURCE AND A TUNING CIRCUIT; AN ION FUNNEL MODULE FOR EFFICIENT ION EXTRACTION; AND A LASER DIODE MODULE FOR TIME RESOLVED SAMPLE DESORPTION. THE AMBIENT PLASMA SOURCE WILL UTILIZE THE MARTIAN ATMOSPHERE WHICH IS MAINLY COMPOSED OF CARBON DIOXIDE TO FORM A REDUCED PRESSURE CARBON DIOXIDE INDUCTIVELY COUPLED PLASMA (ICP) TO IONIZE THE PLUME OF SAMPLED ANALYTES. THE TUNING CIRCUIT WILL COMPENSATE ANY PLASMA VARIATION AND MAINTAIN THE PLASMA SOURCE AT RESONANCE DURING OPERATION. THE ION FUNNEL MODULE WHICH WILL BE DERIVED BY A RADIO FREQUENCY POWER SUPPLY WILL EFFICIENTLY EXTRACT THE IONS AND GUIDE THEM INTO THE MASS SPECTROMETER TO INCREASE SENSITIVITY. THE LASER DIODE MODULE WILL PRODUCE A PLUME OF SAMPLE ANALYTES FROM THE SAMPLE SURFACE WITH HIGH SPATIAL RESOLUTION AT BOTH ULTRAVIOLET (UV) AND INFRARED (IR) WAVELENGTHS. DURING PHASE I THE SELF-TUNING PLASMA IONIZATION MODULE WILL BE DESIGNED AND CONSTRUCTED AND THE ION FUNNEL WILL BE DESIGNED AND SIMULATED WITH SIMION AND THEN PROTOTYPED. COMMERCIALLY AVAILABLE LASER MODULES AT VARIOUS WAVELENGTHS WILL BE SELECTED AND EXPERIMENTALLY VALIDATED. THESE MODULES WILL THEN BE PIECED TOGETHER TO DEVELOP A BREADBOARD PROTOTYPE OF THE MADIE BY THE CONCLUSION OF PHASE I. PRELIMINARY EXPERIMENTS WILL BE CONDUCTED TO TEST THE EFFICIENCY OF THE MADIE.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | 0$ | 5/8/19 | ||
| P00002 | Funding Only Action | 0$ | 5/8/19 | |
| P00001 | Other Administrative Action | $0 | 2/20/18 | |
| Not listed | $0 | 2/20/18 | ||
| Not listed | $32.8k | 11/28/17 |