SBIR-STTR Award

Plasmonic Sensor and Field Monitor for Mercury
Award last edited on: 2/17/2024

Sponsored Program
SBIR
Awarding Agency
NIH : NIEHS
Total Award Amount
$1,142,873
Award Phase
2
Solicitation Topic Code
143
Principal Investigator
Jay James

Company Information

Picoyune (AKA: Picoyune LLC)

950 Gilman Street Unit 105
Berkeley, CA 94701
   (510) 915-0152
   jayjames@picoyune.com
   picoyune.com
Location: Single
Congr. District: 13
County: Alameda

Phase I

Contract Number: 1R43ES032383-01
Start Date: 9/13/2020    Completed: 8/31/2021
Phase I year
2020
Phase I Amount
$168,087
Our proposed project, "Plasmonic mercury sensor and wearable gas detector," will develop a miniaturized and low-cost mercury sensor and apply it to personal exposure monitoring. This project will demonstrate the feasibility of a powerful and sensitive mercury vapor sensor that is less than 0.2 cm3 in volume, draws less than 1 Watt, and costs less than $40 in parts. During this project our sensor will be integrated into a personal monitor to be the first personal mercury monitor that is wearable, immediate, and accurate in complex environments. Newly available integrated optical modules will be employed to measure the plasmonic signal of an amalgam nanoparticle film. Picoyune's proprietary plasmonic mercury sensing technique is uniquely capable of measurements in complex mixtures. The development of such a unique device will benefit all parties concerned with mercury exposure. These include artisanal and small-scale gold mining communities, other mining, dental offices, hospitals, laboratories, schools, and industrial sites. Mercury monitoring costs hundreds of millions of dollars a year across diverse scientific, industrial, and regulatory groups.

Public Health Relevance Statement:
Project Narrative Mercury is a potent neurotoxin, widespread, and a threat to human health. This project offers a solution for mercury analysis that is exceptionally low cost, small, and high-performance. This project further appliers the sensor to the unmet need of personal monitoring, but it should also be deployed in all applications of mercury analysis.

Project Terms:
Air; Communities; Dental Offices; Environment; Natural Gas; Gases; Gold; Grant; Health; Human; Modern Man; Industrialization; Interview; hospital laboratories; Market Research; Mercury; Hg element; Mining; Neurotoxins; neurotoxicant; Optics; optical; Plants; Play; Reading; Schools; Signal Transduction; Cell Communication and Signaling; Cell Signaling; Intracellular Communication and Signaling; Signal Transduction Systems; Signaling; biological signal transduction; Soil; Technology; Testing; Water; Hydrogen Oxide; Signal Recognition Particle; SRP; Measures; falls; Film; base; detector; sensor; Site; Phase; Measurement; Intellectual Property; instrument; Life; Pulse; Physiologic pulse; Hour; Complex; Techniques; System; interest; mercury vapor; mercury fumes; Performance; vapor; Toxicities; Toxic effect; Devices; Sampling; miniaturize; portability; Complex Mixtures; photonics; SBIR; Small Business Innovation Research; Small Business Innovation Research Grant; Monitor; developmental; Development; Output; NIEHS; National Institute of Environmental Health Sciences; cost; designing; design; nano particle; nano-sized particle; nanosized particle; nanoparticle; plasmonics; personal exposure monitor; Amalgam; sensing technology; sensor technology

Phase II

Contract Number: 2R44ES032383-02
Start Date: 9/1/2022    Completed: 8/31/2024
Phase II year
2022
(last award dollars: 2023)
Phase II Amount
$974,786

Our proposed project, "Plasmonic sensor and field monitor for mercury," will develop a highly portable monitor for direct measurements of mercury in water and air. Gold nanoparticle-based plasmonic sensing is low-cost, sensitive, and ideal for portable applications. The strong absorbance peak in visible light from localized surface plasmon resonance and the stability of gold material make them ideal for plasmonic sensing. We will apply our experience and intellectual property from developing plasmonic mercury sensors to make a miniaturized plasmonic detector that will be incorporated into a robust and simple field monitor. Extensive testing of the stability, sensitivity, and robustness of the technology will be completed throughout the course of the project. The initial feasibility of the device will be demonstrated for index of refraction sensitivity and mercury monitoring. The development of such a unique device will benefit all parties concerned with mercury contamination and exposure. Mercury monitoring costs hundreds of millions of dollars a year across diverse scientific, industrial, and regulatory groups. The fundamental issue these groups address is protecting human health, and the environment, from the risks of mercury pollution.

Public Health Relevance Statement:
Project Narrative Mercury is a potent neurotoxin, widespread, and a threat to human health. This project offers a solution for mercury analysis that is exceptionally low cost, small, and high-performance. This project further appliers the sensor to the unmet need of personal monitoring, but it should also be deployed in all applications of mercury analysis.

Project Terms:
Air; Communities; Environment; Gold; Health; Human; Modern Man; Immobilization; orthopedic freezing; indexing; Industrialization; Laboratories; Mercury; Hg element; Methods; Mining; neurotoxicant; Neurotoxins; optical; Optics; Reading; Risk; Safety; Sales; Software; Computer software; Technology; Testing; United States; Water; Hydrogen Oxide; Weight; Work; Generations; Measures; Film; base; detector; sensor; improved; Site; Surface; Solid; Phase; Biological; biologic; Series; Visible Light; Visible Light Radiation; Visible Radiation; Measurement; Intellectual Property; instrument; mechanical; Mechanics; Pollution; System; interest; mercury vapor; mercury fumes; experience; Performance; vapor; Surface Plasmon Resonance; aqueous; Devices; Sampling; response; miniaturize; portability; Complex Mixtures; Address; Detection; Monitor; Preparation; Development; developmental; mercury release; cost; nanoGold; gold nano particle; gold nanoparticle; nano gold; remediation; nanoparticle; nano particle; nano-sized particle; nanosized particle; Resistance; resistant; stability testing; Superfund; plasmonics; operation; portable monitoring; sensor technology; sensing technology; detection limit; data handling; design-build-test