{"response":{"award":[{"abstractText":"The broader impact/commercial potential of this Phase I Small Business Innovation Research (SBIR) project is a paradigm shift in how electrical power is generated leading to compact, clean, and lightweight power sources able to provide consistent power no matter the environmental condition. The proposed product to be developed as part of this work offers the potential for broader societal and economic benefit. The proposed activity seeks to conduct research and development (R&D) to demonstrate technical feasibility of continuous power generation from the quantum field for terrestrial and space applications. The research activity will advance knowledge and understanding of quantum field theory and the nature of the quantum vacuum for the purpose of power generation and commercialization. This is expected to enable a continuous baseload renewable type power source in environments where other renewables are often not readily present. In so doing, the research will also enable new pathways for novel forms of radiation generation and detection, thereby enhancing space sensing and providing new communication capabilities making use of novel forms of radiation. This product may also benefit from high throughput scalable in-space manufacturing advances going forward, and serve as a reliable, light weight and abundant power source for the acceleration and growth of the large scale in-space economy. The technology is also expected to bring an array of advantages to national security and defense.\r\n\r\n\r\nThis SBIR Phase I project proposes to validate numerical analysis design tools that will enable optimization of custom power cells. The research objective is to commercialize the company’s power-generating nanotechnology. These custom Casimir cavities interact with fluctuations of the quantum field to generate continuous power. The innovation in the approach is the customization of the original Casimir cavity concept to incorporate an array of electrically connected and conducting pillars arranged along the midplane of the cavity. With this enhancement, the custom Casimir cavity structure establishes an electrostatic potential between the pillars along the midplane and the cavity walls. The goals and scope of the research are: prediction of tunneling current magnitude for given metal-insulator-metal combination; and optimal selection of combinations of materials and insulator thicknesses. The methods to accomplish validation of software analysis tools are as follows: fabricate numerous metal-insulator-metal samples; conduct laboratory tests to quantify tunneling current performance; update analysis tools with measured performance data. The anticipated technical result is validated software analysis tools to predict the tunneling current magnitude for a given metal-insulator-metal combination of materials.\r\n\r\nThis award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.","activeAwd":"false","agency":"NSF","awardAgencyCode":"4900","awardee":"CASIMIR, INC","awardeeAddress":"16441 SPACE CENTER BLVD STE D200","awardeeCity":"HOUSTON","awardeeCountryCode":"US","awardeeDistrict":"36","awardeeDistrictCode":"TX36","awardeeName":"CASIMIR, INC","awardeePhone":"4099279799","awardeeStateCode":"TX","awardeeZipCode":"770582015","cfdaNumber":"47.084","date":"04/22/2024","dirAbbr":"TIP","divAbbr":"TI","estimatedTotalAmt":"274920","expDate":"11/30/2024","fundAgencyCode":"4900","fundProgramName":"SBIR Phase I","fundsObligated":["FY 2024 = $274,920.00"],"fundsObligatedAmt":"274920","histAwd":"false","id":"2423233","initAmendmentDate":"04/22/2024","latestAmendmentDate":"04/22/2024","managingPec":"537100","orgCodeDir":"15000000","orgCodeDiv":"15030000","orgLongName":"Directorate for Technology, Innovation, and Partnerships","orgLongName2":"Translational Impacts","orgUrl":"https://beta.nsf.gov/tip/ti","parentUeiNumber":"","pdPIName":"Harold White","perfAddress":"16441 SPACE CENTER BLVD STE D200","perfCity":"HOUSTON","perfCountryCode":"US","perfDistrict":"36","perfDistrictCode":"TX36","perfLocation":"CASIMIR, INC","perfStateCode":"TX","perfZipCode":"770582015","pi":["Harold White sonny@limitlessspace.org"],"piEmail":"sonny@limitlessspace.org","piFirstName":"Harold","piId":"270104128","piLastName":"White","poEmail":"patherto@nsf.gov","poName":"Peter Atherton","poPhone":"7032928772","primaryProgram":["01002425DB NSF RESEARCH & RELATED ACTIVIT"],"progEleCode":"537100","program":"ADVANCED TECHNOLOGIES & INSTRM","progRefCode":"1218","projectOutComesReport":"
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The proposed activity aims to conduct advanced research and development to demonstrate the technical feasibility of continuous power generation from the quantum field, applicable to both terrestrial and space environments. This research will significantly enhance our understanding of quantum field theory and the nature of the quantum vacuum, with the ultimate goal of developing a novel power generation technology and facilitating its commercialization.

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The objective of this Phase 1 SBIR project was to advance scientific and engineering knowledge related to quantum field theory and quantum vacuum phenomena as they pertain to power generation. To achieve this objective, the project focused on improving numerical analysis tools used for the design and optimization of custom power cells. These improvements included refining the ability to predict tunneling current magnitudes for specific metal-insulator-metal (MIM) configurations and determining the optimal combinations of materials and insulator thicknesses to maximize performance.

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As part of the project, several prototype power cell designs were developed and fabricated. These prototypes utilized different combinations of metal and insulator materials carefully chosen to enhance electron tunneling potential. The materials were selected based on their electrical properties, stability, and compatibility with quantum tunneling processes. Once fabricated, these prototypes were subjected to rigorous testing using a high-impedance measurement device. The testing protocol involved storing the chips in a dark, RF-shielded enclosure to prevent external interference and measuring their ability to accumulate charge, followed by a slow, controlled discharge process. The results revealed that the chips produced a higher-than-anticipated voltage output, a promising indication of the Casimir power chip’s potential to harvest energy from quantum fields.

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This higher voltage output represents a critical milestone and serves as a pathfinder for further exploration of Casimir power chips. The test data collected during these experiments informed updates to the tunnel current analysis algorithms within the Casimir analysis tools. These enhancements to the design tools will enable the development of improved power cell designs in subsequent phases of research, bringing the technology closer to practical applications.

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The broader impact of this Phase 1 SBIR project is the potential for a paradigm shift in power generation. The envisioned technology promises to deliver compact, clean, and lightweight power sources capable of providing consistent power regardless of environmental conditions. Unlike conventional power generation methods, this continuous electricity from quantum fields produces zero greenhouse gas emissions, contributing to a cleaner environment and reducing health burdens associated with air pollution. By addressing the growing demand for sustainable energy, this technology supports the health and welfare of the American public.

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Furthermore, the availability of a continuous, compact power supply has significant implications for national defense. Reliable and maintenance-free power sources can enhance the range, safety, and operational capability of military vehicles, frontline facilities, and autonomous systems. The ability to produce and distribute energy in a portable and efficient manner strengthens logistical operations and reduces dependence on traditional fuel supplies. This innovation supports strategic objectives by providing energy solutions that are resilient, adaptable, and capable of functioning in remote or hostile environments.

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The potential for commercialization is substantial, driven by the increasing global energy demand, which is projected to rise by 50% by 2050. Meeting this demand will require innovative technologies that can provide sustainable and affordable power. The ability to generate continuous electricity from quantum fields offers a competitive advantage by delivering lower-cost energy solutions for consumer, industrial, and commercial applications. This technology can reduce reliance on traditional power sources such as fossil fuels, chemical batteries, and extensive electrical grid infrastructure. Instead, it offers an environmentally friendly, scalable, and cost-effective alternative.

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Moreover, this concept represents a disruptive and transformative advancement in power generation. By providing a source of clean, safe, abundant, and affordable energy, Casimir power chips have the potential to address many of the world’s pressing energy challenges. Industries ranging from healthcare to telecommunications, aerospace, transportation, and manufacturing stand to benefit from this breakthrough. For instance, wearable medical devices, remote sensors, autonomous vehicles, and satellite systems could all leverage continuous, maintenance-free power to enhance functionality and reliability.

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In conclusion, the research and development undertaken in this Phase 1 SBIR project have demonstrated the feasibility and potential of continuous power generation from the quantum field. The results pave the way for future innovations that could revolutionize the way electrical power is generated and utilized. By combining scientific exploration with practical engineering, this project contributes to a sustainable energy future, economic competitiveness, and national security. Continued investment in this technology will unlock new possibilities for clean energy, positioning the United States as a leader in the global energy landscape.

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\n Last Modified: 12/31/2024
\nModified by: Harold White

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\n","publicAccessMandate":"1","startDate":"05/01/2024","title":"SBIR Phase I: Development of devices to manipulate the structure of quantum field energy for use in electric power generation","transType":"Standard Grant","ueiNumber":"SW47CCGFSQA3"}],"metadata":{"offset":0,"rpp":25,"totalCount":1}}}