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公开(公告)号：US09606245B1
公开(公告)日：2017-03-28
申请号：US15080073
申请日：2016-03-24
Applicant: The Research Foundation for The State University of New York , The Research Foundation for The State University of New York , Memorial Sloan Kettering Cancer Center , Cornell University , University of South Carolina
Inventor： Steve Czarnecki , Andrzej Krol , Krishna Mandal , Mark D. Poliks , C. Ross Schmidtlein , Michael Thompson , James Turner
IPC: G01T1/20
CPC classification number: G01T1/208 , A61B6/037 , A61B6/501 , G01T1/1642 , G01T1/2006 , G01T1/2018 , G01T1/245
Abstract: A system and method for imaging gamma- and x-ray, and charged particles sources employing a three dimensional array of scintillation elements arranged surrounding an emission source. According to a preferred embodiment, each element of the array comprises a scintillator element, a solid-state photon detector, and processing electronics to output an electronic signal. The elements may be efficiently packed in both the X-Y plane and stacked in the Z-axis, to provide depth of interaction information. The elements of the array are preferably hierarchically arranged with control electronics provided together for subarray modules (e.g., an n×m×1 module), and synchronization electronics provided at a larger scale. The modules preferably communicate with a control system through a shared addressable packet switched digital communication network with a control and imaging system, and receive control information from that system through the network.
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公开(公告)号：US09835737B1
公开(公告)日：2017-12-05
申请号：US15468968
申请日：2017-03-24
Applicant: The Research Foundation for The State University of New York , The Research Foundation for The State University of New York , Memorial Sloan Kettering Cancer Center , Cornell University , University of South Carolina
Inventor： Steve Czarnecki , Andrzej Krol , Krishna Mandal , Mark D. Poliks , C. Ross Schmidtlein , Michael Thompson , James Turner
CPC classification number: G01T1/208 , A61B6/037 , A61B6/501 , G01T1/1642 , G01T1/2006 , G01T1/2018 , G01T1/245
Abstract: A system and method for imaging gamma- and x-ray, and charged particles sources employing a three dimensional array of scintillation elements arranged surrounding an emission source. According to a preferred embodiment, each element of the array comprises a scintillator element, a solid-state photon detector, and processing electronics to output an electronic signal. The elements may be efficiently packed in both the X-Y plane and stacked in the Z-axis, to provide depth of interaction information. The elements of the array are preferably hierarchically arranged with control electronics provided together for subarray modules (e.g., an n×m×1 module), and synchronization electronics provided at a larger scale. The modules preferably communicate with a control system through a shared addressable packet switched digital communication network with a control and imaging system, and receive control information from that system through the network.
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公开(公告)号：US12213820B2
公开(公告)日：2025-02-04
申请号：US17790088
申请日：2021-01-15
Inventor： Andrew Labella , Amirhossein Goldan , Wei Zhao , Eric Petersen
Abstract: The disclosure is directed to a device that includes a cavity formed by a plurality of rails, the plurality of rails connected to both a first support and a second support, each at predetermined intervals about a circumference of the first support and the second support; and at least one particle detection device operably connected to each rail of the plurality of rails. The disclosure is also directed to a scanner that includes the device, and a processor.
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公开(公告)号：US20250019264A1
公开(公告)日：2025-01-16
申请号：US18891727
申请日：2024-09-20
Inventor： Benjamin S. HSIAO , Priyanka SHARMA , Sunil Kumar SHARMA , Ken I. JOHNSON
IPC: C02F1/28 , B01J20/24 , B01J20/28 , C02F101/16 , C05F7/00
Abstract: A method of treating contaminated water, such as wastewater, with carboxylated cellulose to remove ammonium and nitrogen-containing impurities is claimed. Carboxylated cellulose extracted by nitro-oxidation has negatively-charged functionality and forms an aggregate when exposed to positively-charged impurities in contaminated water. The aggregate, nitrogen-containing impurities, and by-products from the nitro-oxidation process can be isolated to provide a fertilizer or fertilizer component.
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公开(公告)号：US20250003909A1
公开(公告)日：2025-01-02
申请号：US18625659
申请日：2024-04-03
Inventor： Chuan-Jian Zhong , Shuxia Lu , Guojun Shang , Shan Yan , Jin Luo , Dong Dinh
IPC: G01N27/12 , G01N33/497
Abstract: Air sampling sensor and system for detecting volatile organic compounds and applications thereof. A nanoparticle-structured chemiresistive sensor array in the analyzer generates an output signal based on the presence of selected volatile organic compounds in an air sample. The sensors of the array include sensing films from the group of molecularly-linked gold nanoparticles with different linking and capping molecules and gold nanoparticles of different sizes. A micro-processing unit analyzes the output signal of the sensor array and indicates the presence or absence of selected volatile organic compounds. The air sampling system can be used to analyze human breath and report the presence of volatile organic compounds relevant to lung cancer biomarkers. The air sampling system can also be used as an environmental air monitoring system to detect the presence of hazardous chemicals in the air.
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Patent Agency Ranking
公开(公告)号：US20240390975A1
公开(公告)日：2024-11-28
申请号：US18669761
申请日：2024-05-21
Inventor： Scott N. Schiffres , Arad Azizi
Abstract: Additively manufactured non-metal particle and metal matrix composites are provided. An intermetallic compound interface layer, e.g., metal carbide, is formed between the non-metal particle, e.g., diamond, and the metal matrix, that enhances thermal transfer. One application of this is to form thermal management structures with high thermal conductivity via laser powder bed fusion. A powder material for additively manufacturing a structure, comprising metal particles; and non-metallic particles with thermal conductivities greater than 100 W/m-K and coefficient of thermal expansion less than 10 ppm/degree C., wherein the metal particles are fusible with heat to form a heterogeneous solid structure around the non-metallic particles with an intermetallic compound interface, the heterogeneous solid structure having enhanced thermal conductivity and lower coefficient of thermal expansion with respect to a homogeneous specimen of the fused metal particles alone.
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公开(公告)号：US20240376184A1
公开(公告)日：2024-11-14
申请号：US18685041
申请日：2022-08-22
Applicant: The Research Foundation for the State University of New York , THE GOVERNMENT OF THE UNITED STATES, AS REPRESENTED BY THE SECRETARY OF THE ARMY
Inventor： Adam WAICKMAN , Adam WEGMAN , Jeffrey CURRIER , Heather FRIBERG , Michael MCCRACKEN , Gregory GROMOWSKI
Abstract: The present disclosure relates to IgA antibodies and antigen binding fragments thereof and to cocktails of antibodies and antigen binding fragments that neutralize virus infection without contributing to antibody-dependent enhancement of dengue virus infection. The present disclosure also relates to immortalized B cells that produce, and to epitopes that bind to, such antibodies and antigen binding fragments.
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8.发明授权公开(公告)号：US12135598B2
公开(公告)日：2024-11-05
申请号：US17898437
申请日：2022-08-29
Inventor： Kanad Ghose
IPC: G06F1/20 , A61K36/185 , B03B1/00 , B03B5/02 , B03B5/58 , B03B11/00 , G05D23/19 , G06F1/3203 , G06F1/3206 , G06F1/3209 , G06F1/3228 , G06F9/455 , G06F9/48 , G06F9/50 , G06F13/40 , G06K19/07 , G06K19/077 , H04L9/40 , H04L69/329 , H05K7/20
Abstract: A system and method of scheduling tasks, comprising receiving activity and performance data from registers or storage locations maintained by hardware and an operating system; storing calibration coefficients associated with the activity and performance data; computing an energy dissipation rate based on at least the activity and performance data; and scheduling tasks under the operating system based on the computed energy dissipation rate.
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公开(公告)号：US20240339593A1
公开(公告)日：2024-10-10
申请号：US18627394
申请日：2024-04-04
CPC classification number: H01M4/364 , C25B11/091 , H01G11/36 , H01M4/5815 , H01M4/587 , H01M4/8652 , H01M4/90 , H01M2004/027 , H01M2004/8684
Abstract: Nanohybrid composites, methods of making nanohybrid composites, and uses of nanohybrid composites. A nanohybrid composite may be a binary nanohybrid composite comprising MXene and dual-phase MoS2. A nanohybrid composite may be a ternary nanohybrid composite comprising MXene, dual-phase MoS2, and a plurality of carbon nanotubes. A nanohybrid composite may be made by a method comprising contacting a liquid or liquid(s), a MXene or MXenes, a sulfur precursor or sulfur precursors, a molybdenum precursor or molybdenum precursors, optionally, an ammonium precursor or ammonium precursors, and, optionally, carbon nanotubes to form a reaction mixture; heating the reaction mixture, where the nanohybrid composite is formed. Anodes may comprise one or more nanohybrid composite(s). Devices, such as, for example, batteries or the like, may comprise one or more anode(s) comprising one or more nanohybrid composite(s) and/or one or more nanohybrid composite(s).
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公开(公告)号：US20240316501A1
公开(公告)日：2024-09-26
申请号：US18680523
申请日：2024-05-31
Inventor： Matthew EISAMAN
IPC: B01D61/44 , B01D61/46 , C02F1/44 , C02F1/461 , C02F1/469 , C02F1/66 , C02F103/06 , C02F103/10
CPC classification number: B01D61/445 , B01D61/46 , C02F1/4618 , C02F1/4693 , C02F1/66 , B01D2311/18 , B01D2313/143 , B01D2313/146 , B01D2317/02 , C02F1/441 , C02F2001/4619 , C02F2103/06 , C02F2103/10 , C02F2201/46115 , C02F2201/46145 , C02F2301/08
Abstract: The disclosure relates to enhancing alkalinity of brine, e.g. seawater, using bipolar membrane electrodialysis (BPMED) without removing divalent cations that otherwise cause scaling. In one embodiment, a BPMED is employed wherein the brine volumetric flow rate through a basification compartment is greater at a given current density than that through a brine compartment which increases the pH of the brine output while keeping it below the precipitation pH. In one embodiment, the spacer located in the basification compartment is thicker than spacers elsewhere in the BPMED so as resist membrane distortion due to the increased hydrostatic pressure in the basification compartment given the greater volumetric flow. The brine output having increased alkalinity can be returned to the ocean to mitigate acidification and enable capture of atmospheric carbon dioxide.
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