Capacitor Sciences Incorporated

Nitto-denko Corporation

Optiva, Inc.

Crysoptix Kk

Quanta Vision, Inc.

Cryscade Solar Limited

86 Solar Inc.

Arion Diagnostics, Inc.

Capacitor Science Incorporated

Carben Semicon Limited

Eosdx Inc.

Bragg Analytics, Inc.

Capactor Sciences Incorporated

Pavel Ivan Lazarev

Paul T Furuta

Michael V Paukshto

Barry K Sharp

Yan Li

Alexander Lazarev

Matthew R Robinson

Yuri A Bobrov

Delvin Tai Wai Yuk

Leonid Y Ignatov

Ian S G Kelly-Morgan

Elena N Sidorenko

Alexey V Kurbatov

Samuel Hein

Alexander P Lazarev

Carine Edder

Daniel Membreno

Tatyana Doutova

Ir Gvon Khan

Alexey Nokel

Pavel Khokhlov

Victor V Nazarov

Oleg Valentinovich Komardin

Vladimir Borisovich Sulimov

Ian Kelly-Morgan

Natalya A Ovchinnikova

Louis D Silverstein

Pochi Yeh

Mikhail Vitoldovich Paukshto

Serguei Petrovich Palto

Alla Y Sakharova

Elena Yurievna Shishkina

Victor A Bykov

Valery S Kuzmin

Ma Yao-Dong

Mikhail Paukshto

Albert F Lawrence

Arthur Geivandov

Alexander S Grodsky

Alexander F Krivoschepov

Ian Sg Kelly-Morgan

Ian SG Kelly-Morgan

Natalya Ovchinnikova

An x-ray diffractometer may perform 3D-analysis of collagen tissue of a patient (a human or another animal). The diffractometer includes an oblong housing that may be hinged and that contains an x-ray projector on one side of a recess and a receiver on an opposite side of the recess. The recess accommodates analyzed tissue such as the external ear and skin of a patient. The x-ray projector directs an x-ray micro-beam at the patient's tissue, and the receiver contains a movable two-dimensional x-ray detector that detects a transmitted x-ray micro-beam passed through the analyzed tissue and detects x-rays scattered or diffracted by the analyzed tissue.

Diffractive analyzer of patient tissue

An X-ray diffractometer system analyzes objects including biological tissue samples and physical and chemical samples. The diffractometer system includes an X-ray beam projector that projects an incident micro-beam of X-ray at an analysis target, an X-ray receiver including an X-ray detector array to detect the transmitted X-rays passed through the object and X-rays that the target diffracts, and a computer workstation for system control and data analysis. The X-ray beam projector may include a radiation source, a beam forming system including at least one of a monochromator, a collimator, and focusing device. The computer workstation may control the X-ray devices and positioning mechanisms and motors, may acquire, process, store, or display data received from diffractometric examination, and may also calculate parameters of the three-dimensional reciprocal lattice of the analyzed target.

Alpha diffractometer

Provided herein are diffractometer-based global diagnostic systems and uses thereof. The systems may comprise one or more diffraction apparatus operatively coupled to a computer database over a network. The one or more diffraction apparatus may be configured for transfer of data such as pathology lab image data, diffraction pattern data, subject data, or any combination thereof to the computer database over the network. The systems may further comprise one or more computer processors operatively coupled to the one or more diffraction apparatus, which computer processors may be configured to receive the data from the diffraction apparatus, transmit the data to the computer database, and process the data using a data analytics algorithm which may provide a computer-aided diagnostic indicator for the individual subject.

Diffraction-based global in vitro diagnostic system

An in vitro human-tissue analysis and communication system produces a quantitative diagnostic indicator for in vitro human-tissue analyzed by the system. The system includes a human-tissue-analyzer subsystem with at least one human-tissue analyzer that analyzes in vitro samples of human tissue and produces a quantitative-diagnostic indicator of each sample. The system also includes a two-way communication subsystem that allows the human-tissue-analyzer subsystem to send and receive information relevant to the quantitative-diagnostic indicators. The human-tissue-analyzer subsystem includes at least one tissue diffractometer operatively coupled to a computer database over a network, and configured for acquisition of the in vitro samples, and transfer of the corresponding human-tissue data to the computer database over the network. A computer processor is operatively coupled to the tissue diffractometer, and receives, transmits and processes the human-tissue data using a data analytics algorithm that provides a quantitative-diagnostic indicator of the in vitro sample of human tissue.

An animal-tissue analysis and communication system produces a quantitative-diagnostic indicator for animal-tissue analyzed by the system. The system includes an animal-tissue-analyzer subsystem with at least one animal-tissue analyzer constructed to analyze animal tissue and to produce an quantitative-diagnostic indicator. The system also includes a two-way communication subsystem constructed to allow the animal-tissue-analyzer subsystem to send and receive information relevant to the quantitative-diagnostic indicator. The animal-tissue-analyzer subsystem includes at least one tissue diffractometer operatively coupled to a computer database over a network, and is configured for acquisition and transfer of animal-tissue data, and transfer to the computer database over the network. A computer processor is operatively coupled to the tissue diffractometer, and configured to receive, transmit and process the animal-tissue data from the diffractometer to the computer database, using a data analytics algorithm that provides a computer-aided quantitative-diagnostic indicator for a given animal-tissue sample.

Diffractometer-based global in situ diagnostic system for animals

An in vivo human-tissue analysis and communication system produces a quantitative diagnostic indicator for human-tissue analyzed by the system. The system includes a human-tissue-analyzer subsystem with at least one human-tissue analyzer constructed to analyze human tissue and to produce a quantitative-diagnostic indicator. There is also a two-way communication subsystem constructed to allow the human-tissue-analyzer subsystem to send and receive information relevant to the quantitative-diagnostic indicator. The human-tissue-analyzer subsystem includes at least one tissue diffractometer operatively coupled to a computer database over a network, and configured for acquisition of human-tissue data and transfer to the computer database over the network. A computer processor is operatively coupled to the tissue diffractometer, and the computer processor is configured to receive the human-tissue data from the tissue diffractometer, transmit the human-tissue data to the computer database; and process the human-tissue data using a data analytics algorithm that provides a quantitative-diagnostic indicator of human tissue.

Diffractometer-based global in situ diagnostic system

The present disclosure provides device having a reaction vessel with one or more permeable membranes disposed therein that separate the reaction vessel into at least a first portion and a second portion. The one or more membranes permit first reactants from a first solution in the first portion or reactants from a second solution in the second portion to seep or percolate to a reaction zone proximate a surface of the one or more membranes. A reaction of the first and second reactants forms a two-dimensional polymer film material. A roller located inside of the reaction vessel draws the two-dimensional polymer film material reaction out of the reaction zone.

Lazarev reactor 2: continuous production process of films of two- dimensional polymers

The present disclosure provides Lazarev reactor that sustains reaction of two dimensional polymerization on the interface of two immiscible solutions A and B carrying components of reaction to the interface where reaction takes place and produces film of two dimensional polymer layers that are pulled out of reactor and rolled up on roll after drying excess of solvent out.

Lazarev reactor 1 : production of films of two-dimensional polymers

Provided herein are diffractometer-based global in situ diagnostic systems and uses thereof. The systems may comprise one or more tissue diffractometers that are configured for acquiring in situ diffraction data for a subject, e.g., a patient, and that are operatively coupled to a computer database over a network. The one or more tissue diffractometers may be configured for transfer of data such as image data, diffraction pattern data, subject data, or any combination thereof to the computer database over the network. The systems may further comprise one or more computer processors operatively coupled to the tissue diffractometers, which computer processors may be configured to receive the data from the tissue diffractometers, transmit the data to the computer database, and process the data using a data analytics algorithm which may provide a computer-aided diagnostic indicator for the individual subject.

The present disclosure provides an unmanned vehicle comprising a device to be powered; a capacitor energy storage system (CESS) and controller board for at least temporarily powering and operating the device to powered. Further, the CESS includes one or more metacapacitors as an energy storage medium. Additionally, the disclosure provides a capacitor energy storage cell composed of the at least one metacapacitor and a DC-voltage conversion device, where the output voltage of the metacapacitor is the input voltage of the DC-voltage conversion device. Still further, the CESS may be comprised of a module of said capacitor energy storage cells, or a system of modules of said capacitor energy storage cells.

Capacitor based power system and unmanned vehicle with the capacitor based power system thereof

The present disclosure provides a plasma electric propulsion device comprising a capacitive energy storage device as a power source for an engine configured to heat and/or ionize and/or accelerate a propellant due to action of an electric field and/or magnetic field. The energy storage device comprises: a first electrically conductive electrode, a second electrically conductive electrode; and at least one metadielectric layer located between the first and second conductive electrodes. The metadielectric layer comprises at least one organic compound with at least one electrically resistive substituent and at least one polarizable unit. The polarizable unit is selected from intramolecular and intermolecular polarizable units. The organic compound is selected from the list comprising compounds with rigid electro-polarizable organic units, composite organic polarizable compounds, composite electro-polarizable organic compounds, composite non-linear electro-polarizable compounds, Sharp polymers, Furuta co-polymers, para-Furuta polymers, YanLi polymers, and any combination thereof.

Plasma electric propulsion device

The present disclosure provides device comprising a cylindrical reaction vessel having one or more permeable cylindrical membranes disposed therein separating the cylindrical reaction vessel into at least a first portion and a second portion, wherein the one or more permeable cylindrical membranes are configured to permit first reactants from a first solution in the first portion or reactants from a second solution in the second portion to percolate or seep to a reaction zone proximate a surface of the one or more cylindrical membranes. A lifting device (mechanism) located above the first portion of the cylindrical reaction vessel configured to continuously draw a preform two-dimensional polymer tube formed by continuous reaction of the first and second reactants out from the reaction zone.

Lazarev reactor 3: continuous production process of two-dimensional polymer tubes

A metadielectric composite oligomeric organic material according to the formula: wherein C is a linear chain oligomeric polarizable core with a system of conjugated multiple and single bonds wherein the linear chain oligomeric polarizable core possesses at least two different monomers with differing electron affinity, and the different monomers are positioned within the linear chain oligomeric polarizable core such that an electron affinity gradient is present, and the differing monomers have a low HOMO-LUMO bandgap between them, and there is at least one electron-donor group, D, attached to the linear chain oligomeric polarizable core, there is at least one electron-acceptor group, A, is attached to the linear chain oligomeric polarizable core, p' and q&#x2032; represent the number of electron-donor and electron-acceptor groups present, respectively, and are any integer greater than zero, and at least one resistive insulating group is covalently attached to the molecular structure at any location.

Edder compound and capacitor thereof

A composite oligomeric material includes one or more repeating backbone units. One or more polarizable units are incorporated into or connected to one or more of the one or more repeating backbone units. One or more resistive tails are connected to one or more of the repeating backbone units or to the one or more polarizable units as a side chain on the polarizable unit. The composite oligomer material may be polymerized to form a metadielectric, which may be sandwiched between to electrodes to form a metacapacitor.

YanLi material and dielectric and capacitor thereof

The present disclosure provides a coiled capacitor comprising a coil formed by a flexible multilayered tape, and a first terminating electrode and a second terminating electrode which are located on butts of the coil. The flexible multilayered tape contains the following sequence of layers: first metal layer, a layer of a plastic, second metal layer, a layer of energy storage material. The first metal layer forms ohmic contact with the first terminating electrode and the second metal layer forms ohmic contact with the second terminating electrode. The energy storage material comprises material selected from the list comprising rylene fragments, doped oligoaniline and p-oligo-phenylene, supramolecular structures, colloidal composite with dispersion (suspension) of electro-conductive anisometric particles in an insulator matrix, material comprises a surfactant.

Coiled capacitor

Growing community of inventors

Menlo Park, CA, United States of America

Pavel Ivan Lazarev