mhurhangee/ep-ind-claims huggingface dataset:
A replacement heart valve stent assembly for implantation in a body lumen, the replacement heart valve stent assembly comprising: a rigid stent frame for surgical implantation into a patient comprising a first opening, a second opening adjacent to and spaced from the first opening across the width of the valve frame, and a first intermediate strut portion positioned between the first and second openings (14, 16), wherein the stent frame is adapted to receive a tissue valve (18, 20) in each of the first and second openings (14, 16). a rigid stent frame for surgical implantation into a patient comprising a first opening, a second opening adjacent to and spaced from the first opening across the width of the valve frame, and a first intermediate strut portion positioned between the first and second openings (14, 16), wherein the stent frame is adapted to receive a tissue valve (18, 20) in each of the first and second openings (14, 16).
A combination of at least two components, component A and component B, comprising a component A being an inhibitor of ATR kinase and component B being a PD-1 inhibitor or a PD-L1 inhibitor, in which said component A has the formula: or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a pharmaceutically acceptable salt thereof, and in which said component B is pembrolizumab as PD-1 inhibitor, or atezolizumab as PD-Ll inhibitor, said combination being for use in the treatment of a hyper-proliferative disease, said hyper-proliferative disease being lymphoma, lung carcinoma or colon carcinoma, wherein said component B is to be administered prior to the first administration of component A. or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a pharmaceutically acceptable salt thereof, and in which said component B is pembrolizumab as PD-1 inhibitor, or atezolizumab as PD-Ll inhibitor, said combination being for use in the treatment of a hyper-proliferative disease, said hyper-proliferative disease being lymphoma, lung carcinoma or colon carcinoma, wherein said component B is to be administered prior to the first administration of component A.
A unitary heat exchanger comprising: an inlet plenum and an outlet plenum; and a plurality of integrally-formed compliant heat exchanger tubes extending between and integral with the inlet and outlet plenums to define a heat exchanger first flow passage, each integrally-formed compliant heat exchanger tube comprising: a tubular member having a proximal tube end and a distal tube end and comprising a tubular wall having an outer wall surface and an inner wall surface; and a plurality of integral heat transfer fins extending radially outwardly from at least one portion of the tubular member; and an integral bellows portion comprising a bellows in the outer wall surface. an inlet plenum and an outlet plenum; and a plurality of integrally-formed compliant heat exchanger tubes extending between and integral with the inlet and outlet plenums to define a heat exchanger first flow passage, each integrally-formed compliant heat exchanger tube comprising: a tubular member having a proximal tube end and a distal tube end and comprising a tubular wall having an outer wall surface and an inner wall surface; and a plurality of integral heat transfer fins extending radially outwardly from at least one portion of the tubular member; and an integral bellows portion comprising a bellows in the outer wall surface. a tubular member having a proximal tube end and a distal tube end and comprising a tubular wall having an outer wall surface and an inner wall surface; and a plurality of integral heat transfer fins extending radially outwardly from at least one portion of the tubular member; and an integral bellows portion comprising a bellows in the outer wall surface.
Catalyst system comprising: a) silver tungstate; and b) one or more catalytic species suitable for hydrogenation, wherein the weight ratio of the silver tungstate to the one or more catalytic species suitable for hydrogenation is greater than 4:1, on the basis of the total weight of the catalyst system, wherein the one or more catalytic species suitable for hydrogenation are selected from one or more transition metals from Groups 8, 9 or 10 of the Periodic Table, or compounds thereof. a) silver tungstate; and b) one or more catalytic species suitable for hydrogenation, wherein the weight ratio of the silver tungstate to the one or more catalytic species suitable for hydrogenation is greater than 4:1, on the basis of the total weight of the catalyst system,
A head converter comprising: a frame configured to be coupled with a blade unit, the blade unit having a first pivot axis when not being coupled with the frame, the frame extending along a longitudinal axis and including: one or more supports, at least one of the one or more supports having a camming surface configured to abut and interact with a biasing member; and an interconnecting member pivotably coupled with the frame and configured to be coupled with a handle, wherein the frame is configured to be removably coupled with the blade unit, characterized in that when the blade unit and the frame are coupled, the frame with the blade unit pivot along a second pivot axis; the first pivot axis and the second pivot axis being different. a frame configured to be coupled with a blade unit, the blade unit having a first pivot axis when not being coupled with the frame, the frame extending along a longitudinal axis and including: one or more supports, at least one of the one or more supports having a camming surface configured to abut and interact with a biasing member; and an interconnecting member pivotably coupled with the frame and configured to be coupled with a handle, wherein the frame is configured to be removably coupled with the blade unit, characterized in that when the blade unit and the frame are coupled, the frame with the blade unit pivot along a second pivot axis; the first pivot axis and the second pivot axis being different.
A method for depositing a fluorolubricant on a surface comprising: (a) combining a fluorolubricant and a solvent, said solvent comprising E - or Z -C 2 F 5 CH=CH(CF 2) 3 CF 3, to form a lubricant-solvent combination; (b) contacting the combination of lubricant-solvent with the surface; and (c) evaporating the solvent from the surface to form a fluorolubricant coating on the surface. (a) combining a fluorolubricant and a solvent, said solvent comprising E - or Z -C 2 F 5 CH=CH(CF 2) 3 CF 3, to form a lubricant-solvent combination; (b) contacting the combination of lubricant-solvent with the surface; and (c) evaporating the solvent from the surface to form a fluorolubricant coating on the surface.
Method for determining the cardiorespiratory fitness level of a person, with the aid of freely performed exercise, in any of following applications: wristop device, mobile/cellphone application or device, fitness device, computer software, or web service, the method comprising the following stages: • the physiological intensity of the person is measured by a first sensor periodically during the exercise session • the external work output of the exercise session is measured by a second sensor simultaneously relative to the measured intensity • at each time, it is determined by an assembly built around a CPU whether the physiological intensity has stabilized relative to the external work output, • from each period's measured intensity value and external work output, as well as from the stability information obtained, the representativeness of the values measured is determined (8.1, 8.2) by the assembly built around a CPU, • each period is accepted or rejected by the assembly built around a CPU using the following criteria for the acceptance: ∘ the physiological intensity is stabilized relative to the external work output, ∘ the external work output is within a selected range, and ∘ the physiological intensity is greater than a selected lower limit, in which case, a fitness level estimate is defined (8.3) by the assembly built around a CPU for each accepted period using a model created from empirical material to depict fitness level as VO 2 max from physiological intensity and external work output and, if the total duration/number of the accepted periods exceeds a selected time/value, a fitness index is calculated as an average of the defined fitness level estimates. • the physiological intensity of the person is measured by a first sensor periodically during the exercise session • the external work output of the exercise session is measured by a second sensor simultaneously relative to the measured intensity • at each time, it is determined by an assembly built around a CPU whether the physiological intensity has stabilized relative to the external work output, • from each period's measured intensity value and external work output, as well as from the stability information obtained, the representativeness of the values measured is determined (8.1, 8.2) by the assembly built around a CPU, • each period is accepted or rejected by the assembly built around a CPU using the following criteria for the acceptance: ∘ the physiological intensity is stabilized relative to the external work output, ∘ the external work output is within a selected range, and ∘ the physiological intensity is greater than a selected lower limit, ∘ the physiological intensity is stabilized relative to the external work output, ∘ the external work output is within a selected range, and ∘ the physiological intensity is greater than a selected lower limit,
A battery cell packing material comprising: a sealant layer; a gas barrier layer formed on the sealant layer; and an outer layer formed on the gas barrier layer, wherein the outer layer comprises a polyrotaxane-based compound, wherein the polyrotaxane-based compound comprises a cyclic compound, a linear molecule passing through the cyclic compound, and a blocking group disposed at an end of the linear molecule to prevent secession of the cyclic compound, and wherein the cyclic compound has a caprolactone-based compound bound thereto, and the caprolactone-based compound has at least one which is selected from a group consisting of acrylate and methacrylate compound introduced thereinto. a sealant layer; a gas barrier layer formed on the sealant layer; and an outer layer formed on the gas barrier layer, wherein the outer layer comprises a polyrotaxane-based compound, wherein the polyrotaxane-based compound comprises a cyclic compound, a linear molecule passing through the cyclic compound, and a blocking group disposed at an end of the linear molecule to prevent secession of the cyclic compound, and wherein the cyclic compound has a caprolactone-based compound bound thereto, and the caprolactone-based compound has at least one which is selected from a group consisting of acrylate and methacrylate compound introduced thereinto. wherein the outer layer comprises a polyrotaxane-based compound, wherein the polyrotaxane-based compound comprises a cyclic compound, a linear molecule passing through the cyclic compound, and a blocking group disposed at an end of the linear molecule to prevent secession of the cyclic compound, and wherein the cyclic compound has a caprolactone-based compound bound thereto, and the caprolactone-based compound has at least one which is selected from a group consisting of acrylate and methacrylate compound introduced thereinto.
Electromagnetic radiation detection circuit comprising: - a photodetector transforming the received electromagnetic radiation into an electric current, - a bias circuit connected to the terminals of the photodetector, an amplifying circuit different from the bias circuit and comprising an amplifying transistor formed by a field-effect transistor or a bipolar transistor having a first source or emitter electrode forming an input terminal of the amplifying circuit coupled to a terminal of the photo-detector and a second drain or collector electrode coupled to an output terminal of the detection circuit, the amplifying circuit being configured so that the current applied to the first source or emitter electrode flows through the amplifying transistor and so as to provide this current on the output terminal with an impedance higher than on the first source or emitter electrode, - a voltage source connected to the control electrode of the amplifying transistor, - a passive electric load connected to the second drain or collector electrode of the amplifying transistor. - a photodetector transforming the received electromagnetic radiation into an electric current, - a bias circuit connected to the terminals of the photodetector, an amplifying circuit different from the bias circuit and comprising an amplifying transistor formed by a field-effect transistor or a bipolar transistor having a first source or emitter electrode forming an input terminal of the amplifying circuit coupled to a terminal of the photo-detector and a second drain or collector electrode coupled to an output terminal of the detection circuit, the amplifying circuit being configured so that the current applied to the first source or emitter electrode flows through the amplifying transistor and so as to provide this current on the output terminal with an impedance higher than on the first source or emitter electrode, - a voltage source connected to the control electrode of the amplifying transistor, - a passive electric load connected to the second drain or collector electrode of the amplifying transistor.
A method for manufacturing a battery in which an electrode laminated body and a liquid electrolyte are sealed inside an outer case body of the battery, the method for manufacturing the battery comprising: a first depressurization step of depressurizing an inside of a liquid injecting chamber to a vacuum state using a liquid injecting vacuum pump; an injection step of injecting, in the inside of the liquid injecting chamber which has been depressurized, the liquid electrolyte into the battery through an opening portion formed at a top end of the outer case body of the battery; a second depressurization step of depressurizing an inside of a sealing chamber at which the battery has been positioned to the vacuum state using a sealing vacuum pump; and a sealing step of sealing the opening portion in the inside of sealing chamber which has been depressurized, wherein a vacuum attainment time until a pressure of the inside of the liquid injecting chamber becomes at a predetermined vacuum degree is measured in the first depressurization step, and wherein, based on the vacuum attainment time, at least one of a depressurization rate and a depressurization time by the sealing vacuum pump is changed. a first depressurization step of depressurizing an inside of a liquid injecting chamber to a vacuum state using a liquid injecting vacuum pump; an injection step of injecting, in the inside of the liquid injecting chamber which has been depressurized, the liquid electrolyte into the battery through an opening portion formed at a top end of the outer case body of the battery; a second depressurization step of depressurizing an inside of a sealing chamber at which the battery has been positioned to the vacuum state using a sealing vacuum pump; and a sealing step of sealing the opening portion in the inside of sealing chamber which has been depressurized, wherein a vacuum attainment time until a pressure of the inside of the liquid injecting chamber becomes at a predetermined vacuum degree is measured in the first depressurization step, and wherein, based on the vacuum attainment time, at least one of a depressurization rate and a depressurization time by the sealing vacuum pump is changed.
A wireless transceiver system comprising a transmitter and a receiver, the transmitter characterized by comprising: a first generator configured to generate a clock signal; a second generator configured to generate a fixed data item that has bit values corresponding to the clock signal; and a third generator configured to perform orthogonal frequency division multiplexing (OFDM) modulation for the fixed data item to generate an OFDM packet, the receiver characterized by comprising: a first detector configured to detect an envelope that indicates amplitude in a time waveform of the OFDM packet to obtain an envelope signal; a comparator configured to compare the envelope signal with a first threshold to generate a square wave signal; a second detector configured to detect a head part of the OFDM packet; a phase-locked loop, PLL, unit configured to extract a synchronized clock signal from a main frequency component of the square wave signal, the synchronized clock signal being a signal synchronized with the clock signal; and a controller configured to operate the PLL unit from a first time point when the head part is detected to a second time point when a first period is elapsed, the first period being a period that receiving of at least one OFDM packet has finished. a first generator configured to generate a clock signal; a second generator configured to generate a fixed data item that has bit values corresponding to the clock signal; and a third generator configured to perform orthogonal frequency division multiplexing (OFDM) modulation for the fixed data item to generate an OFDM packet, a first detector configured to detect an envelope that indicates amplitude in a time waveform of the OFDM packet to obtain an envelope signal; a comparator configured to compare the envelope signal with a first threshold to generate a square wave signal; a second detector configured to detect a head part of the OFDM packet; a phase-locked loop, PLL, unit configured to extract a synchronized clock signal from a main frequency component of the square wave signal, the synchronized clock signal being a signal synchronized with the clock signal; and a controller configured to operate the PLL unit from a first time point when the head part is detected to a second time point when a first period is elapsed, the first period being a period that receiving of at least one OFDM packet has finished.
An optical laminate, comprising a thin glass having a thickness of 100 μm or less and a polarizing plate arranged on one side of the thin glass, wherein the polarizing plate comprises a polarizer and a protective resin film that has ability to absorb ultraviolet rays arranged on a surface of the polarizer on a thin glass side, and wherein the optical laminate further comprises an adhesion layer between the thin glass and the polarizing plate.
An oxide ore dry-smelting method for producing a ferronickel metal, which is a reduction product, by reducing a mixture of a nickel oxide ore and a carbonaceous reducing agent, the oxide ore smelting method comprising: a drying step for drying the mixture, and a reducing step for reducing the nickel oxide ore by charging the mixture into a reducing furnace and heating the mixture by a burner to obtain a ferronickel metal and slag in a molten state, wherein in the drying step, the mixture is dried at a temperature of 150 °C or more and 400 °C or less, by using gas generated in the reducing furnace, the dried mixture thereafter being subjected to a treatment in the reducing step, and wherein in the reducing step, the mixture comprising the nickel oxide ore is heated such that the temperature of a ferronickel metal to be obtained is in a range of 1400 °C or more and 1600 °C or less and the temperature of slag is in a range of 1480 °C or more and 1680 °C or less, whereby the mixture is reduced. a drying step for drying the mixture, and a reducing step for reducing the nickel oxide ore by charging the mixture into a reducing furnace and heating the mixture by a burner to obtain a ferronickel metal and slag in a molten state, wherein in the drying step, the mixture is dried at a temperature of 150 °C or more and 400 °C or less, by using gas generated in the reducing furnace, the dried mixture thereafter being subjected to a treatment in the reducing step, and wherein in the reducing step, the mixture comprising the nickel oxide ore is heated such that the temperature of a ferronickel metal to be obtained is in a range of 1400 °C or more and 1600 °C or less and the temperature of slag is in a range of 1480 °C or more and 1680 °C or less, whereby the mixture is reduced.
A method of planning a procedure on a body, comprising: receiving two-dimensional (2-D) free-hand drawing user input of a proposed body surface element being drawn on a computer generated representation of a 3-D model of the body displayed on a two-dimensional display device; converting, with a use of a processor, the 2-D free-hand drawing of the proposed body surface element into locations in a 3-D coordinate system and displaying on the 2-D display device the 3-D locations of the proposed body surface element on the surface of the 3-D model (305; 405), wherein converting the 2-D free-hand drawing user input to the 3-D locations comprises projecting 2-D locations onto the 3-D model; and automatically generating a plurality of control points (250; 345; 445; 705, 710, 730, 735) based on the proposed body surface element on the 3-D model (305; 405). receiving two-dimensional (2-D) free-hand drawing user input of a proposed body surface element being drawn on a computer generated representation of a 3-D model of the body displayed on a two-dimensional display device; converting, with a use of a processor, the 2-D free-hand drawing of the proposed body surface element into locations in a 3-D coordinate system and displaying on the 2-D display device the 3-D locations of the proposed body surface element on the surface of the 3-D model (305; 405), wherein converting the 2-D free-hand drawing user input to the 3-D locations comprises projecting 2-D locations onto the 3-D model; and automatically generating a plurality of control points (250; 345; 445; 705, 710, 730, 735) based on the proposed body surface element on the 3-D model (305; 405).
Electrically insulating touch protection device for an end of an electrical conductor with an insulating tube made of expandable material and with a housing which is configured to receive said end of said electrical conductor, wherein said housing comprises an end section, which points towards said insulating tube in longitudinal direction, with a first segment and a second segment, wherein said first segment is inserted into said insulating tube in the longitudinal direction and said second segment is placed onto said insulating tube, wherein said insulating tube is stretched at least in part over said first segment of said end section.