mhurhangee/patent-ind-claim-en huggingface dataset:
A thin film gas sensor device comprising: a substrate ; a first electrode supported by the substrate ; a second electrode supported by the substrate ; and a gas-sensitive structure supported by the substrate and electrically connected to the first and second electrodes , the gas sensitive structure including a plurality of thin film layers of a first material vertically interleaved with a plurality of thin film layers of a second material, wherein the first plurality of thin film layers is formed from tin dioxide and the second plurality of thin film layers is formed from lanthanum oxide, each layer of the first plurality of thin film layers defines a first thickness, each layer of the second plurality of thin film layers defines a second thickness, the first thickness is five percent to eighty percent of the second thickness, a gas-sensitive portion of the gas sensitive structure includes a plurality of digits that are horizontally interleaved with each other, the gas sensitive structure includes a serpentine-shaped trench and numerous digit trenches that each extend through the gas-sensitive structure and define at least some digits of the plurality of horizontally interleaved digits , the gas sensitive structure is a unitary element through which electrical current is configured to flow between the first and second electrodes , and both an exterior surface and an interior surface of the digits defining the digit trenches contribute to an exposed area of interfaces of the vertically interleaved thin film layers . a substrate ; a first electrode supported by the substrate ; a second electrode supported by the substrate ; and a gas-sensitive structure supported by the substrate and electrically connected to the first and second electrodes , the gas sensitive structure including a plurality of thin film layers of a first material vertically interleaved with a plurality of thin film layers of a second material, wherein the first plurality of thin film layers is formed from tin dioxide and the second plurality of thin film layers is formed from lanthanum oxide, each layer of the first plurality of thin film layers defines a first thickness, each layer of the second plurality of thin film layers defines a second thickness, the first thickness is five percent to eighty percent of the second thickness, a gas-sensitive portion of the gas sensitive structure includes a plurality of digits that are horizontally interleaved with each other, the gas sensitive structure includes a serpentine-shaped trench and numerous digit trenches that each extend through the gas-sensitive structure and define at least some digits of the plurality of horizontally interleaved digits , the gas sensitive structure is a unitary element through which electrical current is configured to flow between the first and second electrodes , and both an exterior surface and an interior surface of the digits defining the digit trenches contribute to an exposed area of interfaces of the vertically interleaved thin film layers .
A terminal apparatus comprising at least one processor and a memory, wherein the processor is configured to and/or programmed to: receive a first uplink grant with CRC parity bits scrambled by a C-RNTI for dynamically scheduled transmission on a PDCCH; store a second uplink grant in the memory; consider that the second uplink grant occurs in a subframe which is given by a subframe offset and an interval; perform a plurality of transmissions based on the first uplink grant or the second uplink grant, the plurality of transmissions corresponding to a bundle; and determine a redundancy version corresponding to each of the plurality of transmissions except for a first transmission of the plurality of transmissions, based on whether each of the plurality of transmissions is related to the second uplink grant or not. receive a first uplink grant with CRC parity bits scrambled by a C-RNTI for dynamically scheduled transmission on a PDCCH; store a second uplink grant in the memory; consider that the second uplink grant occurs in a subframe which is given by a subframe offset and an interval; perform a plurality of transmissions based on the first uplink grant or the second uplink grant, the plurality of transmissions corresponding to a bundle; and determine a redundancy version corresponding to each of the plurality of transmissions except for a first transmission of the plurality of transmissions, based on whether each of the plurality of transmissions is related to the second uplink grant or not.
A fluid ejection device , comprising: a plurality of nozzles ; a plurality of ejection chambers (106, 106-n), comprising a respective ejection chamber of the plurality of ejection chambers fluidically coupled to a respective nozzle of the plurality of nozzles; a plurality of inlet passages (110, 110-n) which are fluidically coupled to the ejection chambers and input fluid to the ejection chambers at a first pressure; a plurality of outlet passages which are fluidically coupled to the ejection chambers and to output fluid from the ejection chambers at a second pressure that is less than the first pressure such that fluid circulates through the ejection chambers based on the pressure difference between the first pressure and the second pressure; at least one micropump fluidically coupled to ejection chambers to pump fluid through the ejection chambers, the fluid ejection device being characterized by : an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n). a plurality of nozzles ; a plurality of ejection chambers (106, 106-n), comprising a respective ejection chamber of the plurality of ejection chambers fluidically coupled to a respective nozzle of the plurality of nozzles; a plurality of inlet passages (110, 110-n) which are fluidically coupled to the ejection chambers and input fluid to the ejection chambers at a first pressure; a plurality of outlet passages which are fluidically coupled to the ejection chambers and to output fluid from the ejection chambers at a second pressure that is less than the first pressure such that fluid circulates through the ejection chambers based on the pressure difference between the first pressure and the second pressure; at least one micropump fluidically coupled to ejection chambers to pump fluid through the ejection chambers, the fluid ejection device being characterized by : an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n). an input regulator to generate the first pressure in the fluid at the inlet passages (110, 110-n); and an output regulator to generate the second pressure in the fluid at the outlet passages (112, 112-n).
An extruder comprising an extruder housing , in which is configured a feed channel for a medium to be extruded, which feed channel has at least one screw conveyor arranged therein, comprising a cooling device for the extruder housing , which cooling device has at least one cooling line , configured in or on the extruder housing and connected with a supply line and a return line and is flowed through by a cooling fluid (F), and comprising an electronics device , accommodated in an electronics housing , for controlling and/or regulating the operating states of the extruder , wherein the electronics housing can be cooled by means of the cooling device for the extruder housing , characterized in that the supply line and/or the return line run through a component which forms at least one section of the electronics housing or is in direct contact with the electronics housing so that the component is cooled in relation to the ambient temperature, and that the component has projections or cooling ribs , which project into an interior , accommodating the electronics device , of the electronics housing .
A transmitter (UE) for transmitting data to a receiver (BS) of a wireless communication network, the wireless communication network including a plurality of resource elements, at least a subset of the plurality of resource elements shared by a plurality of transmitters (UEs) for transmitting data from the plurality of transmitters (UEs) to the receiver (BS), the transmitter (UE), comprising at least one antenna, an encoder configured to receive a data element to be transmitted to a receiver (BS) of the wireless communication network, and to map the data element to a codeword, the codeword obtained by selecting at least one vector from a unique set of vectors, the unique set of vectors exclusively assigned to the transmitter (UE), each vector including a plurality of symbols, each symbol to be transmitted over a resource element of the wireless communication network, and a transceiver coupled to the encoder and to the antenna, the transceiver configured to transmit via the antenna the codeword on the subset of resource elements, the codeword representing the data element and identifying the transmitter at the receiver (BS), wherein the encoder is configured to obtain the codeword by selecting and linearly combining a plurality of vectors from the unique set of vectors. at least one antenna, an encoder configured to receive a data element to be transmitted to a receiver (BS) of the wireless communication network, and to map the data element to a codeword, the codeword obtained by selecting at least one vector from a unique set of vectors, the unique set of vectors exclusively assigned to the transmitter (UE), each vector including a plurality of symbols, each symbol to be transmitted over a resource element of the wireless communication network, and to receive a data element to be transmitted to a receiver (BS) of the wireless communication network, and to map the data element to a codeword, the codeword obtained by selecting at least one vector from a unique set of vectors, the unique set of vectors exclusively assigned to the transmitter (UE), each vector including a plurality of symbols, each symbol to be transmitted over a resource element of the wireless communication network, and a transceiver coupled to the encoder and to the antenna, the transceiver configured to transmit via the antenna the codeword on the subset of resource elements, the codeword representing the data element and identifying the transmitter at the receiver (BS), wherein the encoder is configured to obtain the codeword by selecting and linearly combining a plurality of vectors from the unique set of vectors.
A system comprising: at least two wireless USB interfaces , wherein at least one of the wireless USB interfaces is powered by its own power source and at least one of the wireless USB interfaces is connected to a mobile or stationary device having a USB data line and by which it is powered; wherein each of the wireless USB interfaces is arranged to check whether it is connected to a USB data line; characterized in that the respective wireless USB interface enters a diagnostic mode comprising setting one or more communication parameters to preset values in the absence of a USB data line; wherein the respective wireless USB interface connects to diagnostic software on the mobile or stationary device in the presence of a USB data line, wherein the diagnostic software is arranged to detect other wireless USB interfaces that have entered the diagnostic mode and to perform measurements of connection quality with the wireless USB interfaces for these wireless USB interfaces . at least two wireless USB interfaces , wherein at least one of the wireless USB interfaces is powered by its own power source and at least one of the wireless USB interfaces is connected to a mobile or stationary device having a USB data line and by which it is powered; wherein each of the wireless USB interfaces is arranged to check whether it is connected to a USB data line; characterized in that the respective wireless USB interface enters a diagnostic mode comprising setting one or more communication parameters to preset values in the absence of a USB data line; wherein the respective wireless USB interface connects to diagnostic software on the mobile or stationary device in the presence of a USB data line, wherein the diagnostic software is arranged to detect other wireless USB interfaces that have entered the diagnostic mode and to perform measurements of connection quality with the wireless USB interfaces for these wireless USB interfaces .
A high velocity oxygen fuel (HVOF) or high velocity air fuel (HVAF) thermal spray apparatus to apply coatings to external and internal surfaces, said apparatus comprising: a. a fuel input line ; b. an oxidizing gas input line ; c. coolant input and outlet ; d. a combustion chamber for primary combustion of the fuel; e. a nozzle comprising a feedstock injection zone and a nozzle throat downstream of said injection zone ; f. a divergence section upstream of said nozzle that splits the primary combustion flow into two or more combustion streams; g. an elbow section downstream of said divergence section which redirects the diverged combustion streams by an angle greater than 30 degrees relative to the longitudinal axis of said combustion chamber ; h. a convergence section downstream of said elbow section that recombines the diverged combustion streams into a single combustion stream within said injection zone of said nozzle ; and i. a feedstock injector for the injection of feedstock material for forming said coatings into said injection zone of said nozzle . a. a fuel input line ; b. an oxidizing gas input line ; c. coolant input and outlet ; d. a combustion chamber for primary combustion of the fuel; e. a nozzle comprising a feedstock injection zone and a nozzle throat downstream of said injection zone ; f. a divergence section upstream of said nozzle that splits the primary combustion flow into two or more combustion streams; g. an elbow section downstream of said divergence section which redirects the diverged combustion streams by an angle greater than 30 degrees relative to the longitudinal axis of said combustion chamber ; h. a convergence section downstream of said elbow section that recombines the diverged combustion streams into a single combustion stream within said injection zone of said nozzle ; and i. a feedstock injector for the injection of feedstock material for forming said coatings into said injection zone of said nozzle .
A radical-polymerizable resin composition comprising one or more metal-containing compounds (A) selected from a metal soap (A1) and a β-diketone skeleton-containing metal complex (A2), wherein the metal element constituting the one or more metal-containing compounds (A) is at least one of selected from zirconium, manganese, cobalt, bismuth, and calcium; one or more thiol compounds (B) selected from a secondary thiol compound (B1) and a tertiary thiol compound (B2), wherein the molar ratio of the thiol compound (B) to the metal component of the metal-containing compound (A) each in terms of the total amount [(B)/(A)] is from 0.1 to 150); a radical-polymerizable compound (C) selected from a vinyl ester resin (epoxy (meth)acrylate resin), an unsaturated polyester resin, a polyester (meth)acrylate resin, a urethane (meth)acrylate resin, a (meth)acrylate resin, a radical-polymerizable unsaturated monomer having a vinyl group or a (meth)acryloyl group, and a mixture of the resin and the radical-polymerizable unsaturated monomer; and an elastomer (D). one or more metal-containing compounds (A) selected from a metal soap (A1) and a β-diketone skeleton-containing metal complex (A2), wherein the metal element constituting the one or more metal-containing compounds (A) is at least one of selected from zirconium, manganese, cobalt, bismuth, and calcium; one or more thiol compounds (B) selected from a secondary thiol compound (B1) and a tertiary thiol compound (B2), wherein the molar ratio of the thiol compound (B) to the metal component of the metal-containing compound (A) each in terms of the total amount [(B)/(A)] is from 0.1 to 150); a radical-polymerizable compound (C) selected from a vinyl ester resin (epoxy (meth)acrylate resin), an unsaturated polyester resin, a polyester (meth)acrylate resin, a urethane (meth)acrylate resin, a (meth)acrylate resin, a radical-polymerizable unsaturated monomer having a vinyl group or a (meth)acryloyl group, and a mixture of the resin and the radical-polymerizable unsaturated monomer; and an elastomer (D).
A method for repairing a vane of a turbomachine propeller, in particular a turbomachine fan, this vane comprising a blade made from an organic-matrix composite and a metal shield bonded to a leading edge of the blade, the metal shield having a damaged region , the method comprises a step of refilling the damaged region , by adding a metallic material to this damaged region and laser melting the material, and a step of adjusting the damaged region by machining the molten material, characterised in that prior to said refilling and adjusting steps, the method comprises a step of resetting the leading edge of the blade in order to measure a real profile of said damaged region on said leading edge, and a step of cooling the entire blade .
An integrated adapter configured to hold two first circuit card assemblies in a second circuit card assembly space, comprising: a thermally-conductive frame defining a front , a back , a top , a bottom , a left side , a right side , and an inboard region ; and characterized by : two vertical thermally-conductive guide rails disposed on the front of the thermally-conductive frame in the inboard region, each of the two thermally-conductive guide rails defining a guide rail top, a guide rail bottom, an inboard side, and an outboard side; wherein: a channel is formed in each of the two thermally-conductive guide rails, extending from the guide rail top to the guide rail bottom on the respective outboard side, thereby defining a front rail and a back rail; the front rail and back rail on each of the two thermally-conductive guide rails together are configured to receive and support an edge of a first circuit card assembly; the thermally-conductive frame is configured to be matably attached to a second circuit card assembly, thereby forming an integrated adapter circuit card; the integrated adapter circuit card is configured to be positioned in the second circuit card assembly space; and the second circuit card assembly is larger than the first circuit card assembly. a thermally-conductive frame defining a front , a back , a top , a bottom , a left side , a right side , and an inboard region ; and characterized by : two vertical thermally-conductive guide rails disposed on the front of the thermally-conductive frame in the inboard region, each of the two thermally-conductive guide rails defining a guide rail top, a guide rail bottom, an inboard side, and an outboard side; wherein: a channel is formed in each of the two thermally-conductive guide rails, extending from the guide rail top to the guide rail bottom on the respective outboard side, thereby defining a front rail and a back rail; the front rail and back rail on each of the two thermally-conductive guide rails together are configured to receive and support an edge of a first circuit card assembly; the thermally-conductive frame is configured to be matably attached to a second circuit card assembly, thereby forming an integrated adapter circuit card; the integrated adapter circuit card is configured to be positioned in the second circuit card assembly space; and the second circuit card assembly is larger than the first circuit card assembly. a channel is formed in each of the two thermally-conductive guide rails, extending from the guide rail top to the guide rail bottom on the respective outboard side, thereby defining a front rail and a back rail; the front rail and back rail on each of the two thermally-conductive guide rails together are configured to receive and support an edge of a first circuit card assembly; the thermally-conductive frame is configured to be matably attached to a second circuit card assembly, thereby forming an integrated adapter circuit card; the integrated adapter circuit card is configured to be positioned in the second circuit card assembly space; and the second circuit card assembly is larger than the first circuit card assembly.
A control circuit for determining heart rate of a patient, the control circuit comprising: memory for storing instructions; and a processor for executing the instructions stored in the memory, the processor is configured to communicate with a ventricular assist device to provide control signals to the ventricular assist device and to sense a motor current of the ventricular assist device, and is further configured to: detect a first event of the patient's cardiac cycle from the sensed motor current, the first event indicative of a beginning of one from the group consisting of systole and diastole; detect a second event of the patient's cardiac cycle from the sensed motor current, the second event indicative of a beginning of the other from the group consisting of systole and diastole; detect a third event of the patient's cardiac cycle from the sensed motor current, the third event indicative of a beginning of the same one from the group consisting of systole and diastole as the first event; measure a duration of time between the first and third events; and determine the patient's heart rate based on the measured duration of time. memory for storing instructions; and a processor for executing the instructions stored in the memory, the processor is configured to communicate with a ventricular assist device to provide control signals to the ventricular assist device and to sense a motor current of the ventricular assist device, and is further configured to: detect a first event of the patient's cardiac cycle from the sensed motor current, the first event indicative of a beginning of one from the group consisting of systole and diastole; detect a second event of the patient's cardiac cycle from the sensed motor current, the second event indicative of a beginning of the other from the group consisting of systole and diastole; detect a third event of the patient's cardiac cycle from the sensed motor current, the third event indicative of a beginning of the same one from the group consisting of systole and diastole as the first event; measure a duration of time between the first and third events; and determine the patient's heart rate based on the measured duration of time. detect a first event of the patient's cardiac cycle from the sensed motor current, the first event indicative of a beginning of one from the group consisting of systole and diastole; detect a second event of the patient's cardiac cycle from the sensed motor current, the second event indicative of a beginning of the other from the group consisting of systole and diastole; detect a third event of the patient's cardiac cycle from the sensed motor current, the third event indicative of a beginning of the same one from the group consisting of systole and diastole as the first event; measure a duration of time between the first and third events; and determine the patient's heart rate based on the measured duration of time.