mhurhangee/patent-ind-claim-en huggingface dataset:
A consumable cartridge for a liquid-cooled plasma arc torch, the consumable cartridge comprising: a cartridge frame including a proximal end having an end surface , a distal end and a body having a central longitudinal axis extending therethrough, the cartridge configured to form a radio-frequency identification (RFID) communication interface with a torch head, wherein the body is constructed from an insulator material and comprises at least one channel for conducting a liquid coolant therethrough; an arc emitter and an arc constrictor affixed to the cartridge frame at the distal end; an RFID mounting feature formed on or in the cartridge frame adjacent to the end surface, the RFID mounting feature comprising a longitudinal axis being offset from the central longitudinal axis of the body; an RFID tag disposed in or on the RFID mounting feature for transmitting information about the cartridge to a reader device in the torch head when the cartridge is connected to the torch head to achieve the RFID communication interface with the torch head; and a clocking feature configured to rotationally align the RFID tag to the reader device in the torch head upon connection of the cartridge to the torch head, which also substantially aligns the at least one channel of the cartridge frame with a corresponding channel of the torch head to conduct the liquid coolant between the torch head and the cartridge. a cartridge frame including a proximal end having an end surface , a distal end and a body having a central longitudinal axis extending therethrough, the cartridge configured to form a radio-frequency identification (RFID) communication interface with a torch head, wherein the body is constructed from an insulator material and comprises at least one channel for conducting a liquid coolant therethrough; an arc emitter and an arc constrictor affixed to the cartridge frame at the distal end; an RFID mounting feature formed on or in the cartridge frame adjacent to the end surface, the RFID mounting feature comprising a longitudinal axis being offset from the central longitudinal axis of the body; an RFID tag disposed in or on the RFID mounting feature for transmitting information about the cartridge to a reader device in the torch head when the cartridge is connected to the torch head to achieve the RFID communication interface with the torch head; and a clocking feature configured to rotationally align the RFID tag to the reader device in the torch head upon connection of the cartridge to the torch head, which also substantially aligns the at least one channel of the cartridge frame with a corresponding channel of the torch head to conduct the liquid coolant between the torch head and the cartridge.
A dynamic balancer , comprising an outer housing ; a spindle assembly rotatably mounted to said outer housing and having a spindle shaft ; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and connected to said spindle shaft ; a chucking assembly receiving a locking member , said locking member adapted to capture a tire therebetween, said chucking assembly and said locking member captured in said spindle assembly and rotated by said frameless motor assembly ; and said spindle shaft extending through said frameless motor assembly , one end of said spindle shaft being adapted to axially move said chucking assembly to engage and disengage said locking member in said spindle assembly ; and an encoder assembly comprising: an encoder ring connected to said rotor ; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring . an outer housing ; a spindle assembly rotatably mounted to said outer housing and having a spindle shaft ; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and connected to said spindle shaft ; a chucking assembly receiving a locking member , said locking member adapted to capture a tire therebetween, said chucking assembly and said locking member captured in said spindle assembly and rotated by said frameless motor assembly ; and said spindle shaft extending through said frameless motor assembly , one end of said spindle shaft being adapted to axially move said chucking assembly to engage and disengage said locking member in said spindle assembly ; and an encoder assembly comprising: an encoder ring connected to said rotor ; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring . an encoder ring connected to said rotor ; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring .
A computer implemented method for initializing a multi-mode device, the method comprising: a. supplying power to the multi-mode device; b. retrieving a network type flag from a nonvolatile memory of the multi-mode device, wherein the network type flag identifies a first network type; c. operating the multi-mode device using configuration information associated with the first network type based upon the retrieved network type flag; characterized in that it further comprises the steps of: d. identifying a downstream channel frequency characteristic based upon a downstream signal that originates from an edge termination system; e. upon a determination that the downstream channel frequency characteristic does not correspond to a downstream channel frequency associated with the first network type: i. updating the network type flag in the nonvolatile memory with an updated network type flag, wherein the updated network type flag identifies a second network type; ii. restarting the multi-mode device; and iii. operating the multi-mode device using configuration information associated with the second network type. a. supplying power to the multi-mode device; b. retrieving a network type flag from a nonvolatile memory of the multi-mode device, wherein the network type flag identifies a first network type; c. operating the multi-mode device using configuration information associated with the first network type based upon the retrieved network type flag; d. identifying a downstream channel frequency characteristic based upon a downstream signal that originates from an edge termination system; e. upon a determination that the downstream channel frequency characteristic does not correspond to a downstream channel frequency associated with the first network type: i. updating the network type flag in the nonvolatile memory with an updated network type flag, wherein the updated network type flag identifies a second network type; ii. restarting the multi-mode device; and iii. operating the multi-mode device using configuration information associated with the second network type. i. updating the network type flag in the nonvolatile memory with an updated network type flag, wherein the updated network type flag identifies a second network type; ii. restarting the multi-mode device; and iii. operating the multi-mode device using configuration information associated with the second network type.
A composition comprising temsirolimus or a pharmaceutically acceptable salt thereof at a concentration of 0.01 mg/mL to 2.0 mg/mL, and a pharmaceutically acceptable excipient for use in treating a vascular disease, wherein said composition is administered by direct injection to a disease site in a blood vessel wall or tissue surrounding the blood vessel wall, to deliver a therapeutically effective amount of temsirolimus or a pharmaceutically acceptable salt thereof of 0.005 mg to 5 mg per cm of longitudinal length of the disease site in the blood vessel.
A computer-implemented method of providing a neural network for predicting a three-dimensional shape of an interventional device disposed within a vascular region, the method comprising: receiving (S110) volumetric image data representing a three-dimensional shape of the vascular region; receiving (S120) X-ray image data representing one or more two-dimensional projections of the interventional device within the vascular region; receiving (S130) ground truth interventional device shape data representing a three-dimensional shape of the interventional device within the vascular region corresponding to the one or more two-dimensional projections of the interventional device; and training (S140) a neural network to predict, from the received X-ray image data and the received volumetric image data , a three-dimensional shape of the interventional device constrained by the vascular region , by: inputting (S150) the received X-ray image data and the received volumetric image data into the neural network , and adjusting (S160) parameters of the neural network based on a first loss function representing a difference between a three-dimensional shape of the interventional device predicted by the neural network , and the received ground truth interventional device shape data , and constraining the adjusting such that the three-dimensional shape of the interventional device predicted by the neural network fits within the three-dimensional shape of the vascular region represented by the received volumetric image data . receiving (S110) volumetric image data representing a three-dimensional shape of the vascular region; receiving (S120) X-ray image data representing one or more two-dimensional projections of the interventional device within the vascular region; receiving (S130) ground truth interventional device shape data representing a three-dimensional shape of the interventional device within the vascular region corresponding to the one or more two-dimensional projections of the interventional device; and training (S140) a neural network to predict, from the received X-ray image data and the received volumetric image data , a three-dimensional shape of the interventional device constrained by the vascular region , by: inputting (S150) the received X-ray image data and the received volumetric image data into the neural network , and adjusting (S160) parameters of the neural network based on a first loss function representing a difference between a three-dimensional shape of the interventional device predicted by the neural network , and the received ground truth interventional device shape data , and constraining the adjusting such that the three-dimensional shape of the interventional device predicted by the neural network fits within the three-dimensional shape of the vascular region represented by the received volumetric image data .
An aerosol generation device , comprising: a power supply ; a load that generates heat upon receipt of electric power from the power supply and atomizes an aerosol source using the heat, and in which an electric resistance value of the load changes in response to a temperature; a first circuit used to cause the load to atomize the aerosol source; a second circuit used to detect a voltage that changes according to changes in temperature of the load , connected to the first circuit in parallel, and having an electric resistance value higher than an electric resistance value of the first circuit ; an acquisition unit that acquires a value of a voltage applied to the second circuit and the load ; and a sensor (112A to 112D) that outputs a value of the voltage that changes according to the changes in the temperature of the load , wherein the second circuit comprises a known resistor that is connected in series with the load and has a known electric resistance value, and the sensor (112A to 112D) outputs a value of a voltage applied to the load or the known resistor as the value of the voltage that changes according to the changes in the temperature of the load , wherein the known resistor has an electric resistance value higher than an electric resistance value of the load , and the sensor (112A to 112D) outputs the value of the voltage applied to the load , wherein the value of the voltage that changes according to the changes in the temperature of the load is obtained based on comparison between a value of a reference voltage and a value of an amplified voltage applied to the load . a power supply ; a load that generates heat upon receipt of electric power from the power supply and atomizes an aerosol source using the heat, and in which an electric resistance value of the load changes in response to a temperature; a first circuit used to cause the load to atomize the aerosol source; a second circuit used to detect a voltage that changes according to changes in temperature of the load , connected to the first circuit in parallel, and having an electric resistance value higher than an electric resistance value of the first circuit ; an acquisition unit that acquires a value of a voltage applied to the second circuit and the load ; and a sensor (112A to 112D) that outputs a value of the voltage that changes according to the changes in the temperature of the load , wherein the second circuit comprises a known resistor that is connected in series with the load and has a known electric resistance value, and the sensor (112A to 112D) outputs a value of a voltage applied to the load or the known resistor as the value of the voltage that changes according to the changes in the temperature of the load , wherein the known resistor has an electric resistance value higher than an electric resistance value of the load , and the sensor (112A to 112D) outputs the value of the voltage applied to the load , wherein the value of the voltage that changes according to the changes in the temperature of the load is obtained based on comparison between a value of a reference voltage and a value of an amplified voltage applied to the load .
A method for wireless communications, comprising: identifying (1105; 1605) that a waveform to be generated for a scheduled transmission is formed by one or more reference signal symbols and one or more data symbols, the waveform to be contained between a beginning boundary and an ending boundary with a duration equal to a total length of the one or more reference signal symbols and the one or more data symbols; generating (1110; 1610) the waveform by inserting a guard interval in the one or more reference signal symbols and the one or more data symbols to enable a receiver to perform a fast Fourier transform, FFT, for each of the one or more reference signal symbols and the one or more data symbols; and transmitting (1115; 1615) the waveform between the beginning boundary and the ending boundary; characterized in that generating (1110; 1610) the waveform comprises: generating the waveform, when at least one first data symbol (730; 830; 925) of the one or more data symbols occurs prior to a reference signal symbol of the one or more reference signal symbols, based at least in part on repeating a beginning segment of a reference signal sequence of the reference signal symbol as a beginning segment (710; 810; 910) in the at least one first data symbol as a guard interval. identifying (1105; 1605) that a waveform to be generated for a scheduled transmission is formed by one or more reference signal symbols and one or more data symbols, the waveform to be contained between a beginning boundary and an ending boundary with a duration equal to a total length of the one or more reference signal symbols and the one or more data symbols; generating (1110; 1610) the waveform by inserting a guard interval in the one or more reference signal symbols and the one or more data symbols to enable a receiver to perform a fast Fourier transform, FFT, for each of the one or more reference signal symbols and the one or more data symbols; and transmitting (1115; 1615) the waveform between the beginning boundary and the ending boundary; characterized in that generating (1110; 1610) the waveform comprises: generating the waveform, when at least one first data symbol (730; 830; 925) of the one or more data symbols occurs prior to a reference signal symbol of the one or more reference signal symbols, based at least in part on repeating a beginning segment of a reference signal sequence of the reference signal symbol as a beginning segment (710; 810; 910) in the at least one first data symbol as a guard interval.
A unit cell manufacturing apparatus comprising: an electrode reel from which an electrode sheet , which is to be a plurality of electrodes , is unwound; a separator reel from which a separator sheet to be stacked with the electrodes is unwound; a sealer , in a stack which is formed by stacking the plurality of electrodes with the separator sheet while the plurality of electrodes are spaced apart from each other and disposed in a row in the longitudinal direction of the separator sheet , the sealer which is disposed between a pair of neighoring electrodes of the plurality of electrodes and applies heat and pressure to at least one of corners of the electrodes or edges of the electrodes , and a laminator which laminates the stack . an electrode reel from which an electrode sheet , which is to be a plurality of electrodes , is unwound; a separator reel from which a separator sheet to be stacked with the electrodes is unwound; a sealer , in a stack which is formed by stacking the plurality of electrodes with the separator sheet while the plurality of electrodes are spaced apart from each other and disposed in a row in the longitudinal direction of the separator sheet , the sealer which is disposed between a pair of neighoring electrodes of the plurality of electrodes and applies heat and pressure to at least one of corners of the electrodes or edges of the electrodes , and a laminator which laminates the stack .
A microfluidic device comprising: (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system, wherein the microfluidic device is in form of a plate or a chip and contains a micropump. (a) cell culture compartments, in which (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (i) induced pluripotent stem cell (iPSC)-derived hepatocyte precursor cells; (ii) iPSC-derived intestinal precursor cells; (iii) iPSC-derived renal tubular precursor cells; and (iv) iPSC-derived neuronal precursor cells, are separately deposited; wherein the iPSC-derived precursor cells according to (i), (ii), (iii), and (iv) are obtained from a single donor of iPSC obtained from a single type of somatic cell; and (b) further comprising a reservoir compartment, which serves to add nutrient solution to the system,
A separation method of separating copper, and nickel and cobalt from an alloy containing copper, nickel, and cobalt obtained by heat-melting and reducing scraps of a lithium ion battery, the method comprising adding a sulfurization agent to the alloy so that the alloy and the sulfurization agent coexist, and bringing the alloy into contact with an acid containing hydrochloric acid in coexistence of the sulfurization agent to obtain a solid containing the copper and a leachate containing the nickel and the cobalt. the method comprising adding a sulfurization agent to the alloy so that the alloy and the sulfurization agent coexist, and bringing the alloy into contact with an acid containing hydrochloric acid in coexistence of the sulfurization agent to obtain a solid containing the copper and a leachate containing the nickel and the cobalt.
A satellite user terminal configured to communicate with a satellite , the satellite user terminal comprising: an indoor unit comprising a first baseband signaling module ; and an outdoor unit comprising a second baseband signaling module , wherein the second baseband signaling module is communicatively coupled to the first baseband signaling module using a single communication link between the indoor unit and the outdoor unit, wherein one baseband signaling module from the first baseband signaling module and the second baseband signaling module is configured to manage allocation of a first transmission period for transmitting data by the first baseband signaling module and a second transmission period for transmitting data by the second baseband signaling module, and wherein the first baseband signaling module comprises: a transmitter configured to transmit a first set of data, using a baseband signaling protocol, during the first transmission period to the second baseband signaling module over the single communication link, and a receiver configured to receive a second set of data, using the baseband signaling protocol, during the second transmission period from the second baseband signaling module over the single communication link. an indoor unit comprising a first baseband signaling module ; and an outdoor unit comprising a second baseband signaling module , wherein the second baseband signaling module is communicatively coupled to the first baseband signaling module using a single communication link between the indoor unit and the outdoor unit, wherein one baseband signaling module from the first baseband signaling module and the second baseband signaling module is configured to manage allocation of a first transmission period for transmitting data by the first baseband signaling module and a second transmission period for transmitting data by the second baseband signaling module, and wherein the first baseband signaling module comprises: a transmitter configured to transmit a first set of data, using a baseband signaling protocol, during the first transmission period to the second baseband signaling module over the single communication link, and a receiver configured to receive a second set of data, using the baseband signaling protocol, during the second transmission period from the second baseband signaling module over the single communication link. a transmitter configured to transmit a first set of data, using a baseband signaling protocol, during the first transmission period to the second baseband signaling module over the single communication link, and a receiver configured to receive a second set of data, using the baseband signaling protocol, during the second transmission period from the second baseband signaling module over the single communication link.