mhurhangee/ep-ind-claims huggingface dataset:
Dendritic cells pulsed with α-galactosylceramide for use in the prevention and/or treatment of myocardial infarction or its complications, or myocardial ischemia-reperfusion injury, wherein the dendritic cells are obtained by a method comprising the steps of: culturing mononuclear cells in the presence of GM-CSF and IL-2, and pulsing the cultured cells with α-galactosylceramide. culturing mononuclear cells in the presence of GM-CSF and IL-2, and pulsing the cultured cells with α-galactosylceramide.
A composition which comprises organic material normally susceptible to oxidative degradation in the presence of air or oxygen with which material has been blended a multi-ring antioxidant product in an amount sufficient to inhibit such oxidative degradation, wherein the organic material is an oil of lubricating viscosity or a liquid fuel composition, and wherein the multi-ring antioxidant has the formula of or wherein: R and R' are selected from hydrogen and C 1-4 alkyl; m is 0-4; and n is, independently, 1-4. R and R' are selected from hydrogen and C 1-4 alkyl; m is 0-4; and n is, independently, 1-4.
A method of determining a performance index related to a performance of a communication service provided in a network, the communication service being usable by a mobile user terminal, the method comprising: determining the performance index by comparing performance information associated with a characteristic location (211, 240) of the user terminal and performance information associated with at least one other location (212-217, 230) visited by the user terminal, the performance index being indicative of a relative performance of the communication service at the characteristic location (211, 240) of the user terminal compared to the at least one other location (212-217, 230) visited by the user terminal characterized in that the characteristic location is a location determined by at least one of: a longer time interval spent by the user terminal at the characteristic location (211, 240) than at the at least one other location (212-217, 230), a higher visiting rate at the characteristic location (211, 240) than at the at least one other location (212-217, 230), and a more intensive usage of the communication service at the characteristic location (211, 240) than at the at least one other location (212-217, 230). a longer time interval spent by the user terminal at the characteristic location (211, 240) than at the at least one other location (212-217, 230), a higher visiting rate at the characteristic location (211, 240) than at the at least one other location (212-217, 230), and a more intensive usage of the communication service at the characteristic location (211, 240) than at the at least one other location (212-217, 230).
A hybrid input device comprising a housing, wherein the housing comprises: a touchscreen stylus (108, 208) that selectively protrudes from the housing; a writing instrument that selectively protrudes from the housing; a pressure sensor; an ultrasonic transmitter adapted to transmit an ultrasonic data pattern; and a control element adapted to toggle ultrasonic functionality of the hybrid input device and adapted to select the touchscreen stylus or the writing instrument to protrude from the housing based on a proximity of the hybrid input device to a wireless communication device. a touchscreen stylus (108, 208) that selectively protrudes from the housing; a writing instrument that selectively protrudes from the housing; a pressure sensor; an ultrasonic transmitter adapted to transmit an ultrasonic data pattern; and a control element adapted to toggle ultrasonic functionality of the hybrid input device and adapted to select the touchscreen stylus or the writing instrument to protrude from the housing based on a proximity of the hybrid input device to a wireless communication device.
A printing method to prepare a can body, the can body comprising: can main body that is formed cylindrically and includes an outer circumferential surface, and wherein on the outer circumferential surface of the can main body, a main image, which is a main image, and a strip-shaped image, which is a sub-image, are formed, wherein the main image is formed on a main image formation region extending along the circumferential direction of the can main body, the strip-shaped image is formed in a strip-shaped image formation region formed in a rectangular shape and extending along the axial direction of the can main body and the length of the strip-shaped image in the axial direction of the can main body is the same length as the length of the main image formation region, and wherein the strip-shaped image is formed from one end portion to the other end portion in the axial direction of the can main body and in an entire region from the one end portion to the other end portion, wherein the strip-shaped image is composed of multiple images adjacent to each other in the circumferential direction, each of said images forming a row including multiple character images arranged in line in the axial direction, and between character images that are positioned in one row and are adjacent to each other in the axial direction, a character image is positioned in another row by shifting the character image in the other row by half a character with respect to the character images in said one row, wherein the can body is obtainable by a printing method comprising the following: a step of providing said can body; a main image formation step to form said main image, wherein ink of different colors from respective ink jet heads of a plurality of ink jet heads (H1, H2, H3, H4), each including a plurality of ink ejection ports, is ejected to the outer circumferential surface of said can body, and wherein ink is ejected from the ink ejection port corresponding to the image to be formed; a sub-image formation step to form said sub-image, wherein ink from the ink jet head (H1, H2, H3, H4) is ejected from at least one of an unused ink ejection port that is not used in forming the image and a low-frequency ink ejection port with a frequency of ink ejection lower than a predetermined frequency of ink ejection, to said strip-shaped region.
An electric brake device comprising: an electric motor; a braking force application mechanism configured to apply a braking force on a vehicle wheel in dependence on the output of the electric motor; a lock mechanism configured to assume one of a locked condition, in which the braking force applied by the braking force application mechanism is prevented from being relieved, and an unlocked condition, in which the braking force is permitted to be relieved; characterised in that it comprises: a temperature sensor configured to measure an ambient temperature of a vehicle, in which the electric brake device is provided, or a temperature of the electric brake device; and a freezing preventive power supply unit configured to initiate supply of an electric power to the electric motor or a drive source of the lock mechanism in the event that while the braking force application mechanism applies the braking force and the lock mechanism is held in the locked condition, the temperature sensor detects a preset temperature of the electric brake device immediately before freezing. an electric motor; a braking force application mechanism configured to apply a braking force on a vehicle wheel in dependence on the output of the electric motor; a lock mechanism configured to assume one of a locked condition, in which the braking force applied by the braking force application mechanism is prevented from being relieved, and an unlocked condition, in which the braking force is permitted to be relieved; characterised in that it comprises: a temperature sensor configured to measure an ambient temperature of a vehicle, in which the electric brake device is provided, or a temperature of the electric brake device; and a freezing preventive power supply unit configured to initiate supply of an electric power to the electric motor or a drive source of the lock mechanism in the event that while the braking force application mechanism applies the braking force and the lock mechanism is held in the locked condition, the temperature sensor detects a preset temperature of the electric brake device immediately before freezing. a temperature sensor configured to measure an ambient temperature of a vehicle, in which the electric brake device is provided, or a temperature of the electric brake device; and a freezing preventive power supply unit configured to initiate supply of an electric power to the electric motor or a drive source of the lock mechanism in the event that while the braking force application mechanism applies the braking force and the lock mechanism is held in the locked condition, the temperature sensor detects a preset temperature of the electric brake device immediately before freezing.
A system for regenerating an adsorbent in an off-line adsorption chamber comprising: a compressor coolant supply configured to supply a first fluid; the first fluid being a compressor coolant heated by a compressor; a heat exchanger in direct fluid communication with the compressor coolant supply, the heat exchanger being configured to exchange heat from a first fluid coming from the compressor and a second fluid, an off-line adsorption chamber (33, 40) having an adsorbent, the off-line adsorption chamber (33, 40) being configured to receive the second fluid for regenerating; a conduit providing fluid communication between the second fluid exiting the heat exchanger and an off-line adsorption chamber (33, 40); and an outlet to the off-line adsorption chamber (33, 40) configured to discharge the second fluid from the off-line adsorption chamber (33, 40). a compressor coolant supply configured to supply a first fluid; the first fluid being a compressor coolant heated by a compressor; a heat exchanger in direct fluid communication with the compressor coolant supply, the heat exchanger being configured to exchange heat from a first fluid coming from the compressor and a second fluid, an off-line adsorption chamber (33, 40) having an adsorbent, the off-line adsorption chamber (33, 40) being configured to receive the second fluid for regenerating; a conduit providing fluid communication between the second fluid exiting the heat exchanger and an off-line adsorption chamber (33, 40); and an outlet to the off-line adsorption chamber (33, 40) configured to discharge the second fluid from the off-line adsorption chamber (33, 40).
A method of manufacturing a battery electrode, comprising: forming a coating film on a collector substrate by extensively applying an ink-like coating film on said collector substrate, drying or curing the applied coating film; calendering said coated collector substrate; manufacturing at least one conductor region by removing said coating film by means of laser ablation, characterized in that, when manufacturing said conductor region, one layer of said collector substrate in said conductor region is removed by means of laser ablation by controlling a laser penetration depth into said collector substrate. forming a coating film on a collector substrate by extensively applying an ink-like coating film on said collector substrate, drying or curing the applied coating film; calendering said coated collector substrate; manufacturing at least one conductor region by removing said coating film by means of laser ablation,
A transmitting apparatus for a Peripheral Component Interconnect Express, PCIe, - compliant link, comprising: means for computing parity corresponding to each of a plurality of lanes of the PCIe-compliant link, wherein the parity corresponding to a particular lane of the plurality of lanes comprises an even parity of payloads of data blocks communicated by the particular lane; means for generating a skip ordered set, SKP OS, associated with the particular lane, wherein the SKP OS is to comprise a data parity bit, and the data parity bit indicates the even parity of the particular lane; and means for sending the SKP OS on the particular lane in response to identifying that the PCIe-compliant link is to exit an active link state. means for computing parity corresponding to each of a plurality of lanes of the PCIe-compliant link, wherein the parity corresponding to a particular lane of the plurality of lanes comprises an even parity of payloads of data blocks communicated by the particular lane; means for generating a skip ordered set, SKP OS, associated with the particular lane, wherein the SKP OS is to comprise a data parity bit, and the data parity bit indicates the even parity of the particular lane; and means for sending the SKP OS on the particular lane in response to identifying that the PCIe-compliant link is to exit an active link state.
A sensor assembly comprising: optical components comprising a light source, a light detector, and a reflector; sensor components comprising a pressure sensor and an accelerometer; and a controller coupled to the optical components and the sensor components, the controller being further coupled to one or more semiconductor process tools; wherein the sensor assembly is configured to monitor a pellicle attached to a pellicle support frame positioned on a reticle, wherein the light source is configured to direct light towards the pellicle and the light reflected by the pellicle toward the reflector; wherein the reflector is configured to receive the light from the pellicle and reflect the light back toward the pellicle, the light being further reflected by the pellicle toward the light detector; and wherein the light detector is configured to detect the light and generate signals that are transmitted to the controller, wherein the controller determines whether a movement of the pellicle exceeds its threshold deflection limit or a maximum number of pellicle deflection cycles based on the signal, or whether the pellicle is ruptured based on the signal. optical components comprising a light source, a light detector, and a reflector; sensor components comprising a pressure sensor and an accelerometer; and a controller coupled to the optical components and the sensor components, the controller being further coupled to one or more semiconductor process tools; wherein the sensor assembly is configured to monitor a pellicle attached to a pellicle support frame positioned on a reticle, wherein the light source is configured to direct light towards the pellicle and the light reflected by the pellicle toward the reflector; wherein the reflector is configured to receive the light from the pellicle and reflect the light back toward the pellicle, the light being further reflected by the pellicle toward the light detector; and wherein the light detector is configured to detect the light and generate signals that are transmitted to the controller, wherein the controller determines whether a movement of the pellicle exceeds its threshold deflection limit or a maximum number of pellicle deflection cycles based on the signal, or whether the pellicle is ruptured based on the signal.
A medical system for detecting arrhythmic events, said system comprising: at least one processor (28, 34, 50) programmed to: receive a photoplethysmogram (PPG, signal generated using a PPG probe positioned on or within a patient; receive a pulse signal generated using an accelerometer positioned on or within the patient; extract features from the PPG signal to generate PPG feature vectors including inter pulse intervals (IPIs) for pairs of adjacent pulses of a last predetermined number of pulses; extract features from the pulse signal to generate pulse feature vectors including inter pulse intervals (IPIs) for pairs of adjacent pulses of a last predetermined number of pulses correlate the PPG feature vectors with the pulse feature vectors; and evaluate correlated PPG feature vectors and correlated pulse feature vectors to detect arrhythmic events. receive a photoplethysmogram (PPG, signal generated using a PPG probe positioned on or within a patient; receive a pulse signal generated using an accelerometer positioned on or within the patient; extract features from the PPG signal to generate PPG feature vectors including inter pulse intervals (IPIs) for pairs of adjacent pulses of a last predetermined number of pulses; extract features from the pulse signal to generate pulse feature vectors including inter pulse intervals (IPIs) for pairs of adjacent pulses of a last predetermined number of pulses correlate the PPG feature vectors with the pulse feature vectors; and evaluate correlated PPG feature vectors and correlated pulse feature vectors to detect arrhythmic events.
A method by a first network node for identifying interfering physical channel configurations and cell-specific reference signals, CRSs, for the characterization of dynamic interferers, the method comprising: constructing a plurality of configuration indications, each configuration indication comprising: a physical cell identity; antenna port information for a CRS; and an identification of a channel state information reference signal, CSI-RS; and transmitting, to a first wireless device, a first configuration indication and a second configuration indication of the plurality of configuration indications; and transmitting, by the first network node, a first physical channel to the first wireless device, and wherein a second physical channel transmitted from a second network node that interferes with the first physical channel is identified at least in part by the first configuration indication or the second configuration indication, wherein the first configuration indication and the second configuration indication include a same physical cell identity and a same antenna port information. constructing a plurality of configuration indications, each configuration indication comprising: a physical cell identity; antenna port information for a CRS; and an identification of a channel state information reference signal, CSI-RS; and a physical cell identity; antenna port information for a CRS; and an identification of a channel state information reference signal, CSI-RS; and transmitting, to a first wireless device, a first configuration indication and a second configuration indication of the plurality of configuration indications; and transmitting, by the first network node, a first physical channel to the first wireless device, and wherein a second physical channel transmitted from a second network node that interferes with the first physical channel is identified at least in part by the first configuration indication or the second configuration indication, wherein the first configuration indication and the second configuration indication include a same physical cell identity and a same antenna port information.
A computer-implemented method for estimating a load at executing a predetermined program, comprising: collecting, by a collection driver, run information that includes execution addresses sampled during execution of the predetermined program by a processor; specifying, by an aggregation unit, execution status based on the collected run information, wherein the execution status includes a feature related to the number of samples of the sampled execution addresses for each predetermined block range of addresses; calculating, by an estimation unit, for each load level of a plurality of load levels, a degree of similarity between the specified execution status and reference execution characteristic of the load level, which includes a reference feature prepared in advance for each predetermined block range of addresses; selecting, by the estimation unit, at least one of the plurality of load levels based on the calculated degrees of similarity from among the plurality of load levels, wherein at least one of the plurality of load levels having the highest similarity from among the plurality of load levels is selected; and estimating, by the estimation unit, a load based on the selected load levels as the load of the predetermined program. collecting, by a collection driver, run information that includes execution addresses sampled during execution of the predetermined program by a processor; specifying, by an aggregation unit, execution status based on the collected run information, wherein the execution status includes a feature related to the number of samples of the sampled execution addresses for each predetermined block range of addresses; calculating, by an estimation unit, for each load level of a plurality of load levels, a degree of similarity between the specified execution status and reference execution characteristic of the load level, which includes a reference feature prepared in advance for each predetermined block range of addresses; selecting, by the estimation unit, at least one of the plurality of load levels based on the calculated degrees of similarity from among the plurality of load levels, wherein at least one of the plurality of load levels having the highest similarity from among the plurality of load levels is selected; and estimating, by the estimation unit, a load based on the selected load levels as the load of the predetermined program.
A cathode material for lithium ion secondary battery, made from an agglomerate including secondary particles formed via aggregation of primary particles of a lithium metal composite oxide having a layered structure, represented by the following composition formula Li 1+x M1 1-x-y M2 y O 2 ----- [where x is a number satisfying a relationship of -0.1 ≤ x ≤ 0.3; y is a number satisfying a relationship of 0 ≤ y ≤ 0.1; M1 is at least one kind of an element selected from a group of Ni, Co, Mn; and M2 is at least one kind of an element selected from a group of Mg, Al, Ti, Zr, Mo, Nb, Fe, B], characterized in that secondary particles forming the agglomerate have a particle size corresponding to 10% in volume-based cumulative particle size distribution being in the range from 0.5 μm to 10 μm, and simultaneously a particle size corresponding to 90% in volume-based cumulative particle size distribution being in the range of more than 10 μm and equal to 50 μm or less, when analyzed by laser diffraction/scattering particle size distribution measurement; and a mean porosity of the secondary particles having a particle size in the range of more than 10 μm and equal to 50 μm or less is higher than a mean porosity of the secondary particles having a particle size in the range from 0.5 μm to 10 μm.
An automatic air eliminator consisting of a hollow body which is extended at its lower portion by a connector so as to be connected on a pipe of a system in a building network for cold water, domestic hot water and/or heating, and which has at the upper portion thereof a vent in communication with a chamber formed by said hollow body, said chamber containing a float controlling the movement of a shutter between a resting position for closing said vent and a venting position which corresponds to said float being at a lowered level and in which said shutter allows air to pass between said chamber and said vent, said vent comprising a check valve, movable between a resting position in which said check valve shuts off a seat arranged transversely relative to said vent, and a position in which said check valve is separated from said seat by the liquid or gas pressure upstream of said seat, characterized in that it comprises a spring pushing said check valve against the seat so as to ensure closure at rest, and in that said shutter is rigidly connected to a valve which is movable inside said vent so as to ensure closure when the float is in raised position, a spring pushing said valve into the default closed position.
A disposable absorbent article comprising at least one component comprising an auxetic material, the article having a longitudinal centerline and a lateral centerline, a front waist region with a front waist edge, a rear waist region with a rear waist edge, a crotch region disposed between said front and rear waist regions, and two spaced apart longitudinal side edges joining said front waist edge to said rear waist edge, wherein the component is a waist feature.