mhurhangee/ep-ind-claims huggingface dataset:
A surgical control apparatus comprising: a first contactless recognition block (71, 72, 73, 74) configured to recognize a first type of contactless input from a user as first input information; a second contactless recognition block (71, 72, 73, 74) configured to recognize a second type of contactless input from the user as second input information, the first type of contactless input being different from the second type of contactless input; a state estimation block configured to estimate a state of the user from a plurality of predetermined user states on the basis of a line of sight input and an operator movement input; wherein the state estimation block is configured to estimate the state of the user as: an action-other-than-surgical-procedure state, a downward viewing state, a close watching state in which the user is executing a surgical operation while closely watching a single point inside a surgical field image, or an observation state in which the user temporarily interrupts a surgical procedure to observe a patient; wherein a degree of necessity for changing surgical field images increases in the order from the action-other-than-surgical-procedure state to the downward viewing state to the close watching state to the observation state; and a command block configured to set at least one command type from a plurality of command types as a permitted command type and to set other commands types from the plurality of command types as restricted command types, in accordance with the state of the user estimated by the state estimation block, wherein more command types are set as permitted command types in a state higher in the degree of necessity for changing surgical field images, and wherein in a state higher in the necessity for changing surgical field images all of the command types that are permitted in the lower states are permitted, the at least one permitted command type comprising one or more commands for controlling a control operation of a surgical apparatus, each command having an associated recognition condition, wherein the command block is configured to output one of the one or more commands in dependence upon whether the first input information and the second input information satisfy a recognition condition of one of the one or more commands. a first contactless recognition block (71, 72, 73, 74) configured to recognize a first type of contactless input from a user as first input information; a second contactless recognition block (71, 72, 73, 74) configured to recognize a second type of contactless input from the user as second input information, the first type of contactless input being different from the second type of contactless input;
A fault detection system (130; 230) comprising: an AC/AC converter (110; 210) including a DC bus (119a,119b,121), the AC/AC converter (110, 210) structured to receive AC power and provide AC power; a DC bus sensor (136; V DC-bus) structured to measure an electrical characteristic of the DC bus (119a,119b,121); an input sensor (133; 233) structured to measure an electrical characteristic of the AC power received by the AC/AC converter (110; 210); an output sensor (135; 235) structured to measure the electrical characteristic of the AC power provided by the AC/AC converter (110; 210); characterized in that further comprising: a monitoring device (131; 231) configured to receive measurement information from the DC bus sensor (136; V DC-bus), the input sensor (133; 233), the output sensor (135; 235), the monitoring device (131; 231) is configured to calculate a scaling factor using the received measurement from the DC bus sensor (136, V DC-bus), to scale one of the measurement from the input sensor (133; 233) and the measurement from the output sensor (135; 235) using the scaling factor, and to determine the existence of a fault condition within the AC/AC converter (110, 210) using an evaluation of the scaled measurement relative to the unscaled measurement. an AC/AC converter (110; 210) including a DC bus (119a,119b,121), the AC/AC converter (110, 210) structured to receive AC power and provide AC power; a DC bus sensor (136; V DC-bus) structured to measure an electrical characteristic of the DC bus (119a,119b,121); an input sensor (133; 233) structured to measure an electrical characteristic of the AC power received by the AC/AC converter (110; 210); an output sensor (135; 235) structured to measure the electrical characteristic of the AC power provided by the AC/AC converter (110; 210); characterized in that further comprising: a monitoring device (131; 231) configured to receive measurement information from the DC bus sensor (136; V DC-bus), the input sensor (133; 233), the output sensor (135; 235), the monitoring device (131; 231) is configured to calculate a scaling factor using the received measurement from the DC bus sensor (136, V DC-bus), to scale one of the measurement from the input sensor (133; 233) and the measurement from the output sensor (135; 235) using the scaling factor, and to determine the existence of a fault condition within the AC/AC converter (110, 210) using an evaluation of the scaled measurement relative to the unscaled measurement.
A walking assistance apparatus, comprising: a rear support configured to support a rear portion of a waist of a user; a driver configured to provide a power to assist a motion of a hip joint of the user; a thigh support connected to the driver, the thigh support configured to support a thigh of the user; a waist frame including a pair of shafts (141, 142) configured to connect the rear support and the driver; characterised in that the waist frame includes a driving source bracket configured to connect to the pair of shafts (141, 142) and a side cover of the driver, wherein the side cover is configured to contact a side portion of a pelvis of the user and is spaced apart from the pair of shafts (141, 142), wherein said side cover comprises holes with diameters greater than a diameter of the pair of shafts (141, 142) to thereby decouple force transmitting paths between the pair of shafts (141, 142) and the side cover to some extent. a rear support configured to support a rear portion of a waist of a user; a driver configured to provide a power to assist a motion of a hip joint of the user; a thigh support connected to the driver, the thigh support configured to support a thigh of the user; a waist frame including a pair of shafts (141, 142) configured to connect the rear support and the driver; characterised in that the waist frame includes a driving source bracket configured to connect to the pair of shafts (141, 142) and a side cover of the driver, wherein the side cover is configured to contact a side portion of a pelvis of the user and is spaced apart from the pair of shafts (141, 142), wherein said side cover comprises holes with diameters greater than a diameter of the pair of shafts (141, 142) to thereby decouple force transmitting paths between the pair of shafts (141, 142) and the side cover to some extent.
Capsule, in particular for preparing a beverage from beverage powder, in particular coffee from coffee powder, by introducing water into the capsule, comprising a capsule body composed of at least one polysaccharide and filled with material, said capsule body being coated with at least one first coating layer, said at least one first coating layer comprising at least one polyvinyl alcohol and/or polyvinyl alcohol copolymer, characterized in that said first coating layer has a thickness of from 0.5 μm to 10 μm and preferably from 1 μm to 2 μm.
A method for preparing 2,4-dihydroxyphenyl-benzyl-ketones of the formula, wherein R 1 and R 2 represent hydrogen, chlorine, fluorine, bromine, iodine, CF 3, methyl, methoxy, optionally substituted alkoxy, -OCF 3, -C(CH 3) 3, -CH(CH 3) 2; R 3 represent hydrogen, Cl, F, Br, or optionally substituted alkyl, optionally substituted alkoxy, -C(CH 3) 3; and X represent hydroxyl, F, Cl, Br, or optionally substituted alkoxy; by reacting phenylacetic acid derivatives of the formula with phenols of the formula in hydrogen fluoride, wherein no further diluent is used, and wherein the reaction is performed at ambient temperature under autogenous pressure, and the reaction temperature is between 10°C and 50°C. R 1 and R 2 represent hydrogen, chlorine, fluorine, bromine, iodine, CF 3, methyl, methoxy, optionally substituted alkoxy, -OCF 3, -C(CH 3) 3, -CH(CH 3) 2; R 3 represent hydrogen, Cl, F, Br, or optionally substituted alkyl, optionally substituted alkoxy, -C(CH 3) 3; and X represent hydroxyl, F, Cl, Br, or optionally substituted alkoxy;
A feedthrough for an implantable medical device comprising: a) a conductive ferrule; b) a dielectric substrate comprising at least 96% alumina and defined as comprising a first side and a second side disposed within the conductive ferrule and comprising a first side first elevated portion generally raised above the conductive ferrule; c) at least one via hole disposed through the dielectric substrate from the first side to the second side; d) a conductive fill disposed within the at least one via hole forming a hermetic seal and electrically conductive between the first side and the second side, wherein the conductive fill comprises a substantially closed pore and fritless platinum fill; and e) a leadwire connection feature having a proximal connection portion extending to a distal connection portion, wherein the proximal connection portion is electrically connected to the conductive fill by a weld, braze or conductive adhesive, with the distal connection portion contacting the elevated dielectric portion, but spaced from the ferrule, and wherein the distal connection portion is configured for direct electrical connection to a leadwire. a) a conductive ferrule; b) a dielectric substrate comprising at least 96% alumina and defined as comprising a first side and a second side disposed within the conductive ferrule and comprising a first side first elevated portion generally raised above the conductive ferrule; c) at least one via hole disposed through the dielectric substrate from the first side to the second side; d) a conductive fill disposed within the at least one via hole forming a hermetic seal and electrically conductive between the first side and the second side, wherein the conductive fill comprises a substantially closed pore and fritless platinum fill; and e) a leadwire connection feature having a proximal connection portion extending to a distal connection portion, wherein the proximal connection portion is electrically connected to the conductive fill by a weld, braze or conductive adhesive, with the distal connection portion contacting the elevated dielectric portion, but spaced from the ferrule, and wherein the distal connection portion is configured for direct electrical connection to a leadwire.
A terminal comprising: a reception section configured to receive a synchronization signal and a broadcast channel; and a control section configured to control to transmit a random access preamble by using a resource that is configured associated with the synchronization signal and the broadcast channel, wherein the resource used for transmitting the random access preamble is associated with a plurality of synchronization signals and broadcast channels, including the received synchronization signal and broadcast channel, and the control section is configured to control reception of a response signal to the random access preamble based on timing of the resource. a reception section configured to receive a synchronization signal and a broadcast channel; and a control section configured to control to transmit a random access preamble by using a resource that is configured associated with the synchronization signal and the broadcast channel, wherein the resource used for transmitting the random access preamble is associated with a plurality of synchronization signals and broadcast channels, including the received synchronization signal and broadcast channel, and the control section is configured to control reception of a response signal to the random access preamble based on timing of the resource.
A method for scheduling request, SR, transmission, the method being applied to a terminal device and comprising: in response to K SR configurations comprising at least one first SR configuration that satisfies a first preset condition, transmitting first SR information corresponding to the at least one first SR configuration through a first uplink channel, wherein the first uplink channel is a physical uplink control channel, PUCCH, carrying channel state information, CSI, time-domain resources of K PUCCHs overlap with time-domain resources of the first uplink channel, the K PUCCHs are configured to carry SR information corresponding to the K SR configurations, and K is a positive integer, and the first preset condition comprises a priority of the PUCCH corresponding to the at least one first SR configuration being equal to a priority of the first uplink channel; the method further comprises: in response to the K SR configurations comprising a third SR configuration that satisfies a second preset condition, and a third SR corresponding to the third SR configuration being positive, transmitting third SR information corresponding to the third SR configuration through a PUCCH corresponding to the third SR configuration in the K PUCCHs, and stopping transmission of the first uplink channel from a time-domain resource occupied by the PUCCH corresponding to the third SR configuration, wherein the second preset condition comprises a priority of the PUCCH corresponding to the third SR configuration being higher than the priority of the first uplink channel. in response to K SR configurations comprising at least one first SR configuration that satisfies a first preset condition, transmitting first SR information corresponding to the at least one first SR configuration through a first uplink channel, wherein the first uplink channel is a physical uplink control channel, PUCCH, carrying channel state information, CSI, time-domain resources of K PUCCHs overlap with time-domain resources of the first uplink channel, the K PUCCHs are configured to carry SR information corresponding to the K SR configurations, and K is a positive integer, and the first preset condition comprises a priority of the PUCCH corresponding to the at least one first SR configuration being equal to a priority of the first uplink channel; the method further comprises: in response to the K SR configurations comprising a third SR configuration that satisfies a second preset condition, and a third SR corresponding to the third SR configuration being positive, transmitting third SR information corresponding to the third SR configuration through a PUCCH corresponding to the third SR configuration in the K PUCCHs, and stopping transmission of the first uplink channel from a time-domain resource occupied by the PUCCH corresponding to the third SR configuration, wherein the second preset condition comprises a priority of the PUCCH corresponding to the third SR configuration being higher than the priority of the first uplink channel.
An apparatus for turning steel products, comprising: a rotating shaft; a first turning plate fixedly mounted to the rotating shaft with a longitudinal axis of the first turning plate perpendicular to a longitudinal axis of the rotating shaft, such that the first turning plate can rotate along with the rotating shaft; and a second turning plate, characterized in that the second turning plate is movably mounted to the rotating shaft with a longitudinal axis of the second turning plate perpendicular to a longitudinal axis of the rotating shaft, such that the second turning plate can move on the rotating shaft forwardly or backwardly in a longitudinal direction of the rotating shaft. a rotating shaft; a first turning plate fixedly mounted to the rotating shaft with a longitudinal axis of the first turning plate perpendicular to a longitudinal axis of the rotating shaft, such that the first turning plate can rotate along with the rotating shaft; and a second turning plate, characterized in that the second turning plate is movably mounted to the rotating shaft with a longitudinal axis of the second turning plate perpendicular to a longitudinal axis of the rotating shaft, such that the second turning plate can move on the rotating shaft forwardly or backwardly in a longitudinal direction of the rotating shaft.
A method for controlling the temperature of a cooling fluid in a cooling system arranged in fluid connection with an internal combustion engine of a vehicle, the cooling system comprising a cooling circuit connected to a condenser of a waste heat recovery system, a cooling pump arranged to circulate a cooling fluid through the cooling circuit and a radiator arranged for cooling the cooling fluid, a bypass circuit, a first valve unit and a second valve unit, wherein the first valve unit is arranged to control the flow of cooling fluid through the radiator and the bypass circuit respectively, and the second valve unit is arranged to control the flow of cooling fluid passing through the condenser, characterized by the steps of: - determining a condenser-in cooling fluid temperature by means of a first temperature sensor arranged upstream of the condenser and downstream of a first mixing point, where the cooling fluid from the radiator and bypass circuit are mixed, and an engine-in cooling fluid temperature by means of a second temperature sensor arranged upstream of the internal combustion engine and downstream of a second mixing point, where the cooling fluid from the condenser and bypass circuit are mixed; and - controlling the flow of the cooling fluid in the cooling system by means of the first valve unit and/or the second valve unit based on the determined condenser-in and engine-in fluid temperatures. - determining a condenser-in cooling fluid temperature by means of a first temperature sensor arranged upstream of the condenser and downstream of a first mixing point, where the cooling fluid from the radiator and bypass circuit are mixed, and an engine-in cooling fluid temperature by means of a second temperature sensor arranged upstream of the internal combustion engine and downstream of a second mixing point, where the cooling fluid from the condenser and bypass circuit are mixed; and - controlling the flow of the cooling fluid in the cooling system by means of the first valve unit and/or the second valve unit based on the determined condenser-in and engine-in fluid temperatures.
A method of configuration of a device by a customer to define the functionality of its product without need for a firmware developing company's involvement in microcontroller programming and compiling of the firmware for a man-machine interface device, comprising: compiling and linking, at the company, a source code comprising a library function to result in an executable binary configuration file of a configurable firmware configured to control the functions of a man-machine interface device; loading and locking, at the company, the executable binary configuration file into a program memory of a sample configurable man-machine interface device; generating a map during compilation at the company; deriving a file holding structure from the source code with a parsing process at the company; filtering the map to get a map file at the company; creating a template file that describes basic functionality of the man-machine interface device at the company, wherein the map file and the file holding structure include rules for modifying the template file; providing the sample configurable man-machine interface device from the company to the customer; and uploading, by the customer, a new binary configuration file created from the template file, the file holding structure, and the map file received from the company to the man-machine interface device, which results in the man-machine interface device acting according to a new customer defined configuration. compiling and linking, at the company, a source code comprising a library function to result in an executable binary configuration file of a configurable firmware configured to control the functions of a man-machine interface device; loading and locking, at the company, the executable binary configuration file into a program memory of a sample configurable man-machine interface device; generating a map during compilation at the company; deriving a file holding structure from the source code with a parsing process at the company; filtering the map to get a map file at the company; creating a template file that describes basic functionality of the man-machine interface device at the company, wherein the map file and the file holding structure include rules for modifying the template file; providing the sample configurable man-machine interface device from the company to the customer; and uploading, by the customer, a new binary configuration file created from the template file, the file holding structure, and the map file received from the company to the man-machine interface device, which results in the man-machine interface device acting according to a new customer defined configuration.
A system for memory management of serverless databases, the system comprising: a processor; and a computer-readable medium storing instructions that are operative upon execution by the processor to: detect a trigger event for reclaiming memory from a serverless database instance; based at least on detecting the trigger event, determine whether memory is to be reclaimed; based at least on determining that memory is to be reclaimed, determine an amount of memory to be reclaimed by calculating the amount of memory to be reclaimed using ramp-down parameters, which comprise: R1, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to a current memory usage, and R2, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to idle memory, using a machine learning, ML, component, trained with historical data, to tune any of R1 and R2 for a ramp-down profile while minimizing performance impacts; identify memory to be reclaimed; and reclaim the identified memory. a processor; and a computer-readable medium storing instructions that are operative upon execution by the processor to: detect a trigger event for reclaiming memory from a serverless database instance; based at least on detecting the trigger event, determine whether memory is to be reclaimed; based at least on determining that memory is to be reclaimed, determine an amount of memory to be reclaimed by calculating the amount of memory to be reclaimed using ramp-down parameters, which comprise: R1, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to a current memory usage, and R2, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to idle memory, using a machine learning, ML, component, trained with historical data, to tune any of R1 and R2 for a ramp-down profile while minimizing performance impacts; identify memory to be reclaimed; and reclaim the identified memory. detect a trigger event for reclaiming memory from a serverless database instance; based at least on detecting the trigger event, determine whether memory is to be reclaimed; based at least on determining that memory is to be reclaimed, determine an amount of memory to be reclaimed by calculating the amount of memory to be reclaimed using ramp-down parameters, which comprise: R1, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to a current memory usage, and R2, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to idle memory, R1, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to a current memory usage, and R2, indicating a limit of the ratio of the amount of memory reclaimed in a single cycle to idle memory, using a machine learning, ML, component, trained with historical data, to tune any of R1 and R2 for a ramp-down profile while minimizing performance impacts; identify memory to be reclaimed; and reclaim the identified memory.