mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module, comprising: a cell assembly composed of pouch cells ; a bottom plate configured to support the cell assembly and having slits formed therein at predetermined intervals so that edge portions of the pouch cells are put therein; a pair of end plates disposed at both ends of the cell assembly; and a side plate provided perpendicular to a plane of the bottom plate and disposed adjacent to an outermost side of the cell assembly, wherein as the edge portions of the pouch cells are put into the slits of the bottom plate, empty spaces are respectively formed between adjacent edge portions, and wherein the empty spaces are used as a cooling channel, wherein a cooling hose is disposed to communicate with the empty space, wherein at any one end of the pair of end plates, an end of the cooling hose is disposed to be drawn outward, wherein an insert hole is formed in the other one of the pair of end plates, wherein the end of the cooling hose drawn outward is adapted to be inserted into the insert hole formed at another module and connected to the cooling hose of the another module. a cell assembly composed of pouch cells ; a bottom plate configured to support the cell assembly and having slits formed therein at predetermined intervals so that edge portions of the pouch cells are put therein; a pair of end plates disposed at both ends of the cell assembly; and a side plate provided perpendicular to a plane of the bottom plate and disposed adjacent to an outermost side of the cell assembly, wherein as the edge portions of the pouch cells are put into the slits of the bottom plate, empty spaces are respectively formed between adjacent edge portions, and wherein the empty spaces are used as a cooling channel, wherein a cooling hose is disposed to communicate with the empty space, wherein at any one end of the pair of end plates, an end of the cooling hose is disposed to be drawn outward, wherein an insert hole is formed in the other one of the pair of end plates, wherein the end of the cooling hose drawn outward is adapted to be inserted into the insert hole formed at another module and connected to the cooling hose of the another module.
A processing entity configured to generate a model for estimating scene illumination colour for a source image captured by a camera, by the steps of: acquiring a set of images, each image having been captured by a respective camera, the set of images as a whole comprising images captured by multiple cameras; forming a set of tasks by assigning each image of the set of images to a respective task such that images in the same task have in common that a property of those images lies in a predetermined range; training parameters of the model by repeatedly: selecting at least one of the tasks, forming an interim set of model parameters in dependence on a first subset of the images of that task, estimating the quality of the interim set of model parameters against a second subset of the images of that task and updating the parameters of the model in dependence on the interim set of parameters and the estimated quality, wherein the step of training is performed using few-shot learning. acquiring a set of images, each image having been captured by a respective camera, the set of images as a whole comprising images captured by multiple cameras; forming a set of tasks by assigning each image of the set of images to a respective task such that images in the same task have in common that a property of those images lies in a predetermined range; training parameters of the model by repeatedly: selecting at least one of the tasks, forming an interim set of model parameters in dependence on a first subset of the images of that task, estimating the quality of the interim set of model parameters against a second subset of the images of that task and updating the parameters of the model in dependence on the interim set of parameters and the estimated quality, wherein the step of training is performed using few-shot learning.
A method of network slice management performed by a Network Sub-Slice Management Function , NSSMF, the method comprising: receiving , from each of a plurality of network element managers, EMs, availability of the resources under its management; aggregating the availability of the resources of the plurality of EMs to obtain capability exposure information; transmitting the capability exposure information to a Network Slice Management Function, NSMF ; and receiving network sub-slice requirements from the NSMF ; wherein the network sub-slice requirements satisfy service instance requirements and the capability exposure information; and wherein the capability exposure information includes management capability exposure information and resource capacity exposure information. receiving , from each of a plurality of network element managers, EMs, availability of the resources under its management; aggregating the availability of the resources of the plurality of EMs to obtain capability exposure information; transmitting the capability exposure information to a Network Slice Management Function, NSMF ; and receiving network sub-slice requirements from the NSMF ; wherein the network sub-slice requirements satisfy service instance requirements and the capability exposure information; and
A method of estimating bio-information, the method comprising: detecting , by a sensor part comprising a pulse wave sensor array , a pulse wave signal at each position of the contact surface, when an object contacts the contact surface of the sensor part ; detecting , by a load sensor , a first contact load applied by the object to the contact surface; storing, by a memory , a calibration model based on a reference pulse wave signal detected from a reference object; retrieving the calibration model from the memory ; calibrating the pulse wave signal detected by the pulse wave sensor array , based on the calibration model; obtaining a second contact load at each position of the contact surface based on the calibrated pulse wave signal and the first contact load; and estimating bio-information based on the second contact load and the calibrated pulse wave signal. detecting , by a sensor part comprising a pulse wave sensor array , a pulse wave signal at each position of the contact surface, when an object contacts the contact surface of the sensor part ; detecting , by a load sensor , a first contact load applied by the object to the contact surface; storing, by a memory , a calibration model based on a reference pulse wave signal detected from a reference object; retrieving the calibration model from the memory ; calibrating the pulse wave signal detected by the pulse wave sensor array , based on the calibration model; obtaining a second contact load at each position of the contact surface based on the calibrated pulse wave signal and the first contact load; and estimating bio-information based on the second contact load and the calibrated pulse wave signal.
A method of electronically limiting pressure and providing pressure sensitive overrides for a dual path machine , comprising the steps of: transmitting an input propel command from a propel device to a computer of an electronic control system ; transmitting signals from pressure sensors from a hydraulic system ; determining a modified propel command using a processor and software from the computer by scaling the input propel command based upon the largest pressure sensor signal received; adjusting an actuator on a pump based upon the modified propel command ; characterised in the method further comprising the step of determining whether the input propel command is a steering command or a speed command and adjusting response time of the hydraulic system based on the determination and wherein response time is decreased when the input propel command is determined to be a speed command . transmitting an input propel command from a propel device to a computer of an electronic control system ; transmitting signals from pressure sensors from a hydraulic system ; determining a modified propel command using a processor and software from the computer by scaling the input propel command based upon the largest pressure sensor signal received; adjusting an actuator on a pump based upon the modified propel command ; characterised in the method further comprising the step of determining whether the input propel command is a steering command or a speed command and adjusting response time of the hydraulic system based on the determination and wherein response time is decreased when the input propel command is determined to be a speed command .
A method of preparing a material in powdered form for additive manufacturing having a narrowed melting curve relative to the untreated material, the method comprising: heating a thermoplastic polymer under an inert atmosphere, starting at a specified temperature, thereby producing changes in at least one of melting temperature (Tm), recrystallization temperature (Trc) and melt enthalpy (ΔHm); wherein the treatment temperature T is not more than 30°C lower, not more than 20°C lower, or not more than 10°C lower than the melting temperature (Tm) of the untreated material; wherein the heat treatment time is at least one hour, optionally at least ten hours, possibly at least fifteen hours; and wherein the thermoplastic polymer or copolymer is selected from polyamide (PA), polyaryletherketone (PAEK), polyarylethersulfone (PAES), polyester, polyether, polyolefin, polyphenylenesulfide, polyvinylidenfluoride and polyphenylenoxid. heating a thermoplastic polymer under an inert atmosphere, starting at a specified temperature, thereby producing changes in at least one of melting temperature (Tm), recrystallization temperature (Trc) and melt enthalpy (ΔHm); wherein the treatment temperature T is not more than 30°C lower, not more than 20°C lower, or not more than 10°C lower than the melting temperature (Tm) of the untreated material; wherein the heat treatment time is at least one hour, optionally at least ten hours, possibly at least fifteen hours; and wherein the thermoplastic polymer or copolymer is selected from polyamide (PA), polyaryletherketone (PAEK), polyarylethersulfone (PAES), polyester, polyether, polyolefin, polyphenylenesulfide, polyvinylidenfluoride and polyphenylenoxid.
A crash box for a motor vehicle, the crash box comprising: a first crash pad having an outer skin defining a periphery of the first crash pad and a rib and web structure disposed within the outer skin and arranged to absorb crash energy, the first crash pad having a first arrangement; a second crash pad having an outer skin defining a periphery of the second crash pad and a rib and web structure disposed within the outer skin and arranged to absorb crash energy, the second crash pad having a second arrangement different than the first arrangement; wherein the first crash pad is stacked on top of the second crash pad . a first crash pad having an outer skin defining a periphery of the first crash pad and a rib and web structure disposed within the outer skin and arranged to absorb crash energy, the first crash pad having a first arrangement; a second crash pad having an outer skin defining a periphery of the second crash pad and a rib and web structure disposed within the outer skin and arranged to absorb crash energy, the second crash pad having a second arrangement different than the first arrangement; wherein the first crash pad is stacked on top of the second crash pad .
A use of a camera system at an identification counter for the identification of persons by way of portrait photographs, wherein the identification counter includes a working area, in which an inspecting person resides / can reside, wherein the identification counter includes a hand-over area, in which a person to be identified can hand over an identification document to the inspecting person at the identification counter , wherein the camera system has a housing , a camera module and a positioning device for adjusting a height position of the camera module , wherein the camera module includes at least one portrait camera , wherein a height position of the camera module is automatically adjustable with the aid of a positioning device in dependence of the body size of a person to be identified, wherein the housing supports the positioning device , wherein the camera module is at least partially arranged within the housing , wherein the housing is immovably fixable relative to the floor, wherein the camera system is not arranged on a sliding / hinged door or moving synchronously with it, wherein the camera system includes a facial recognition and/or is connected to a facial recognition, wherein the positioning device includes a guide rail extending in height direction, wherein the camera system is designed as a column, wherein the camera system is self-supporting and placeable.
A method of wireless communication performed by a user equipment, UE, comprising: determining a transmission power for an uplink shared channel communication based at least in part on a code rate parameter, a block length parameter, and a target block error rate parameter associated with the uplink shared channel communication; and transmitting the uplink shared channel communication using the transmission power based at least in part on determining the transmission power. determining a transmission power for an uplink shared channel communication based at least in part on a code rate parameter, a block length parameter, and a target block error rate parameter associated with the uplink shared channel communication; and transmitting the uplink shared channel communication using the transmission power based at least in part on determining the transmission power.
Height detection system of a motorcycle for determining a load-dependent height of a rear carrier part relative to a rear wheel swing arm of the motorcycle, comprising a measuring device connecting the rear carrier part and the rear wheel swing arm for measuring the distance between the rear carrier part and the rear wheel swing arm , characterized in that a fastening web is formed integrally on the rear carrier part and protrudes from the rear carrier part in the direction of the rear wheel swing arm and forms a lateral bearing face for the measuring device .
A system comprising: a cathode assembly, wherein the cathode assembly , comprises: at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises means for applying voltages to the width bias electrodes and to the length bias electrodes so that the electrons are focused during operation; characterized in that the first flat filament is sized to generate focal spots on a target within a first size range and the second flat filament is sized to generate focal spots on the target in a second size range that partially overlaps with the first size range. a cathode assembly, wherein the cathode assembly , comprises: at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises at least two flat filaments each comprising an electron emissive surface when heated, wherein a first flat filament has an electron emissive area that is less than an electron emissive area of a second flat filament; a set of width bias electrodes positioned along a first dimension of the flat filaments, wherein the set of width bias electrodes is configured to control the width of a focal spot generated by the flat filaments during operation; and a set of length bias electrodes positioned along a second dimension of the flat filaments, wherein the set of length bias electrodes is configured to control the length of the focal spot during operation; and the system further comprises means for applying voltages to the width bias electrodes and to the length bias electrodes so that the electrons are focused during operation; characterized in that the first flat filament is sized to generate focal spots on a target within a first size range and the second flat filament is sized to generate focal spots on the target in a second size range that partially overlaps with the first size range.
A method of assembling a floating offshore support structure , wherein the support structure comprising a plurality of interconnected tubes forming a rigid frame with vertices arranged as a polygon in a horizontal plane, and wherein the method comprises mounting a buoyancy module to the frame at each of the vertices , characterised in that the method comprises providing each of the vertices of the frame with a sleeve segment and inserting a connection member through the sleeve segment and securing the connection member to the sleeve segment by filling a portion of pourable casting material , optionally grout, into a void between the sleeve segment and the connection member and hardening the portion and securing a buoyancy module to each of the connection members .
Arrangement for fuel injection systems for connecting a fuel injection valve to a fuel-conducting component , wherein a holding part is provided which serves for mechanically fastening the component to a cylinder head, and wherein a connection part is provided to which the fuel injection valve can be hydraulically connected, wherein a connecting part is provided via which the connection part which can be connected to the fuel-conducting component can be connected to the holding part , and wherein the connecting part is configured as a one-piece formed part , characterized in that the connecting part is formed with a first portion and a second portion in such a way that the first portion, which is oriented along an axis of the holding part , of the connecting part enters into a first flat connection with the holding part , and a second flat connection is provided between the second portion of the connecting part and an upper side of the connection part , and the region is bent in the transition between the first and the second portion.
A method for power management of a server rack comprising a rack management controller, RMC, and a number of servers , the method comprising: collecting , by the RMC, power consumption data from a first baseboard management controller, BMC, of a first server in the server rack ; sending , by the RMC, the power consumption data to a management server ; receiving , by the RMC, power requirements from the management server ; determining , by the RMC, a power setting based on the power consumption data and the power requirements; requesting , by the RMC, the first BMC to limit power consumption of the first server according to the power setting; characterised by determining , by the first BMC , a type of server classification of the first server , the types of server classification including a compute node, a storage node and a switch node; and executing , by the first BMC , power consumption actions on the first server according to the type of server classification to limit the power consumption thereof. collecting , by the RMC, power consumption data from a first baseboard management controller, BMC, of a first server in the server rack ; sending , by the RMC, the power consumption data to a management server ; receiving , by the RMC, power requirements from the management server ; determining , by the RMC, a power setting based on the power consumption data and the power requirements; requesting , by the RMC, the first BMC to limit power consumption of the first server according to the power setting; characterised by determining , by the first BMC , a type of server classification of the first server , the types of server classification including a compute node, a storage node and a switch node; and executing , by the first BMC , power consumption actions on the first server according to the type of server classification to limit the power consumption thereof.
A method for displaying an image on a multi-display device including two or more displays , the method comprising: determining (S207) whether the image includes a boundary area image to be displayed over a boundary area between a first display and a second display adjacent to the first display; determining (S211) whether the boundary area image needs to be modified based on an amount of change of image data in the boundary area image when the image includes the boundary area image; and inserting dummy data into the image so that the image has an increased size and the dummy data is displayed on a position corresponding to the boundary area, when the boundary area image needs to be modified, wherein the amount of change of image data is an amount of change of chroma of the image data or of a change of a frequency for color of the image data. determining (S207) whether the image includes a boundary area image to be displayed over a boundary area between a first display and a second display adjacent to the first display; determining (S211) whether the boundary area image needs to be modified based on an amount of change of image data in the boundary area image when the image includes the boundary area image; and inserting dummy data into the image so that the image has an increased size and the dummy data is displayed on a position corresponding to the boundary area, when the boundary area image needs to be modified, wherein the amount of change of image data is an amount of change of chroma of the image data or of a change of a frequency for color of the image data.
A system (1a; 1b; 1c; 1d; 1e) for preparing foodstuffs , comprising a housing for receiving the foodstuffs , a detection device for detecting at least one food carrier which can be coupled to the system (1a; 1b; 1c; 1d; 1e), the weight of the food carrier being detectable by the detecting means , and determining means for determining the tare weight of the foodstuffs based on the detected weight of the food carrier .