mhurhangee/ep-ind-claims huggingface dataset:
A laser device comprising: a vacuum container including a wall portion (13, 14, 15, 16); a laser medium disposed inside the vacuum container; a cooler (30A, 30B) disposed outside the vacuum container; a heat conductor (50A, 50B) penetrating the wall portion (13, 14, 15, 16) in a predetermined direction and connected to the laser medium and the cooler (30A, 30B); a support portion supporting the vacuum container and the cooler (30A, 30B); and characterized by a vibration canceler (80A, 80B) disposed between the support portion and the cooler (30A, 30B) and configured to cancel vibration in the direction, wherein the heat conductor (50A, 50B) penetrates the wall portion (13, 14, 15, 16) such that the heat conductor (50A, 50B) is able to move in the direction with respect to the wall portion (13, 14, 15, 16), and wherein the support portion supports the vacuum container and the cooler (30A, 30B) such that the cooler (30A, 30B) is able to move in the direction with respect to the vacuum container. a vacuum container including a wall portion (13, 14, 15, 16); a laser medium disposed inside the vacuum container; a cooler (30A, 30B) disposed outside the vacuum container; a heat conductor (50A, 50B) penetrating the wall portion (13, 14, 15, 16) in a predetermined direction and connected to the laser medium and the cooler (30A, 30B); a support portion supporting the vacuum container and the cooler (30A, 30B); and characterized by a vibration canceler (80A, 80B) disposed between the support portion and the cooler (30A, 30B) and configured to cancel vibration in the direction, wherein the heat conductor (50A, 50B) penetrates the wall portion (13, 14, 15, 16) such that the heat conductor (50A, 50B) is able to move in the direction with respect to the wall portion (13, 14, 15, 16), and wherein the support portion supports the vacuum container and the cooler (30A, 30B) such that the cooler (30A, 30B) is able to move in the direction with respect to the vacuum container.
A patient interface for providing ventilation to an individual, the patient interface comprising: a manifold housing defining at least one gas pathway; at least one jet pump assembly coupled to the manifold housing and comprising: a jet pump housing defining at least one entrainment port in fluid communication with ambient air; a jet nozzle cooperatively engaged to the jet pump housing, the jet nozzle defining jet nozzle outlet ports at least a first jet nozzle outlet port being operative to facilitate air entrainment through the entrainment port and mixing of the entrained air with gas concurrently introduced into the gas pathway from the jet nozzle outlet ports; and at least one sensing tube extending into fluid communication with the gas pathway, characterized in that the first jet nozzle outlet port is a high-pressure jet nozzle outlet port and the jet nozzle further defines a low-pressure jet nozzle outlet port, the high-pressure jet nozzle outlet port and the low-pressure jet nozzle outlet port disposed in side-by-side relation to each other, with the low-pressure jet nozzle outlet port disposed in closer proximity to the entrainment port in comparison to the high-pressure jet nozzle outlet port. a manifold housing defining at least one gas pathway; at least one jet pump assembly coupled to the manifold housing and comprising: a jet pump housing defining at least one entrainment port in fluid communication with ambient air; a jet nozzle cooperatively engaged to the jet pump housing, the jet nozzle defining jet nozzle outlet ports at least a first jet nozzle outlet port being operative to facilitate air entrainment through the entrainment port and mixing of the entrained air with gas concurrently introduced into the gas pathway from the jet nozzle outlet ports; and a jet pump housing defining at least one entrainment port in fluid communication with ambient air; a jet nozzle cooperatively engaged to the jet pump housing, the jet nozzle defining jet nozzle outlet ports at least a first jet nozzle outlet port being operative to facilitate air entrainment through the entrainment port and mixing of the entrained air with gas concurrently introduced into the gas pathway from the jet nozzle outlet ports; and at least one sensing tube extending into fluid communication with the gas pathway, characterized in that the first jet nozzle outlet port is a high-pressure jet nozzle outlet port and the jet nozzle further defines a low-pressure jet nozzle outlet port, the high-pressure jet nozzle outlet port and the low-pressure jet nozzle outlet port disposed in side-by-side relation to each other, with the low-pressure jet nozzle outlet port disposed in closer proximity to the entrainment port in comparison to the high-pressure jet nozzle outlet port.
A measurement method for measuring a mass parameter of a workpiece being measured, the method comprising: determining a measured mass parameter of the workpiece being measured based on radiation intensity of rays that have passed through the workpiece being measured; characterized in that the method further comprises: correcting the measured mass parameter using a displacement curve function of the workpiece being measured in a measurement environment, to obtain a corrected mass parameter of the workpiece being measured, wherein the displacement curve function is used to characterize influence of environmental factors on radiation in the measurement environment. determining a measured mass parameter of the workpiece being measured based on radiation intensity of rays that have passed through the workpiece being measured; characterized in that the method further comprises: correcting the measured mass parameter using a displacement curve function of the workpiece being measured in a measurement environment, to obtain a corrected mass parameter of the workpiece being measured, wherein the displacement curve function is used to characterize influence of environmental factors on radiation in the measurement environment.
Coating process for applying a multicoloured coating to a substrate, more particularly to a bodywork part of a motor vehicle, comprising the steps of applying a first pigmented coating material to the substrate, drying and/or curing the first pigmented coating material at a drying and/or curing temperature, applying a second pigmented coating material to the substrate, with partial recoating of the first pigmented coating material, and subsequently applying a clearcoat material to the substrate, where the second pigmented coating material is applied using a laminate which comprises a carrier bearing a layer of the second pigmented coating material, this layer being already cured. applying a first pigmented coating material to the substrate, drying and/or curing the first pigmented coating material at a drying and/or curing temperature, applying a second pigmented coating material to the substrate, with partial recoating of the first pigmented coating material, and subsequently applying a clearcoat material to the substrate,
An integrated circuit adapted to control a process for receiving, from a mobile station apparatus, a reference signal transmitted with a transmission bandwidth in a given system bandwidth where control channels are mapped to both ends thereof and the transmission bandwidth is in between the control channels or receiving, from the mobile station apparatus, reference signals transmitted with a narrow bandwidth with frequency hopping, the process comprising: setting a mapping of the reference signals to frequency resources; transmitting, to the mobile station apparatus, control information related to the mapping of the reference signals; and receiving the reference signals, which are mapped to frequency resources based on the control information and which are transmitted from the mobile station apparatus, characterized in that the transmission bandwidth varies in the given system bandwidth, and the mapping of the reference signals is set such that the reference signals are mapped to frequency resources, each of which has the narrow bandwidth that is fixed regardless of variations of the transmission bandwidth, the frequency resources being uniformly dispersed in a frequency band of the transmission bandwidth in accordance with the variation of the transmission bandwidth. setting a mapping of the reference signals to frequency resources; transmitting, to the mobile station apparatus, control information related to the mapping of the reference signals; and receiving the reference signals, which are mapped to frequency resources based on the control information and which are transmitted from the mobile station apparatus, characterized in that the transmission bandwidth varies in the given system bandwidth, and the mapping of the reference signals is set such that the reference signals are mapped to frequency resources, each of which has the narrow bandwidth that is fixed regardless of variations of the transmission bandwidth, the frequency resources being uniformly dispersed in a frequency band of the transmission bandwidth in accordance with the variation of the transmission bandwidth.
A method for use in generating at least one route traversing a plurality of predetermined survey paths in a marine survey, including: accessing survey input data representing coordinates of said plurality of predetermined survey paths in said marine survey and predetermined constraints associated with said marine survey; generating a plurality of routes traversing at least a subset of said predetermined survey paths, said routes satisfying said predetermined constraints; generating respective penalties for said routes; selecting at least one of said routes on the basis of said penalties; and outputting or displaying survey route data representing the selected at least one of said routes. accessing survey input data representing coordinates of said plurality of predetermined survey paths in said marine survey and predetermined constraints associated with said marine survey; generating a plurality of routes traversing at least a subset of said predetermined survey paths, said routes satisfying said predetermined constraints; generating respective penalties for said routes; selecting at least one of said routes on the basis of said penalties; and outputting or displaying survey route data representing the selected at least one of said routes.
Method for detecting the passing between a transmitter module and a detecting module comprising: determining phase information from one or more signals transmitted by said transmitter module as received by a loop antenna of said detecting module; detecting at least one phase transition, wherein the phase transition is a discontinuous phase transition, in said phase information, said phase transition being associated with a transition from at least a first phase value to a second phase value; associating said at least one phase transition with said passing. determining phase information from one or more signals transmitted by said transmitter module as received by a loop antenna of said detecting module; detecting at least one phase transition, wherein the phase transition is a discontinuous phase transition, in said phase information, said phase transition being associated with a transition from at least a first phase value to a second phase value; associating said at least one phase transition with said passing.
A roller bearing arrangement (100, 200, 300, 400, 500, 600) for a gas turbine engine, the roller bearing arrangement comprising: a fan shaft, the fan shaft defining an axis of rotation; a stub shaft, the stub shaft being connected to the fan shaft and extending radially away therefrom so as to create a first axial bearing surface on a radially outer surface of the stub shaft, the first axial bearing surface being parallel with the axis of rotation and at a greater radial distance from the axis of rotation than a radially outer surface of the fan shaft; a static structure, the static structure having a second axial bearing surface parallel with and opposite to the first axial bearing surface; a plurality of roller bearing elements positioned between the first axial bearing surface and the second axial bearing surface; and characterized in having: a first snubber (140, 240, 340, 440, 540, 640) positioned between the radially outer surface of the fan shaft and a radially inner surface of the stub shaft, the first snubber (140, 240, 340, 440, 540, 640) being spaced apart from the radially inner surface of the stub shaft or the radially outer surface of the fan shaft so as to limit a radial movement range of the stub shaft. a fan shaft, the fan shaft defining an axis of rotation; a stub shaft, the stub shaft being connected to the fan shaft and extending radially away therefrom so as to create a first axial bearing surface on a radially outer surface of the stub shaft, the first axial bearing surface being parallel with the axis of rotation and at a greater radial distance from the axis of rotation than a radially outer surface of the fan shaft; a static structure, the static structure having a second axial bearing surface parallel with and opposite to the first axial bearing surface; a plurality of roller bearing elements positioned between the first axial bearing surface and the second axial bearing surface; and characterized in having: a first snubber (140, 240, 340, 440, 540, 640) positioned between the radially outer surface of the fan shaft and a radially inner surface of the stub shaft, the first snubber (140, 240, 340, 440, 540, 640) being spaced apart from the radially inner surface of the stub shaft or the radially outer surface of the fan shaft so as to limit a radial movement range of the stub shaft.
A system comprising an electronic device intended to be inserted into a pipe up to a final position, the device being further configured to be arranged, prior to said insertion into said final position, in a sleeve assembled to the pipe and through a duct of the sleeve opening out onto a wall of the pipe, the device comprising: • a body provided with a threaded portion intended to cooperate with a threaded portion of the duct of the sleeve to move the electronic device by screwing up to its final position, • a punch configured to form a through hole in the pipe during said screwing and allow the insertion of the electronic device into the pipe up to its final position, • an electronic module (6, 60) disposed between the punch and said body and intended to be in contact with a fluid passing through the pipe in said final position, • at least one electrical connection connected to the electronic module and passing through said body opening out onto an upper face of the body located opposite said electronic module and said punch relative to said body, the body and said at least one electrical connection forming a plug of the duct of the sleeve characterized in that the system further includes said sleeve comprising the duct in which the device is arranged, the duct comprising the threaded portion cooperating with the threaded portion of the body of the device. • a body provided with a threaded portion intended to cooperate with a threaded portion of the duct of the sleeve to move the electronic device by screwing up to its final position, • a punch configured to form a through hole in the pipe during said screwing and allow the insertion of the electronic device into the pipe up to its final position, • an electronic module (6, 60) disposed between the punch and said body and intended to be in contact with a fluid passing through the pipe in said final position, • at least one electrical connection connected to the electronic module and passing through said body opening out onto an upper face of the body located opposite said electronic module and said punch relative to said body,
Method for thermally treating a lithium battery selected from among Lithium-Metal-Polymer and Lithium-ion Polymer batteries, said battery comprising at least one positive electrode, at least one polymer electrolyte and at least one negative electrode, said method being characterized in that it comprises: 1) at least one first step to bring said battery to a temperature T1 of at least 50 °C; 2) at least one second step at which said battery is held at temperature T1 whilst applying a pressure of at least 0.5 bar, step 2) lasting a time of 5 hours to 1 week, said step 2) being carried out while the battery is powered and potentiostatically held at a voltage corresponding to the initial charge state of the battery after assembly thereof to within 10 %; said steps 1) and 2) being conducted before the first charging of said battery. 1) at least one first step to bring said battery to a temperature T1 of at least 50 °C; 2) at least one second step at which said battery is held at temperature T1 whilst applying a pressure of at least 0.5 bar, step 2) lasting a time of 5 hours to 1 week, said step 2) being carried out while the battery is powered and potentiostatically held at a voltage corresponding to the initial charge state of the battery after assembly thereof to within 10 %;
A method for cyberattack identification in a network environment, the method being performed by a security analytics module, the method comprising: obtaining logged events, the events having occurred and being logged in the network environment, wherein each logged event is associated with a cyber security deviation score and cyber security deviation statistics; matching each logged event to a cyberattack lifecycle phase by comparing characteristics of each logged event, as given by the cyber security deviation statistics, to known cyberattack lifecycle phases; linking together the logged events by forming at least one chain of the logged events where each vertex represents one logged event and where each edge represents a probability value, wherein each chain corresponds to one type of cyberattack as given by combinations of the known cyberattack lifecycle phases, wherein the cyber security deviation scores and cyber security deviation statistics are updated based on how the logged events are linked together; and determining, based on how the logged events are linked together and the cyber security deviation scores and the cyber security deviation statistics are updated, whether the logged events are benign or part of a cyberattack. obtaining logged events, the events having occurred and being logged in the network environment, wherein each logged event is associated with a cyber security deviation score and cyber security deviation statistics; matching each logged event to a cyberattack lifecycle phase by comparing characteristics of each logged event, as given by the cyber security deviation statistics, to known cyberattack lifecycle phases; linking together the logged events by forming at least one chain of the logged events where each vertex represents one logged event and where each edge represents a probability value, wherein each chain corresponds to one type of cyberattack as given by combinations of the known cyberattack lifecycle phases, wherein the cyber security deviation scores and cyber security deviation statistics are updated based on how the logged events are linked together; and determining, based on how the logged events are linked together and the cyber security deviation scores and the cyber security deviation statistics are updated, whether the logged events are benign or part of a cyberattack.
A method performed by a user equipment, comprising: associating each one of logical channels in a wireless communication system with one or more corresponding numerologies from a plurality of numerologies, each numerology of the plurality of numerologies being associated with a respective subcarrier spacing for transmission; characterized by: receiving an uplink resource grant specifying transmission resources associated with an uplink transmission numerology; multiplexing data units of a subset of the logical channels into a transport block corresponding to the uplink resource grant, the subset of the logical channels each having an associated numerology that is the same as the uplink transmission numerology; and transmitting the transport block based on the transmission resources specified by the uplink resource grant. associating each one of logical channels in a wireless communication system with one or more corresponding numerologies from a plurality of numerologies, each numerology of the plurality of numerologies being associated with a respective subcarrier spacing for transmission; characterized by: receiving an uplink resource grant specifying transmission resources associated with an uplink transmission numerology; multiplexing data units of a subset of the logical channels into a transport block corresponding to the uplink resource grant, the subset of the logical channels each having an associated numerology that is the same as the uplink transmission numerology; and transmitting the transport block based on the transmission resources specified by the uplink resource grant. receiving an uplink resource grant specifying transmission resources associated with an uplink transmission numerology; multiplexing data units of a subset of the logical channels into a transport block corresponding to the uplink resource grant, the subset of the logical channels each having an associated numerology that is the same as the uplink transmission numerology; and transmitting the transport block based on the transmission resources specified by the uplink resource grant.
A mold casted sheet material comprising a reaction product of components comprising: (a) polyisocyanate compound comprising at least two isocyanate functional groups; (b) polyol; (c) curative comprising at least two amine functional groups; (d) acrylic monomer; and (e) multifunctional monomer comprising a first functional group comprising an active hydrogen and a second functional group comprising at least one double bond, wherein the multifunctional monomer and the acrylic monomer are different monomers, wherein, optionally, the content of any component, other than components (a)-(e) is less than 1 percent by weight of the reaction product when present therein, and wherein optionally at least a portion of the polyisocyanate compound and at least a portion of the polyol are present in the form of pre-reacted urethane prepolymer, and wherein the pre-reacted urethane prepolymer comprises the at least two isocyanate functional groups. (a) polyisocyanate compound comprising at least two isocyanate functional groups; (b) polyol; (c) curative comprising at least two amine functional groups; (d) acrylic monomer; and (e) multifunctional monomer comprising a first functional group comprising an active hydrogen and a second functional group comprising at least one double bond, wherein the multifunctional monomer and the acrylic monomer are different monomers, wherein, optionally, the content of any component, other than components (a)-(e) is less than 1 percent by weight of the reaction product when present therein, and wherein optionally at least a portion of the polyisocyanate compound and at least a portion of the polyol are present in the form of pre-reacted urethane prepolymer, and wherein the pre-reacted urethane prepolymer comprises the at least two isocyanate functional groups.