mhurhangee/ep-ind-claims huggingface dataset:
A battery, comprising: a battery cell, comprising: a pressure relief mechanism configured to be capable of being actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; an adhesive; an attachment component adapted to be attached to the battery cell by the adhesive, wherein the attachment component comprises a thermal management component or a support component; and an isolation component configured to be capable of preventing the adhesive from being applied between the attachment component and the pressure relief mechanism; wherein the pressure relief mechanism has an actuation region, and the pressure relief mechanism is configured, when the internal pressure or temperature of the battery cell reaches the threshold, to be capable of forming a relief channel for relieving the internal pressure in the actuation region; wherein the isolation component is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region; wherein the isolation component has a main body and a protrusion arranged protruding from a surface of the main body, the protrusion is arranged to correspond to a position of the actuation region of the pressure relief mechanism, and the protrusion is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region. a battery cell, comprising: a pressure relief mechanism configured to be capable of being actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; an adhesive; an attachment component adapted to be attached to the battery cell by the adhesive, wherein the attachment component comprises a thermal management component or a support component; and an isolation component configured to be capable of preventing the adhesive from being applied between the attachment component and the pressure relief mechanism; wherein the pressure relief mechanism has an actuation region, and the pressure relief mechanism is configured, when the internal pressure or temperature of the battery cell reaches the threshold, to be capable of forming a relief channel for relieving the internal pressure in the actuation region; wherein the isolation component is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region; wherein the isolation component has a main body and a protrusion arranged protruding from a surface of the main body, the protrusion is arranged to correspond to a position of the actuation region of the pressure relief mechanism, and the protrusion is configured to at least surround the actuation region to prevent the adhesive from entering the actuation region.
Device for blowing a gaseous fluid on a planar surface (Sp) for its heating or its cooling, comprising: • a box constituting a source volume of said pressurised gaseous fluid, said box comprising a front face comprising at least one planar face portion, this planar face portion being capable of being positioned facing said planar surface (Sp), such that this planar face portion is substantially parallel to the planar surface (Sp) and directly facing it, • at least one hollow tube comprising a proximal end, a distal end, an inlet opening located at the proximal end and defining an inlet opening axis and an outlet opening located at the distal end and defining an outlet opening axis, and • means for fixing said proximal end of the hollow tube to said planar face portion, to connect the source volume to the inside of said hollow tube via an orifice made in the planar face portion, characterised in that: • said hollow tube comprises at least one curved portion, such that the two respectively inlet opening and outlet opening axes make between them, a non-zero angle (α), and that • the means for fixing said proximal end to said planar face portion are arranged, such that the inlet opening axis is substantially perpendicular to said planar face portion. • a box constituting a source volume of said pressurised gaseous fluid, said box comprising a front face comprising at least one planar face portion, this planar face portion being capable of being positioned facing said planar surface (Sp), such that this planar face portion is substantially parallel to the planar surface (Sp) and directly facing it, • at least one hollow tube comprising a proximal end, a distal end, an inlet opening located at the proximal end and defining an inlet opening axis and an outlet opening located at the distal end and defining an outlet opening axis, and • means for fixing said proximal end of the hollow tube to said planar face portion, to connect the source volume to the inside of said hollow tube via an orifice made in the planar face portion, • said hollow tube comprises at least one curved portion, such that the two respectively inlet opening and outlet opening axes make between them, a non-zero angle (α), and that • the means for fixing said proximal end to said planar face portion are arranged, such that the inlet opening axis is substantially perpendicular to said planar face portion.
A honeycomb filter, comprising: a plurality of porous partition portions disposed between a large cell and another large cell and between a large cell and a small cell, the small cell being open at one end and closed at the other end and serving as a flow path of a fluid, the large cells being closed at one end and open at the other end and having a larger opening area than the small cell, the partition portions being formed such that the large cells and the small cells are alternately disposed; and a trapping layer for trapping and removing solid components contained in the fluid, the trapping layer being disposed on each of the partition portions and containing particle groups having an average particle size smaller than the average pore size of a corresponding one of the partition portions, wherein the thickness of a trapping layer disposed on a partition portion between a large cell and another large cell is 60% or more and 95% or less of the thickness of a trapping layer disposed on a partition portion between a large cell and a small cell, and the partition thickness ratio of the thickness of a partition portion between a large cell and another large cell to the thickness of a partition portion between a large cell and a small cell is 1.0 or more and 1.8 or less. a plurality of porous partition portions disposed between a large cell and another large cell and between a large cell and a small cell, the small cell being open at one end and closed at the other end and serving as a flow path of a fluid, the large cells being closed at one end and open at the other end and having a larger opening area than the small cell, the partition portions being formed such that the large cells and the small cells are alternately disposed; and a trapping layer for trapping and removing solid components contained in the fluid, the trapping layer being disposed on each of the partition portions and containing particle groups having an average particle size smaller than the average pore size of a corresponding one of the partition portions,
Device for identifying characteristics of an empty container with at least one flat supporting element, on which the empty container can be placed with a lateral surface of the same against a contact surface of the supporting element, with a carrier for carrying the empty container and with at least one optical sensor for optically scanning the empty container, wherein the carrier is formed by the at least one supporting element, and wherein the at least one supporting element is mounted rotatably about a substantially horizontal drive shaft in such a way that the empty container (2, 17) can be brought from an input position, in which the empty container (2, 17) can be laid onto the at least one supporting element, to a different location on the supporting element, and after the scanning can be transferred to a downstream functional module (23, 24, 25, 26, 27), characterized in that the empty container (2, 17) is guided such that it can be rolled with the lateral surface on the supporting element and can be scanned by means of a preferably fixed optical sensor (5, 15) while being rotated about its longitudinal axis, the rotation of the empty container about its longitudinal axis taking place solely as a result of the rotational movement of the supporting element about the drive shaft, in that, to increase the throughput, the supporting element has at least two structurally identical supporting arms (7.1, 7.2, 7.3), arranged angularly offset about the drive shaft, the supporting arms (7.1, 7.2, 7.3) protruding radially from the drive shaft and a supporting angle (γ) of less than or equal to 180° being included between neighbouring supporting arms (7.1, 7.2, 7.3), and in that the dimensions of the supporting arms (7.1, 7.2, 7.3) of the supporting element are chosen in such a way that the empty container (2, 17) can be scanned over its full circumference while rolling on the contact surface of the supporting element.
Elevator comprising - an elevator motor - a motor drive for the elevator motor having a frequency converter comprising a rectifier bridge, an inverter bridge and a DC link in between, which frequency converter is controlled via a controller, the rectifier bridge being connected to AC mains via three feed lines (38a-c) comprising chokes (44a,b), and the rectifier bridge being realised via controllable semiconductor switches (17a-f), - a contactor being located between the feed lines (38a-c) and AC mains, - a backup power supply at least for emergency drive operation, - an emergency control associated with the motor drive, which emergency control is configured to perform an automatic emergency drive, characterized in that the emergency control is connected to a manual drive circuit having a manual drive switch for a manual rescue drive, - the elevator comprises a motion sensor connected to the emergency control, and - the emergency control is configured to activate a brake and/or gripping device of the elevator in case the detected car speed exceeds a predetermined threshold value. - an elevator motor - a motor drive for the elevator motor having a frequency converter comprising a rectifier bridge, an inverter bridge and a DC link in between, which frequency converter is controlled via a controller, the rectifier bridge being connected to AC mains via three feed lines (38a-c) comprising chokes (44a,b), and the rectifier bridge being realised via controllable semiconductor switches (17a-f), - a contactor being located between the feed lines (38a-c) and AC mains, - a backup power supply at least for emergency drive operation, - an emergency control associated with the motor drive, which emergency control is configured to perform an automatic emergency drive, - the elevator comprises a motion sensor connected to the emergency control, and - the emergency control is configured to activate a brake and/or gripping device of the elevator in case the detected car speed exceeds a predetermined threshold value.
A system for securing a printing form, comprising: a rotatable drum; a first set of pins that are coupled to a surface of the drum; a second set of pins that are disposed on a member that rotatably extends over a portion of the drum surface and is mounted so that the member can rotate with the drum; and a bar that is positioned over a portion of the rotatable drum and is adapted to be moveable from a nonstamping position to a first stamping position wherein the bar stamps a first portion of the printing form onto the first set of pins, and to a second stamping position wherein the bar stamps a second portion of the printing form onto the second set of pins, and back to the nonstamping position. a rotatable drum; a first set of pins that are coupled to a surface of the drum; a second set of pins that are disposed on a member that rotatably extends over a portion of the drum surface and is mounted so that the member can rotate with the drum; and a bar that is positioned over a portion of the rotatable drum and is adapted to be moveable from a nonstamping position to a first stamping position wherein the bar stamps a first portion of the printing form onto the first set of pins, and to a second stamping position wherein the bar stamps a second portion of the printing form onto the second set of pins, and back to the nonstamping position.
A joining apparatus comprising: a metal-working die including a central anvil extending in a longitudinal direction and a die body enlarged in a lateral direction; multiple die blades located adjacent to lateral surfaces of the anvil and operably moveable relative to the anvil; a die guard comprising a shield section and a retainer section integrally being a single part, the shield section including a through-bore and the retainer section including a through-bore; the anvil being removeably located within the through-bore of the shield section such that the die blades are positioned between the anvil and an internal surface of the shield section; a fastener removeably located in the through-bore of the retainer section; and a metal workpiece-facing surface of the die guard being substantially of a uniform height at both of the shield and retainer sections (71, 73). a metal-working die including a central anvil extending in a longitudinal direction and a die body enlarged in a lateral direction; multiple die blades located adjacent to lateral surfaces of the anvil and operably moveable relative to the anvil; a die guard comprising a shield section and a retainer section integrally being a single part, the shield section including a through-bore and the retainer section including a through-bore; the anvil being removeably located within the through-bore of the shield section such that the die blades are positioned between the anvil and an internal surface of the shield section; a fastener removeably located in the through-bore of the retainer section; and a metal workpiece-facing surface of the die guard being substantially of a uniform height at both of the shield and retainer sections (71, 73).
A method for performing a security service on virtual machines (VMs) (110a-d) executing on a host computer, the method comprising: assigning a first VM along with a second VM to a first security container so that a first set of network connectivity settings, associated with the first security container, is applied to the first and second VMs (110d, 110c); based on the assignment of the first VM to the first security container, operating a security service on the first VM that identifies a security threat associated with the first VM; based on the identification of the security threat, re-assigning the first VM to a second security container to which VMs executing on the host computer are assigned when the security threat is associated with the VMs, wherein a second set of network connectivity settings, associated with the second security container, is applied to the first VM after the first VM is assigned to the second security container; and after resolution of the security threat, assigning the first VM back to the first security container so that the first set of network connectivity settings is again applied to the first VM. assigning a first VM along with a second VM to a first security container so that a first set of network connectivity settings, associated with the first security container, is applied to the first and second VMs (110d, 110c); based on the assignment of the first VM to the first security container, operating a security service on the first VM that identifies a security threat associated with the first VM; based on the identification of the security threat, re-assigning the first VM to a second security container to which VMs executing on the host computer are assigned when the security threat is associated with the VMs, wherein a second set of network connectivity settings, associated with the second security container, is applied to the first VM after the first VM is assigned to the second security container; and after resolution of the security threat, assigning the first VM back to the first security container so that the first set of network connectivity settings is again applied to the first VM.
An application management method, characterized in that the method comprises: acquiring, by a terminal, a list of applications needing to retain background data in the terminal; and when it is determined that a first application running in the terminal is not in the list of the applications needing to retain the background data, suspending, by the terminal, a first timer corresponding to the first application running, wherein the background data is data generated during data interaction between an application and a server end when the application is running on a background of the terminal, and the first timer is configured to, when a preset timed point of time arrives, trigger the first application to synchronize, through the data interaction, background data of the first application with data generated by the server end. acquiring, by a terminal, a list of applications needing to retain background data in the terminal; and when it is determined that a first application running in the terminal is not in the list of the applications needing to retain the background data, suspending, by the terminal, a first timer corresponding to the first application running, wherein the background data is data generated during data interaction between an application and a server end when the application is running on a background of the terminal, and the first timer is configured to, when a preset timed point of time arrives, trigger the first application to synchronize, through the data interaction, background data of the first application with data generated by the server end.
A method of making an hydrocarbyloxydisilane, the method comprising: causing the reaction of i) an hydrocarbylaminodisilane of formula (R 1 a 2-a N) b Si 3-b Si 3-c (N 2-a R 1 a) c where each a independently is 1 or 2, b is 1 to 3, c is 0 to 3, and each R 1 is independently is (C 1 -C 10)hydrocarbyl, and ii) an alcohol according to formula R 2 OH; where R 2 is hydrocarbyl having from 1 to 10 carbon atoms, to form a product mixture comprising the hydrocarbyloxydisilane, wherein the hydrocarbyloxydisilane has the formula Si 2 (OR 3) y H 6-y; where y is 1-5 and R 3 is hydrocarbyl having from 1 to 10 carbon atoms. causing the reaction of i) an hydrocarbylaminodisilane of formula (R 1 a 2-a N) b Si 3-b Si 3-c (N 2-a R 1 a) c where each a independently is 1 or 2, b is 1 to 3, c is 0 to 3, and each R 1 is independently is (C 1 -C 10)hydrocarbyl, and ii) an alcohol according to formula R 2 OH; i) an hydrocarbylaminodisilane of formula (R 1 a 2-a N) b Si 3-b Si 3-c (N 2-a R 1 a) c where each a independently is 1 or 2, b is 1 to 3, c is 0 to 3, and each R 1 is independently is (C 1 -C 10)hydrocarbyl, and ii) an alcohol according to formula R 2 OH; where R 2 is hydrocarbyl having from 1 to 10 carbon atoms, to form a product mixture comprising the hydrocarbyloxydisilane, wherein the hydrocarbyloxydisilane has the formula Si 2 (OR 3) y H 6-y; where y is 1-5 and R 3 is hydrocarbyl having from 1 to 10 carbon atoms.
Condensate discharge device, at least comprising a condensate duct casing with an internal duct, a holder which can be inserted into the duct, at least one electrical heating element which can be fixed to the holder and a connecting element for fixing the condensate duct casing to a condensate collecting tray.
A turbomachine casing assembly (100;200), comprising: a first casing element (110;210) located radially outward of one or more rotating aerofoil elements of a turbomachine, and having a first end (112;212); a second casing element located radially distal to the first casing element (110;210); characterised in that the turbomachine casing assembly further comprises an arcuate fence element (160;260), provided between a radially proximal face (114;214) of the first casing element (110;210) and a radially proximal face of the second casing element, at the first end (112;212) of the first casing element (110;210), the fence element (160;260) having a first end (162;262) and a second end (164;264), the fence element (160;260) comprising a frangible spigot (170;270) which abuts against a first end of the second casing element; and whereby upon impact by one of the rotating aerofoil elements against the first casing element, the first casing element (110;210) urges the first end (162;262) of the fence element (160;260) in a radially outward direction causing the fence element (160;260) to rotate, the frangible spigot (170;270) to detach from the fence element (160;260), and the second end(164;264) of the fence element (160;260) to project radially inwards of the radially proximal face (114;214) of the first casing element (110;210). a first casing element (110;210) located radially outward of one or more rotating aerofoil elements of a turbomachine, and having a first end (112;212); a second casing element located radially distal to the first casing element (110;210); characterised in that the turbomachine casing assembly further comprises an arcuate fence element (160;260), provided between a radially proximal face (114;214) of the first casing element (110;210) and a radially proximal face of the second casing element, at the first end (112;212) of the first casing element (110;210), the fence element (160;260) having a first end (162;262) and a second end (164;264), the fence element (160;260) comprising a frangible spigot (170;270) which abuts against a first end of the second casing element; and whereby upon impact by one of the rotating aerofoil elements against the first casing element, the first casing element (110;210) urges the first end (162;262) of the fence element (160;260) in a radially outward direction causing the fence element (160;260) to rotate, the frangible spigot (170;270) to detach from the fence element (160;260), and the second end(164;264) of the fence element (160;260) to project radially inwards of the radially proximal face (114;214) of the first casing element (110;210).
A method of performing discontinuous reception, DRX, or discontinuous transmission, DTX, for a multi-cell operation, the method comprising: a user equipment, UE, configuring at least one state variable for controlling DRX or DTX on a plurality of cells; the UE performing a DRX or DTX operation on a subset of cells of the plurality of cells, wherein subsets of cells are groups of a plurality of groups, based on a state variable associated with the subset of cells; the UE receiving an order for DRX or DTX activation or deactivation; and the UE activating or deactivating DRX or DTX based on the order, wherein the order is applied to a group of cells of the plurality of groups. a user equipment, UE, configuring at least one state variable for controlling DRX or DTX on a plurality of cells; the UE performing a DRX or DTX operation on a subset of cells of the plurality of cells, wherein subsets of cells are groups of a plurality of groups, based on a state variable associated with the subset of cells; the UE receiving an order for DRX or DTX activation or deactivation; and the UE activating or deactivating DRX or DTX based on the order, wherein the order is applied to a group of cells of the plurality of groups.