mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a plurality of battery cells ; and a module case accommodating the plurality of battery cells , wherein the module case includes: an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells , each having a channel (F) in which a coolant (W1) flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells , and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate , the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material. a plurality of battery cells ; and a module case accommodating the plurality of battery cells , wherein the module case includes: an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells , each having a channel (F) in which a coolant (W1) flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells , and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate , the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material. an upper plate positioned on the plurality of battery cells and a lower plate positioned below the plurality of battery cells , each having a channel (F) in which a coolant (W1) flows, characterized in that the upper plate and the lower plate include a melting spot which melts when heated in a first plate in contact with the plurality of battery cells , and in that the upper plate includes a vent hole and a first sealing cap in a second plate which faces the first plate , the vent hole through which gas is forced out, and the first sealing cap configured to seal the vent hole and made of a thermomeltable material.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, message including information on a plurality of scheduling request, SR, configurations; receiving, from the base station, downlink control information, DCI, including an index associated with an SR configuration; and transmitting, to the base station, an SR based on the SR configuration among the SR configurations. receiving, from a base station, a radio resource control, RRC, message including information on a plurality of scheduling request, SR, configurations; receiving, from the base station, downlink control information, DCI, including an index associated with an SR configuration; and transmitting, to the base station, an SR based on the SR configuration among the SR configurations.
Electronic control device for a bicycle, comprising: - a support body configured for attachment to the bicycle handlebars, - a push-operated switch , - a manual actuation member actuatable for switching the switch in order to issue a command, and - a de-coupling mechanism operatively interposed between the manual actuation member and the switch and effective to de-couple the manual actuation member from the switch during a first portion of the actuation stroke of the manual actuation member , characterized in that the de-coupling mechanism comprises a sliding seat of a driven region of the manual actuation member or of at least one element (117, 118; 139, 140; 141, 142) directly or indirectly pushed by the driven region of the manual actuation member , the sliding seat having a first opening facing toward the switch and a second opening opposed to the first opening , the sliding seat being oversized with respect to the stroke of the switch . - a support body configured for attachment to the bicycle handlebars, - a push-operated switch , - a manual actuation member actuatable for switching the switch in order to issue a command, and - a de-coupling mechanism operatively interposed between the manual actuation member and the switch and effective to de-couple the manual actuation member from the switch during a first portion of the actuation stroke of the manual actuation member ,
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: X is CH or N; each R 1A is independently -ORic, -N(R 1C ) 2 , -C(O)R 1C , -C(O)OR 1C , - C(O)N(R 1C ) 2 , -N(R 1C )C(O)OR 1C , cyano, halo, or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more R 1B substitution; each R 1B is independently -ORic, -N(R 1C ) 2 , -C(O)R 1C , -C(O)OR 1C , - C(O)N(R 1C ) 2 , -N(R 1C )C(O)OR 1C , cyano or halo; each R 1C is independently hydrogen or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more cyano, halo or hydroxyl substitution; each R 2C is independently -OR 2D , -N(R 2D ) 2 , -C(O)R 2D , -C(O)OR 2D , - C(O)N(R 2B ) 2 , -N(R 2D )C(O)OR 2D , cyano, halo, oxo, or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more amino, cyano, halo, hydroxyl, or R 2D substitution; each R 2D is independently hydrogen or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more of amino, cyano, halo, hydroxyl substitution; n is 1-3; and m is 0-3. X is CH or N; each R 1A is independently -ORic, -N(R 1C ) 2 , -C(O)R 1C , -C(O)OR 1C , - C(O)N(R 1C ) 2 , -N(R 1C )C(O)OR 1C , cyano, halo, or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more R 1B substitution; each R 1B is independently -ORic, -N(R 1C ) 2 , -C(O)R 1C , -C(O)OR 1C , - C(O)N(R 1C ) 2 , -N(R 1C )C(O)OR 1C , cyano or halo; each R 1C is independently hydrogen or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more cyano, halo or hydroxyl substitution; each R 2C is independently -OR 2D , -N(R 2D ) 2 , -C(O)R 2D , -C(O)OR 2D , - C(O)N(R 2B ) 2 , -N(R 2D )C(O)OR 2D , cyano, halo, oxo, or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more amino, cyano, halo, hydroxyl, or R 2D substitution; each R 2D is independently hydrogen or optionally substituted C 1-12 hydrocarbyl or 2-12-membered heterocarbyl, which optional substitution is one or more of amino, cyano, halo, hydroxyl substitution; n is 1-3; and m is 0-3.
Method for controlling a battery of a vehicle comprising the battery and a control unit implementing the method, this method executing a first step (EO) comprising, after starting the vehicle, a second sub-step: - causing several electrical stresses on the battery in succession causing each a current call, and monitoring the occurrence of an internal fault in the unit of control, - then determining a pair of values including a voltage ( Umin ) and a resistance internal ( Rint ) of the battery , from each current call, the first stage (EO) running consecutively to the second sub-stage, a third sub-step characterized in that this third sub-step determines a status (STATUS) for each pair of values, this status taking a state: - unreliable (STNF) if the current draw caused by the electrical demand was too high low compared to a predetermined threshold within a given time, or if an internal fault in the control unit was present during this given time, - reliable (STF) if the current draw caused by the electrical stress was greater than or equal to the predetermined threshold within this allotted time, and if there was no internal fault in the control unit during this allotted time. - causing several electrical stresses on the battery in succession causing each a current call, and monitoring the occurrence of an internal fault in the unit of control, - then determining a pair of values including a voltage ( Umin ) and a resistance internal ( Rint ) of the battery , from each current call, the first stage (EO) running consecutively to the second sub-stage, a third sub-step characterized in that this third sub-step determines a status (STATUS) for each pair of values, this status taking a state: - unreliable (STNF) if the current draw caused by the electrical demand was too high low compared to a predetermined threshold within a given time, or if an internal fault in the control unit was present during this given time, - reliable (STF) if the current draw caused by the electrical stress was greater than or equal to the predetermined threshold within this allotted time, and if there was no internal fault in the control unit during this allotted time. - unreliable (STNF) if the current draw caused by the electrical demand was too high low compared to a predetermined threshold within a given time, or if an internal fault in the control unit was present during this given time, - reliable (STF) if the current draw caused by the electrical stress was greater than or equal to the predetermined threshold within this allotted time, and if there was no internal fault in the control unit during this allotted time.
Method for producing a layer composite, comprising the following method steps: a) providing at least one layer made of a refractory metal, as well as at least one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, b) laying the layers in an alternating manner, in each case with one layer of a refractory metal and one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, to form a layer stack with contiguous contact surfaces, c) diffusion welding of the layers in the layer stack in the absence of an oxidizing atmosphere at a temperature between 0.4 and 0.9 times the melting temperature of the metal and at a pressure with a directional component oriented orthogonally to the contact surfaces, and characterised in that d) during the diffusion welding the pressure changes its level in a dynamic pressure guidance process. a) providing at least one layer made of a refractory metal, as well as at least one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, b) laying the layers in an alternating manner, in each case with one layer of a refractory metal and one layer of another metal and/or a metal alloy, which with a refractory metal form a mixed crystal, to form a layer stack with contiguous contact surfaces, c) diffusion welding of the layers in the layer stack in the absence of an oxidizing atmosphere at a temperature between 0.4 and 0.9 times the melting temperature of the metal and at a pressure with a directional component oriented orthogonally to the contact surfaces, and characterised in that d) during the diffusion welding the pressure changes its level in a dynamic pressure guidance process.
A cartridge comprising a projectile secured to a case containing a propelling charge and closed by a base , a device for igniting the propelling charge comprising at least two energetic igniter cords that extend between an initiating means secured to a rear part of the case and the projectile , in which cartridge the cords are joined at their rear part so as to form a strand , wherein the cords are fastened by at least one fastening means secured to the cartridge , the cartridge being characterised in that the strand is connected to the initiating means by a packing gland making it possible to immobilize the cords both radially and axially relative to the initiating means while keeping the cords tight between their fastening means and the initiating means .
A method for controlling a discontinuous reception, DRX, mode in which a communication processor, CP, (120; 212) performs a predetermined operation by switching between a sleep state and an active state in a wireless terminal having an application processor, AP, (110; 211) and the CP, the method comprising: recording, in an internal memory of the CP, a control program configured for the active state of an internal mode wherein the internal memory (128; 214) of the CP is dedicated to the CP; waking up from the sleep state to the active state of the internal mode at every predetermined interval; performing, by the CP, an operation required in the active state of the internal mode by executing the recorded control program in the internal memory of the CP; and determining whether to switch from the internal mode to a normal mode, wherein the CP operates based on the internal memory of the CP without accessing an external memory (130; 220) during the internal mode, and the CP operates based on the external memory during the normal mode, and wherein the recorded control program is a complete control module or a part of the complete control module that is recorded for the operation required in the active state in the external memory. recording, in an internal memory of the CP, a control program configured for the active state of an internal mode wherein the internal memory (128; 214) of the CP is dedicated to the CP; waking up from the sleep state to the active state of the internal mode at every predetermined interval; performing, by the CP, an operation required in the active state of the internal mode by executing the recorded control program in the internal memory of the CP; and determining whether to switch from the internal mode to a normal mode, wherein the CP operates based on the internal memory of the CP without accessing an external memory (130; 220) during the internal mode, and the CP operates based on the external memory during the normal mode, and wherein the recorded control program is a complete control module or a part of the complete control module that is recorded for the operation required in the active state in the external memory.
A packer for use with a subterranean well, the packer comprising: an annular seal that extends radially outward in response to relative displacement between first and second sections of the packer ; the first packer section including an inner mandrel with circumferentially spaced apart first engagement structures ; and the second packer section including a grip device with circumferentially spaced apart second engagement structures , wherein displacement of the second packer section relative to the first packer section in a first longitudinal direction is prevented in response to engagement between the first and second engagement structures , and wherein displacement of the second packer section relative to the first packer section in the first longitudinal direction is permitted in response to rotational misalignment between the first and second engagement structures . an annular seal that extends radially outward in response to relative displacement between first and second sections of the packer ; the first packer section including an inner mandrel with circumferentially spaced apart first engagement structures ; and the second packer section including a grip device with circumferentially spaced apart second engagement structures , wherein displacement of the second packer section relative to the first packer section in a first longitudinal direction is prevented in response to engagement between the first and second engagement structures , and wherein displacement of the second packer section relative to the first packer section in the first longitudinal direction is permitted in response to rotational misalignment between the first and second engagement structures .
A method of joining tubulars with friction welding for forming a tubular string to be delivered to a subterranean location, comprising: aligning ends of tubulars to be welded; introducing a tubular segment between said tubulars ; bringing said ends together against opposing ends of said segment to put said ends under axial compressive stress; and characterized by : joining said ends to said segment using combined movement patterns of said tubular segment , wherein the combined movement patterns comprise opposed rotational oscillating movements of +/- 0.5° with 50 Hz about a segment longitudinal axis and 0.2 mm radial movement with 100 Hz in a direction perpendicular to an axis of said aligned tubulars . aligning ends of tubulars to be welded; introducing a tubular segment between said tubulars ; bringing said ends together against opposing ends of said segment to put said ends under axial compressive stress; and characterized by : joining said ends to said segment using combined movement patterns of said tubular segment , wherein the combined movement patterns comprise opposed rotational oscillating movements of +/- 0.5° with 50 Hz about a segment longitudinal axis and 0.2 mm radial movement with 100 Hz in a direction perpendicular to an axis of said aligned tubulars .
An assembly for a two-wheeled vehicle, trike or quad bike, with a steering head and at least one profile part which connects the steering head to a supporting part of the two-wheeled vehicle, trike or quad bike, wherein the profile part is formed from a shaped metal sheet, wherein a single one of the at least one profile part forms two side walls of a battery compartment or two of the profile parts form two side walls of a battery compartment, wherein the supporting part has a C-shaped cross-section, characterised in that the supporting part together with the side walls forms a battery compartment which is open on one side.
Method for operating a water-bearing household appliance , which has a pump for conveying an aqueous liquid , a variable-speed, permanently excited synchronous motor as a pump drive motor and a control unit , comprising the steps (a) adjusting a pumping rotation speed n to a value n J , in which a nozzle pressure p of the pump is not sufficient to establish a flow rate Q; and (b) measuring a torque M of the pump as a measure of an idling torque M J , wherein the torque M is measured by measuring an electrical variable of the pump drive motor and a current strength I is measured in the pump drive motor as an idling current strength I I and the torque M I is determined on the basis of a connection, stored in the control unit , between the current strength I and the torque M. (a) adjusting a pumping rotation speed n to a value n J , in which a nozzle pressure p of the pump is not sufficient to establish a flow rate Q; and (b) measuring a torque M of the pump as a measure of an idling torque M J , wherein the torque M is measured by measuring an electrical variable of the pump drive motor and a current strength I is measured in the pump drive motor as an idling current strength I I and the torque M I is determined on the basis of a connection, stored in the control unit , between the current strength I and the torque M.
A light redirecting construction comprising the following elements in the recited order: • a first glazing substrate; • a first interlayer adjacent to the first glazing substrate, • a light redirecting film adjacent to the first interlayer, wherein the light redirecting film comprises at least one microstructure surface; • a second glazing substrate adjacent to the light redirecting film wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate. • a first glazing substrate; • a first interlayer adjacent to the first glazing substrate, • a light redirecting film adjacent to the first interlayer, wherein the light redirecting film comprises at least one microstructure surface; • a second glazing substrate adjacent to the light redirecting film wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate. wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate.
A test tube vacuum retainer system , comprising: an outer body comprising a midline support plate ; one or more side walls , a bottom wall , and a top plate comprising an access hole ; a test tube holder comprising a sealant ring made of sealant materials such that a vacuum tight seal can be made between its surface and the surface of the test tube when a vacuum force is applied; a base ; and a vacuum tube comprising an external outlet ; a retainer plate comprising an access area and a circular area; wherein the test tube holder is secured within the outer body to the base , which in turn is secured to the midline support plate ; wherein the vacuum tube is connected to the test tube holder at a first end, and the external outlet is configured to be connected to a vacuum pump configured to apply a vacuum force to the test tube holder when a test tube is inserted into the access hole and placed onto the test tube holder ; and wherein the retainer plate is configured to further secure the test tube holder by placing the test tube holder within the circular area and the vacuum tube within the access area; wherein the retainer plate attaches to the outer body at a location above the base and below the top plate. an outer body comprising a midline support plate ; one or more side walls , a bottom wall , and a top plate comprising an access hole ; a test tube holder comprising a sealant ring made of sealant materials such that a vacuum tight seal can be made between its surface and the surface of the test tube when a vacuum force is applied; a base ; and a vacuum tube comprising an external outlet ; a retainer plate comprising an access area and a circular area; wherein the test tube holder is secured within the outer body to the base , which in turn is secured to the midline support plate ; wherein the vacuum tube is connected to the test tube holder at a first end, and the external outlet is configured to be connected to a vacuum pump configured to apply a vacuum force to the test tube holder when a test tube is inserted into the access hole and placed onto the test tube holder ; and wherein the retainer plate is configured to further secure the test tube holder by placing the test tube holder within the circular area and the vacuum tube within the access area; wherein the retainer plate attaches to the outer body at a location above the base and below the top plate.