mhurhangee/patent-ind-claim-en huggingface dataset:
A system to determine impending oscillatory instabilities in a device, said system comprising: a measuring unit configured to generate at least one signal corresponding to dynamics happening inside said device, and an instability detection unit provided in communication with said measuring unit , characterized in that said instability detection unit is configured to diagnose the onset of said impending oscillatory instabilities in said device based on intermittent bursts in the signal generated by the measuring unit before the onset of the oscillatory instabilities and smooth variations in parameters as the device approaches said impending oscillatory instabilities, wherein said intermittent bursts are detected preceding to a transition from a noisy or chaotic behavior to said oscillatory instabilities. a measuring unit configured to generate at least one signal corresponding to dynamics happening inside said device, and an instability detection unit provided in communication with said measuring unit , characterized in that said instability detection unit is configured to diagnose the onset of said impending oscillatory instabilities in said device based on intermittent bursts in the signal generated by the measuring unit before the onset of the oscillatory instabilities and smooth variations in parameters as the device approaches said impending oscillatory instabilities, wherein said intermittent bursts are detected preceding to a transition from a noisy or chaotic behavior to said oscillatory instabilities.
An apparatus of a user equipment, LTE , comprising circuitry adapted to: configure a scheduling request, SR, transmission based on a physical uplink control channel, PUCCH; combine the scheduling request with a buffer status report group indicator, BSRGI, wherein a buffer status report, BSR, is divided into two or more groups and the BSRGI is used to indicate to which BSR group the BSR belongs, wherein a value of the BSRGI is based on a BSR group threshold indicating a maximum buffer size for the value of the BSRGI, wherein the BSR group threshold is based on a power control factor of the LTE or uplink Channel State Information, CSI, for the UE, wherein the BSRGI is added to an end of the CSI; transmit the combined SR and BSRGI in a single subframe to a network entity; receive uplink resource scheduling from the network entity in reply to the combined SR and BSRGI; and transmit uplink data to the network entity according to the uplink resource scheduling, wherein the apparatus comprises radio-frequency circuitry adapted to transmit the combined SR and BSRGI message with a periodic CSI. configure a scheduling request, SR, transmission based on a physical uplink control channel, PUCCH; combine the scheduling request with a buffer status report group indicator, BSRGI, wherein a buffer status report, BSR, is divided into two or more groups and the BSRGI is used to indicate to which BSR group the BSR belongs, wherein a value of the BSRGI is based on a BSR group threshold indicating a maximum buffer size for the value of the BSRGI, wherein the BSR group threshold is based on a power control factor of the LTE or uplink Channel State Information, CSI, for the UE, wherein the BSRGI is added to an end of the CSI; transmit the combined SR and BSRGI in a single subframe to a network entity; receive uplink resource scheduling from the network entity in reply to the combined SR and BSRGI; and transmit uplink data to the network entity according to the uplink resource scheduling, wherein the apparatus comprises radio-frequency circuitry adapted to transmit the combined SR and BSRGI message with a periodic CSI.
A lead-acid battery comprising: a negative electrode plate; and a positive electrode plate, wherein: the negative electrode plate includes a negative electrode current collector and a negative electrode material containing a carbon material; the carbon material contains a first carbon material having a particle size of 32 μm or more, and a second carbon material having a particle size of less than 32 μm; a ratio of powder resistance R2 of the second carbon material to powder resistance R1 of the first carbon material: R2/R1 is 15 or more and 155 or less; and the negative electrode current collector is composed of a Pb alloy containing more than 0.06 mass% and 0.15 mass% or less of Ca and 0.10 mass% or more and 0.80 mass% or less of Sn, wherein an average aspect ratio of the first carbon material is 1.5 or more and 30 or less, wherein the particle size, the powder resistance, and the average aspect ratio are measured according to the methods described in the description. a negative electrode plate; and a positive electrode plate, wherein: the negative electrode plate includes a negative electrode current collector and a negative electrode material containing a carbon material; the carbon material contains a first carbon material having a particle size of 32 μm or more, and a second carbon material having a particle size of less than 32 μm; a ratio of powder resistance R2 of the second carbon material to powder resistance R1 of the first carbon material: R2/R1 is 15 or more and 155 or less; and the negative electrode current collector is composed of a Pb alloy containing more than 0.06 mass% and 0.15 mass% or less of Ca and 0.10 mass% or more and 0.80 mass% or less of Sn, wherein an average aspect ratio of the first carbon material is 1.5 or more and 30 or less, wherein the particle size, the powder resistance, and the average aspect ratio are measured according to the methods described in the description. the negative electrode plate includes a negative electrode current collector and a negative electrode material containing a carbon material; the carbon material contains a first carbon material having a particle size of 32 μm or more, and a second carbon material having a particle size of less than 32 μm; a ratio of powder resistance R2 of the second carbon material to powder resistance R1 of the first carbon material: R2/R1 is 15 or more and 155 or less; and the negative electrode current collector is composed of a Pb alloy containing more than 0.06 mass% and 0.15 mass% or less of Ca and 0.10 mass% or more and 0.80 mass% or less of Sn, wherein an average aspect ratio of the first carbon material is 1.5 or more and 30 or less, wherein the particle size, the powder resistance, and the average aspect ratio are measured according to the methods described in the description.
A torque wrench comprising: an elongated handle body extending between a proximal end and a distal end; a wrench head unit disposed at the distal end ; at least one pressure sensing unit associated with the elongated body and configured with at least one user interface gripping portion , each of the gripping portions comprises a pressure sensitive material configured to exhibit a signal upon application of a certain pressure thereon, wherein said signal is indicative of torque applied to the wrench head unit ; characterized in that said pressure sensitive material is piezochromic material. an elongated handle body extending between a proximal end and a distal end; a wrench head unit disposed at the distal end ; at least one pressure sensing unit associated with the elongated body and configured with at least one user interface gripping portion , each of the gripping portions comprises a pressure sensitive material configured to exhibit a signal upon application of a certain pressure thereon, wherein said signal is indicative of torque applied to the wrench head unit ; characterized in that said pressure sensitive material is piezochromic material.
A termination device for a suspension member of an elevator system , the device comprising: a housing including a socket defined by two face plates and two side plates , wherein at least one of the face plates and at least one of the side plates are integrally formed; a wedge receivable within the socket with the suspension member , wherein the wedge is configured to cooperate with the housing to apply a clamping force to the suspension member in response to an axial load (L) acting on the suspension member wherein the two face plates and a first side plate of the two side plates are integrally formed, wherein a second side plate of the two side plates is coupled to the two face plates , wherein the second side plate includes a plurality of plate tabs and the two face plates include a plurality of plate openings , the plurality of plate tabs being receivable within the plurality of plate openings ; and wherein the first side plate of the two side plates is aligned with a rod for connecting the termination device to a structure in a building. a housing including a socket defined by two face plates and two side plates , wherein at least one of the face plates and at least one of the side plates are integrally formed; a wedge receivable within the socket with the suspension member , wherein the wedge is configured to cooperate with the housing to apply a clamping force to the suspension member in response to an axial load (L) acting on the suspension member wherein the two face plates and a first side plate of the two side plates are integrally formed, wherein a second side plate of the two side plates is coupled to the two face plates , wherein the second side plate includes a plurality of plate tabs and the two face plates include a plurality of plate openings , the plurality of plate tabs being receivable within the plurality of plate openings ; and wherein the first side plate of the two side plates is aligned with a rod for connecting the termination device to a structure in a building.
Friction clutch device for a drive train of a motor vehicle which is driven by internal combustion engine, having a rotational axis, a housing , at least one pressure plate which can be moved relative to the housing in the direction of extent of the rotational axis for an actuation between an engaged actuating position and a disengaged actuating position, a cup spring for loading the at least one pressure plate , and a servo spring for reducing an actuating force, the servo spring being supported directly on the housing on a first supporting radius and additionally being supported on the cup spring , characterized in that the servo spring lies radially on the outer side on a second supporting radius on spacer pins which are arranged on the housing and by way of which the cup spring is mounted pivotably on the housing , or lies on lugs which are arranged on the housing and is thus held in the axial direction.
Method for determining location of a lens machining tool in a turning machine configured for manufacturing ophthalmic lenses, said location of said lens machining tool being defined according to at least two directions in said turning machine, said method comprising the steps of manufacturing a calibration piece according to a predetermined theoretical geometry by using said lens machining tool, receiving data representative of geometrical characteristics of said calibration piece and processing said data for determining location of said lens machining tool relative to at least one of said two directions, wherein: - said lens machining tool has an offset location (dY) according to a first direction amongst said two directions, relative to a theoretical location, which is smaller than a first predetermined threshold; - said step of manufacturing a calibration piece is configured to provide a at least partially annular groove in a main surface of said calibration piece, said at least partially annular groove being configured to form at least one sharp edge defining a slope discontinuity on said main surface and characterized in that said at least partially annular groove has a predetermined local slope relative to said main surface, close to said at least one sharp edge ; - said step of receiving data of geometrical characteristics of said calibration piece comprises the step of measuring geometrical characteristics of said at least one sharp edge on said main surface; and - said method further comprises the step of deducing, from said measured data representative of geometrical characteristics of said at least one sharp edge on said main surface, a location of said lens machining tool according to a second direction amongst said two directions, the second direction being distinct from the first direction. - said lens machining tool has an offset location (dY) according to a first direction amongst said two directions, relative to a theoretical location, which is smaller than a first predetermined threshold; - said step of manufacturing a calibration piece is configured to provide a at least partially annular groove in a main surface of said calibration piece, said at least partially annular groove being configured to form at least one sharp edge defining a slope discontinuity on said main surface and characterized in that said at least partially annular groove has a predetermined local slope relative to said main surface, close to said at least one sharp edge ; - said step of receiving data of geometrical characteristics of said calibration piece comprises the step of measuring geometrical characteristics of said at least one sharp edge on said main surface; and - said method further comprises the step of deducing, from said measured data representative of geometrical characteristics of said at least one sharp edge on said main surface, a location of said lens machining tool according to a second direction amongst said two directions, the second direction being distinct from the first direction.
A manifold base for mounting plurality of solenoid valves thereon in an arranged manner, the manifold base comprising: a base body having a valve mounting surface on which multiple valve mounting regions for mounting the solenoid valves thereon are arranged in a row, an air supply channel through which compressed air is supplied to the solenoid valves , and an air discharge channel through which air discharged from the solenoid valves is discharged to outside; wherein the air discharge channel is constituted by a main channel that passes through inside the base body in a direction of arranging the valve mounting regions in the row, and a communicating opening that opens at the valve mounting surface and enable the main channel to communicate with the valve mounting regions , and characterized in that the communicating opening is formed so as to successively cross multiple valve mounting regions , that an opening width of the communicating opening is narrower than a channel width of the main channel , that a silencer is provided that attenuates exhaust noise of the discharged air, and that the silencer is installed inside the communicating opening. a base body having a valve mounting surface on which multiple valve mounting regions for mounting the solenoid valves thereon are arranged in a row, an air supply channel through which compressed air is supplied to the solenoid valves , and an air discharge channel through which air discharged from the solenoid valves is discharged to outside; a valve mounting surface on which multiple valve mounting regions for mounting the solenoid valves thereon are arranged in a row, an air supply channel through which compressed air is supplied to the solenoid valves , and an air discharge channel through which air discharged from the solenoid valves is discharged to outside; wherein the air discharge channel is constituted by a main channel that passes through inside the base body in a direction of arranging the valve mounting regions in the row, and a communicating opening that opens at the valve mounting surface and enable the main channel to communicate with the valve mounting regions , and a main channel that passes through inside the base body in a direction of arranging the valve mounting regions in the row, and a communicating opening that opens at the valve mounting surface and enable the main channel to communicate with the valve mounting regions , and characterized in that the communicating opening is formed so as to successively cross multiple valve mounting regions , that an opening width of the communicating opening is narrower than a channel width of the main channel , that a silencer is provided that attenuates exhaust noise of the discharged air, and that the silencer is installed inside the communicating opening.
Photovoltaic junction box, having a housing lower part and a housing upper part which interacts with the said housing lower part, wherein a seal is provided between the housing lower part and the housing upper part and there is at least one connection plug for a connection line and, in the interior of the photovoltaic junction box, a contact carrier with contacts, wherein the photovoltaic junction box has a cooling plate , characterized in that a thermally conductive insulating film , which is arranged between at least one contact of the contact carrier and the cooling plate and/or an electrical conductor of the connection line , is provided.
A gas turbine engine comprising: a compressor section and a turbine section , said turbine section including at least one rotor and at least one blade extending radially outwardly from said rotor to a radially outer tip ; a blade outer air seal (104;162;170) positioned radially outwardly of said radially outer tip of said blade , said blade outer air seal (104;162;170) having forward and aft hooks , and said forward and aft hooks being supported on forward and aft seal hooks of an attachment block ; and said attachment block having a forward case mount hook and an aft case mount hook , and said attachment block being supported on a forward case hook and an aft case hook of a static casing within the engine , and said forward case mount hook and said aft case mount hook on said attachment block facing in a first common axial direction, and said forward case hook and said aft case hook facing in a second common axial direction which is opposed to said first common axial direction; wherein there are a plurality of blade outer air seals (104; 162; 170) mounted within said casing ; and characterised by there being wedge seals spanning a circumferential gap between adjacent ones of said plurality of blade outer air seals ; and in that said wedge seals include portions positioned radially inward of said forward and aft seal hooks of said attachment block , and there being stops formed on said wedge seal circumferentially between said forward and aft hooks of said blade outer seals (104;162;170), each stop adjacent a respective one of the forward and aft hooks . a compressor section and a turbine section , said turbine section including at least one rotor and at least one blade extending radially outwardly from said rotor to a radially outer tip ; a blade outer air seal (104;162;170) positioned radially outwardly of said radially outer tip of said blade , said blade outer air seal (104;162;170) having forward and aft hooks , and said forward and aft hooks being supported on forward and aft seal hooks of an attachment block ; and said attachment block having a forward case mount hook and an aft case mount hook , and said attachment block being supported on a forward case hook and an aft case hook of a static casing within the engine , and said forward case mount hook and said aft case mount hook on said attachment block facing in a first common axial direction, and said forward case hook and said aft case hook facing in a second common axial direction which is opposed to said first common axial direction; wherein there are a plurality of blade outer air seals (104; 162; 170) mounted within said casing ; and characterised by there being wedge seals spanning a circumferential gap between adjacent ones of said plurality of blade outer air seals ; and in that said wedge seals include portions positioned radially inward of said forward and aft seal hooks of said attachment block , and there being stops formed on said wedge seal circumferentially between said forward and aft hooks of said blade outer seals (104;162;170), each stop adjacent a respective one of the forward and aft hooks .
Laminated structure for E-document , comprising a first support layer defining at least two flaps of the same thickness connected by at least one fold line : - the first flap supporting an antenna and a microcircuit device enabling contactless data exchange, - the second flap supporting an electromagnetic interference element , notably comprising a magnetic material, a conductive material, or a resonator circuit, and being arranged in relation to the microcircuit device so as to be able to oppose at least one of contactless reading and/or writing of the microcircuit device in at least one folded configuration of the structure , a) the structure comprising at least one heat-activated adhesive (20, 21, 22 ; 26 ; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer having different thicknesses for each of the flaps, the first support layer comprising at least one cavity , notably a through cavity, in which the microcircuit device is at least partially housed. - the first flap supporting an antenna and a microcircuit device enabling contactless data exchange, - the second flap supporting an electromagnetic interference element , notably comprising a magnetic material, a conductive material, or a resonator circuit, and being arranged in relation to the microcircuit device so as to be able to oppose at least one of contactless reading and/or writing of the microcircuit device in at least one folded configuration of the structure , a) the structure comprising at least one heat-activated adhesive (20, 21, 22 ; 26 ; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer having different thicknesses for each of the flaps, the first support layer comprising at least one cavity , notably a through cavity, in which the microcircuit device is at least partially housed. a) the structure comprising at least one heat-activated adhesive (20, 21, 22 ; 26 ; 33) or pressure-sensitive layer making it possible to receive the microcircuit device and/or the antenna and/or the electromagnetic interference element at least in part in its thickness, and b) the flaps comprising at least an adhesive and/or fibrous and/or polymer layer having different thicknesses for each of the flaps,