mhurhangee/patent-ind-claim-en huggingface dataset:
Door leaf (1; 101) for a passenger transport vehicle, in particular for a tram, trolleybus, bus, metro or train door, comprising: - a so-called interior facing (10; 110) intended to be placed on the interior side of the vehicle body and a so-called exterior facing (12; 112) intended to be placed on the exterior side of the vehicle body, said facings delimiting an interior volume of said leaf, each facing being hollowed out with an opening for receiving a window (14; 114) - a filling (20; 120) occupying this interior volume, this filling being hollowed out with at least one cutout (34; 134, 144) for receiving said window - a structural frame extending to the periphery of the core of the leaf, - mounting means, allowing the mounting of the leaf on the frame of said door, characterized in that the filling comprises - at least one first region (30; 130), called rigid filling, made of a first material, called rigid filling material, having a Young's modulus greater than 50 MPa, in particular greater than 60 MPa, this first region covering at least part of a first facing, in particular of the external facing - at least one second region (40; 140), made of a second material - a plurality of interspaces (50; 150, 160) which are separated from each other by separation strips (25; 172, 174, 182, 184), made of said first material, each interspace being occupied by a gas, in particular air, each interspace being capable of breaking at least a part, advantageously at least a substantial part, of the solid vibratory transmission paths between the facings. - a so-called interior facing (10; 110) intended to be placed on the interior side of the vehicle body and a so-called exterior facing (12; 112) intended to be placed on the exterior side of the vehicle body, said facings delimiting an interior volume of said leaf, each facing being hollowed out with an opening for receiving a window (14; 114) - a filling (20; 120) occupying this interior volume, this filling being hollowed out with at least one cutout (34; 134, 144) for receiving said window - a structural frame extending to the periphery of the core of the leaf, - mounting means, allowing the mounting of the leaf on the frame of said door, characterized in that the filling comprises - at least one first region (30; 130), called rigid filling, made of a first material, called rigid filling material, having a Young's modulus greater than 50 MPa, in particular greater than 60 MPa, this first region covering at least part of a first facing, in particular of the external facing - at least one second region (40; 140), made of a second material - a plurality of interspaces (50; 150, 160) which are separated from each other by separation strips (25; 172, 174, 182, 184), made of said first material, each interspace being occupied by a gas, in particular air, each interspace being capable of breaking at least a part, advantageously at least a substantial part, of the solid vibratory transmission paths between the facings.
Blade removal device for removing a circular blade of a slice cutting machine for cutting slices from, in particular, strand-shaped material to be cut, preferably food, the blade removal device having a carrier which can be arranged with a contact side on one side of the circular blade , the blade removal device having in the carrier rotatably mounted fastening elements which can be rotated about a respective axis of rotation of the fastening elements relative to the carrier from a mounting position for mounting the blade removal device on the circular blade into a holding position for holding the circular blade on the blade removal device , characterized in that the blade removal device has a rotary handle which is rotatably mounted on the carrier and can be rotated relative to the carrier from a closed position to an open position in order to open a closure of the circular blade and of the drive of the circular blade , wherein the closure is open in the open position of the rotary handle and is closed in the closed position, wherein in the mounting position the fastening elements are designed to engage in recesses of the rotary handle in the closed position, and wherein the recesses and the fastening elements are disengaged in the open position of the rotary handle .
Pipeline apparatus comprising a housing including a riser and a pipeline connector and a valve assembly , wherein the valve assembly comprises a valve configured to control the flow of fluid through the pipeline connector , a valve stem , a mounting means and seal means having a seal cross-section, wherein the mounting means mounts the valve assembly releasably within the riser and in that the seal means situated within the riser between an inner surface of the riser which inner surface lies substantially parallel with a longitudinal axis of the riser and an outer surface of the mounting means to seal against egress of fluid from the apparatus , wherein the outer surface of the mounting means is substantially parallel with the inner surface of the riser and spaced apart therefrom by a separation distance, which separation distance is smaller than the seal cross-section and characterised in that the valve assembly is configured such that said valve assembly can be introduced into and removed from the housing through the riser as a single component, and wherein the valve assembly and the riser each comprise a part of a locking means for releasably locking the valve assembly in the riser , the locking means being operable by a tool , and the valve situated in the pipeline connector .
An imaging system comprising: an imaging array comprising a plurality of single-bit or multi-bit jots, wherein each jot is configured to generate an electrical signal in response to photon absorption; readout circuitry in electrical communication with the imaging array and configured to quantize, for each jot, an analog signal corresponding to the electrical signal of the jot, wherein the imaging system is configured as a 3D vertically integrated circuit with the imaging array stacked vertically above the readout circuitry; and wherein the imaging array is configured as a plurality of clusters (C i,j :i = 1, 2, 3 ... M; j = 1, 2, 3 ... N), each cluster comprising a respective plurality of said jots, and wherein each said cluster is electrically coupled to and configured to be read out in parallel by a respective readout circuit block (ASP, ADC, IP1 (i,j): i = 1, 2, 3 ... M; j = 1, 2, 3 ... N)) of the readout circuitry, each readout circuit block comprising a respective primary image processor (IP1) configured to generate a digital value corresponding to the respective cluster based on processing digital signals corresponding to the electrical signals generated by each of the plurality of jots read out from the respective cluster, wherein the digital value corresponding to the respective cluster is stored in a respective memory. an imaging array comprising a plurality of single-bit or multi-bit jots, wherein each jot is configured to generate an electrical signal in response to photon absorption; readout circuitry in electrical communication with the imaging array and configured to quantize, for each jot, an analog signal corresponding to the electrical signal of the jot, wherein the imaging system is configured as a 3D vertically integrated circuit with the imaging array stacked vertically above the readout circuitry; and wherein the imaging array is configured as a plurality of clusters (C i,j :i = 1, 2, 3 ... M; j = 1, 2, 3 ... N), each cluster comprising a respective plurality of said jots, and wherein each said cluster is electrically coupled to and configured to be read out in parallel by a respective readout circuit block (ASP, ADC, IP1 (i,j): i = 1, 2, 3 ... M; j = 1, 2, 3 ... N)) of the readout circuitry, each readout circuit block comprising a respective primary image processor (IP1) configured to generate a digital value corresponding to the respective cluster based on processing digital signals corresponding to the electrical signals generated by each of the plurality of jots read out from the respective cluster, wherein the digital value corresponding to the respective cluster is stored in a respective memory.
An interposed device for a disc brake, the interposed device being intended to be interposed between a piston of a disc brake and an internal brake pad support, comprising a first piece and at least two second pieces (42.1, 42.2), a first ball joint (50.1, 50.2) between the first piece and each second piece (42.1, 42.2), wherein said first piece is configured to be secured to the piston by a second ball joint and wherein said second pieces (42.1, 42.2) are to be pressed against a pad support of a brake pad.
A composite article comprising at least two layers (A) of component a) and at least one layer (B1) of component b), wherein the respective layers (A) and (B1) of components a) and b) are alternately linked together and wherein component a) has a compressive modulus of at least 10 MPa and component b) has a compression stress value at a compression of 40 % of not more than 20 kPa, wherein the compressive modulus is determined according to DIN ISO 844: 2009 and the compression stress value is determined according to EN ISO 3386-1: 1997 + A1: 2010.
Process for manufacturing a muffler for an exhaust system of an internal combustion engine, wherein the muffler to be manufactured comprises a muffler housing with a housing jacket elongated in the direction of a housing longitudinal axis (L) and with at least one housing bottom carried on the housing jacket , comprising the steps of: a) providing the housing jacket with a stop formation in association with at least one housing bottom to be carried on the housing jacket , b) providing at least one housing bottom to be carried on the housing jacket , and c) positioning of at least one housing bottom on the housing jacket such that the housing bottom is in contact with the stop formation associated with it, wherein in step a) the housing jacket is provided in at least one axial end area with a radial expansion area and, adjoining the radial expansion area , with an essentially cylindrical end section for receiving a housing bottom , and wherein a stop formation is provided in the radial expansion area with a plurality of stop projections , which are arranged at spaced locations from one another about the housing longitudinal axis (L) in the circumferential direction and project into a housing interior enclosed by the housing jacket . a) providing the housing jacket with a stop formation in association with at least one housing bottom to be carried on the housing jacket , b) providing at least one housing bottom to be carried on the housing jacket , and c) positioning of at least one housing bottom on the housing jacket such that the housing bottom is in contact with the stop formation associated with it,
A system for extracting and processing adipose tissue to generate a therapeutically effective amount of adipose-derived stem cells, the system comprising: an adipose tissue extraction device; and a first modified centrifuge tube comprising a plurality of lipoaspirate inlet fittings , a plurality of processing fluid inlet fittings , and a plurality of pellet extraction tubes ; wherein the first modified tube is of volume around 100 millilitres, and a second modified centrifuge tube of a substantially similar design as the first modified centrifuge tube ; wherein the second modified centrifuge tube is of a volume of 10 to 20 millilitres; wherein the adipose tissue extraction device is suitable to be used to extract a quantity of adipose tissue from a human being; and wherein the system is suitable for that in use the lipoaspirate is moved into the first modified centrifuge tube via a sterile transfer, a plurality of processing steps are performed to clean and dissociate the lipoaspirate, and a pellet containing an enhanced fraction of stem cells is obtained by centrifuging the first modified centrifugal tube ; and wherein the second modified centrifuge tube is suitable to be used to further process a resuspended pellet after its removal from the first modified centrifuge tube to achieve a higher concentration of stem cells; and wherein the system is suitable for that in use the pellet is resuspended in a fluid and administered to a human patient for a therapeutic or cosmetic purpose. an adipose tissue extraction device; and a first modified centrifuge tube comprising a plurality of lipoaspirate inlet fittings , a plurality of processing fluid inlet fittings , and a plurality of pellet extraction tubes ; wherein the first modified tube is of volume around 100 millilitres, and a second modified centrifuge tube of a substantially similar design as the first modified centrifuge tube ; wherein the second modified centrifuge tube is of a volume of 10 to 20 millilitres; wherein the adipose tissue extraction device is suitable to be used to extract a quantity of adipose tissue from a human being; and wherein the system is suitable for that in use the lipoaspirate is moved into the first modified centrifuge tube via a sterile transfer, a plurality of processing steps are performed to clean and dissociate the lipoaspirate, and a pellet containing an enhanced fraction of stem cells is obtained by centrifuging the first modified centrifugal tube ; and wherein the second modified centrifuge tube is suitable to be used to further process a resuspended pellet after its removal from the first modified centrifuge tube to achieve a higher concentration of stem cells; and wherein the system is suitable for that in use the pellet is resuspended in a fluid and administered to a human patient for a therapeutic or cosmetic purpose.
A method of controlling a backing system for a vehicle and trailer assembly , the method comprising: initiating a backing system mode with an electronic control unit for a backing system when a start system input is received from a control device , the control device is wirelessly connected to the electronic control unit ; recording an image of a hitch for the vehicle and trailer assembly ; determining a hitch angle using a plurality of reference points on the trailer which are viewed by the camera ; determining which portions of the image are relevant to a current position of the vehicle and trailer assembly , and which portions of the image are non-relevant; sending data regarding the relevant portions to the control device via a secured wireless connection; displaying the relevant portion of the image on a display for the control device ; and displaying the portions of the image that are determined non-relevant on the display by a graphical icon. initiating a backing system mode with an electronic control unit for a backing system when a start system input is received from a control device , the control device is wirelessly connected to the electronic control unit ; recording an image of a hitch for the vehicle and trailer assembly ; determining a hitch angle using a plurality of reference points on the trailer which are viewed by the camera ; determining which portions of the image are relevant to a current position of the vehicle and trailer assembly , and which portions of the image are non-relevant; sending data regarding the relevant portions to the control device via a secured wireless connection; displaying the relevant portion of the image on a display for the control device ; and displaying the portions of the image that are determined non-relevant on the display by a graphical icon.
An information transmission method, comprising: establishing an association relationship among parameters configured for a user equipment, UE, wherein a plurality of parameters, based on the association relationship, belong to a same parameter group, wherein, within one bandwidth part, BWP, demodulation reference signal, DMRS, ports for a physical downlink shared channel, PDSCH, are different for different parameter groups of a plurality of parameter groups associated with the one BWP, and the parameters comprise configuration parameters of a physical downlink control channel, PDCCH, which comprises a control resource set, and wherein time-frequency domain resources for the PDSCH that correspond to the different parameter groups overlap with each other; and transmitting information of the parameter group to the UE. establishing an association relationship among parameters configured for a user equipment, UE, wherein a plurality of parameters, based on the association relationship, belong to a same parameter group, wherein, within one bandwidth part, BWP, demodulation reference signal, DMRS, ports for a physical downlink shared channel, PDSCH, are different for different parameter groups of a plurality of parameter groups associated with the one BWP, and the parameters comprise configuration parameters of a physical downlink control channel, PDCCH, which comprises a control resource set, and wherein time-frequency domain resources for the PDSCH that correspond to the different parameter groups overlap with each other; and transmitting information of the parameter group to the UE.
A resin composition comprising: an ethylene-vinyl acetate copolymer (A) in an amount of not less than 60 parts by weight and not more than 95 parts by weight, the ethylene-vinyl acetate copolymer (A) having a vinyl acetate content (VA) of not less than 3% by weight and not more than 13% by weight, and having a ratio Qw between a weight-average molecular weight (Mw) and a number-average molecular weight (Mn) of 1.5 or more and 4.5 or less; and a tackifier resin (B) in an amount of not less than 5 parts by weight and not more than 40 parts by weight, where a total amount of (A) and (B) is 100 parts by weight. an ethylene-vinyl acetate copolymer (A) in an amount of not less than 60 parts by weight and not more than 95 parts by weight, the ethylene-vinyl acetate copolymer (A) having a vinyl acetate content (VA) of not less than 3% by weight and not more than 13% by weight, and having a ratio Qw between a weight-average molecular weight (Mw) and a number-average molecular weight (Mn) of 1.5 or more and 4.5 or less; and a tackifier resin (B) in an amount of not less than 5 parts by weight and not more than 40 parts by weight, where a total amount of (A) and (B) is 100 parts by weight.
A composition for use in a method of selectively killing a target cell, comprising a) a guide RNA that is capable of hybridizing with a target sequence in the genome of the target cell, wherein the target sequence is specific to the target cell; b) a Cas protein; and c) a polynucleotide encoding a suicide gene; wherein the Cas protein is capable of facilitating the integration of the suicide gene into the target sequence in the genome of the target cell. a) a guide RNA that is capable of hybridizing with a target sequence in the genome of the target cell, wherein the target sequence is specific to the target cell; b) a Cas protein; and c) a polynucleotide encoding a suicide gene; wherein the Cas protein is capable of facilitating the integration of the suicide gene into the target sequence in the genome of the target cell.
A method for customizing an automated bonding sequence , the method comprising: detecting, by a processor of a computing system, that a first substrate is in close proximity with a second substrate , during an optical bonding operation such that an adhesive on the first substrate is not yet in contact with at least one of: the second substrate and an adhesive on the second substrate; stopping, by the processor, an automated process of optically bonding of the optical bonding operation, in response to the detecting ; recording, by the processor, operator feedback control signals , the operator feedback control signals being received from a controller being operated by an operator to contact the first substrate and the second substrate; analyzing, by the processor, the operator feedback control signals to determine a bonding sequence for automatically optically bonding the first substrate and the second substrate ; and resuming, by the processor, the automated process of the optical bonding operation . detecting, by a processor of a computing system, that a first substrate is in close proximity with a second substrate , during an optical bonding operation such that an adhesive on the first substrate is not yet in contact with at least one of: the second substrate and an adhesive on the second substrate; stopping, by the processor, an automated process of optically bonding of the optical bonding operation, in response to the detecting ; recording, by the processor, operator feedback control signals , the operator feedback control signals being received from a controller being operated by an operator to contact the first substrate and the second substrate; analyzing, by the processor, the operator feedback control signals to determine a bonding sequence for automatically optically bonding the first substrate and the second substrate ; and resuming, by the processor, the automated process of the optical bonding operation .
A silicone hydrogel having a modulus of at least 6895 kPa (1000 psi) and a water content of at least 10%, formed from a reactive mixture comprising at least one N-alkyl methacrylamide and at least one silicone-containing component, wherein the modulus is measured according to the method described in the description.
A sheet comprising a pre-sintering layer; wherein thickness of the pre-sintering layer is 30 μm to 200 μm; and viscosity at 90° C of the pre-sintering layer is not less than 0.27 MPa·s; wherein the pre-sintering layer comprises metal particles; wherein the pre-sintering layer further comprises a binder having a property such that it undergoes pyrolysis when sintered; wherein the binder comprises at least one species selected from among a group consisting of polycarbonate, acrylic polymer, ethyl cellulose, and polyvinyl alcohol; wherein the metal particles have a property such that they become a sintered body when temperature is increased from 80° C to 300° C at a temperature rise rate of 1.5° C/second and is held at 300° C for 2.5 minutes; wherein the pre-sintered layer further comprises a low-boiling-point binder that has a boiling point between 100°C and 350°C; wherein the low-boiling-point binder is isobornyl cyclohexanol; and wherein the viscosity is measured using a MARS III manufactured by HAAKE with a gap of 300 μm, a diameter of 8 mm, a strain of 0.05%, and a frequency of 1 Hz. wherein thickness of the pre-sintering layer is 30 μm to 200 μm; and viscosity at 90° C of the pre-sintering layer is not less than 0.27 MPa·s; wherein the pre-sintering layer comprises metal particles; wherein the pre-sintering layer further comprises a binder having a property such that it undergoes pyrolysis when sintered; wherein the binder comprises at least one species selected from among a group consisting of polycarbonate, acrylic polymer, ethyl cellulose, and polyvinyl alcohol; wherein the metal particles have a property such that they become a sintered body when temperature is increased from 80° C to 300° C at a temperature rise rate of 1.5° C/second and is held at 300° C for 2.5 minutes; wherein the pre-sintered layer further comprises a low-boiling-point binder that has a boiling point between 100°C and 350°C; wherein the low-boiling-point binder is isobornyl cyclohexanol; and wherein the viscosity is measured using a MARS III manufactured by HAAKE with a gap of 300 μm, a diameter of 8 mm, a strain of 0.05%, and a frequency of 1 Hz.
A breath actuated inhaler having a drive adapted to drive a pressurised canister so as to retract a metering valve stem into the canister to fire the canister , the canister being adapted to move during operation between 1 and 4 mm between end positions of its length of travel relative to the valve stem , characterised by the drive being arranged to apply a firing force of between 35N and 60N of force to the canister at a position of the canister relative to the valve stem at which the canister fires.