mhurhangee/patent-ind-claim-en huggingface dataset:
Restraint control module for a vehicle, including a supply capacitance for supplying the restraint control module with energy during a period in which the restraint control module is disconnected from a battery of the vehicle; a deployment capacitance, different from the supply capacitance, the deployment capacitance storing energy for emergency functionality to be triggered by the restraint control module; characterised in that the restraint control module is configured to use energy stored in the deployment capacitance for supplying the restraint control module if the triggering of emergency functionality is disabled and the restraint control module is disconnected from the battery of the vehicle. a supply capacitance for supplying the restraint control module with energy during a period in which the restraint control module is disconnected from a battery of the vehicle; a deployment capacitance, different from the supply capacitance, the deployment capacitance storing energy for emergency functionality to be triggered by the restraint control module; characterised in that the restraint control module is configured to use energy stored in the deployment capacitance for supplying the restraint control module if the triggering of emergency functionality is disabled and the restraint control module is disconnected from the battery of the vehicle.
A computer-implemented method for responding to requests for cost data, the method being executed by one or more processors and comprising: receiving, by a cost service, a request for cost data of operation one or more virtual machines VM over a timeframe; transmitting, by the cost service, a cost data request to a cost data source; determining, by the cost service, that usable, in view of the requested timeframe, cost data is stored within a fuzzy cache of the service, and in response: calculating supplemental cost data based on the usable cost data, and transmitting an initial response comprising the supplemental cost data, the initial response being displayed at a client that had transmitted the request for the cost data; receiving, by the cost service and from the cost data source, requested cost data in response to the request for the cost data; and transmitting, by the cost service, an updated response comprising the requested cost data. receiving, by a cost service, a request for cost data of operation one or more virtual machines VM over a timeframe; transmitting, by the cost service, a cost data request to a cost data source; determining, by the cost service, that usable, in view of the requested timeframe, cost data is stored within a fuzzy cache of the service, and in response: calculating supplemental cost data based on the usable cost data, and transmitting an initial response comprising the supplemental cost data, the initial response being displayed at a client that had transmitted the request for the cost data; calculating supplemental cost data based on the usable cost data, and transmitting an initial response comprising the supplemental cost data, the initial response being displayed at a client that had transmitted the request for the cost data; receiving, by the cost service and from the cost data source, requested cost data in response to the request for the cost data; and transmitting, by the cost service, an updated response comprising the requested cost data.
Method for producing a structural part from an iron-manganese steel sheet, comprising the steps: cold-forming a sheet metal workpiece in a forming die ; heating the formed sheet metal workpiece to a temperature of between 500°C and 700°C; and calibrating the heated formed sheet metal workpiece by fixing the formed sheet metal workpiece in a calibrating die in the final shape and held cooling of the heated formed workpiece with fixed workpiece geometry at an initial temperature for the calibration in the range of between 500°C and 700°C. cold-forming a sheet metal workpiece in a forming die ; heating the formed sheet metal workpiece to a temperature of between 500°C and 700°C; and calibrating the heated formed sheet metal workpiece by fixing the formed sheet metal workpiece in a calibrating die in the final shape and held cooling of the heated formed workpiece with fixed workpiece geometry at an initial temperature for the calibration in the range of between 500°C and 700°C.
A device for closing a target tissue comprising: an elongate body ; a snare loop assembly comprising a snare and a suture loop releasably coupled to the snare, and the snare loop assembly extending at least partially from the elongate body ; a shuttle releasably coupled to the elongate body , wherein the shuttle is connected to a distal portion of the snare; and a handle attached to the elongate body, the handle comprising a track and a snare control coupled to the track , a lock , a suture control configured to tighten the suture loop, and a release assembly, wherein the track comprises a first portion and a second portion and the lock is configured to limit movement of the snare control along the second portion of the track , and wherein the release assembly is configured to release the shuttle from the elongate body and wherein a proximal portion of the suture control is configured to engage the release assembly through an opening in the handle to release the lock to allow movement of the snare control along the second portion of the track . an elongate body ; a snare loop assembly comprising a snare and a suture loop releasably coupled to the snare, and the snare loop assembly extending at least partially from the elongate body ; a shuttle releasably coupled to the elongate body , wherein the shuttle is connected to a distal portion of the snare; and a handle attached to the elongate body, the handle comprising a track and a snare control coupled to the track , a lock , a suture control configured to tighten the suture loop, and a release assembly, wherein the track comprises a first portion and a second portion and the lock is configured to limit movement of the snare control along the second portion of the track , and wherein the release assembly is configured to release the shuttle from the elongate body and wherein a proximal portion of the suture control is configured to engage the release assembly through an opening in the handle to release the lock to allow movement of the snare control along the second portion of the track .
An assembly for supporting a limb of a patient during a medical procedure configured to be received by a support bar of a surgical distractor unit for separating anatomical portions of the patient's limb during the medical procedure , said assembly comprising: an enclosure configured with side portions , an opening formed in each of said side portions adapted to receive slidably the support bar , and an arcuate side connected to said side portions formed in a generally u-shape, said enclosure is configured with one or more ridges adjacent the openings to optimize a spring lever, formed by the edges of the opening and an angle measured from an apex of the u-shape of the arcuate side to a lower edge of the side portions , and under pressure from the surgical distractor unit ; and a pad disposed on said arcuate side of said enclosure . an enclosure configured with side portions , an opening formed in each of said side portions adapted to receive slidably the support bar , and an arcuate side connected to said side portions formed in a generally u-shape, said enclosure is configured with one or more ridges adjacent the openings to optimize a spring lever, formed by the edges of the opening and an angle measured from an apex of the u-shape of the arcuate side to a lower edge of the side portions , and under pressure from the surgical distractor unit ; and a pad disposed on said arcuate side of said enclosure .
An ice making assembly , comprising: an ice maker configured to form ice pieces within the ice maker , the ice maker including an ice chute to direct the ice pieces from the ice maker ; an ice bucket defining a storage volume , the ice bucket including an opening in communication with the ice chute to receive the ice pieces into the storage volume ; an agitator rotatably mounted within the storage volume of the ice bucket ; a dispenser motor operatively coupled to a drive shaft ; a socket connected to a first end of the agitator ; a fork positioned on the drive shaft , the fork selectively engagable with the socket , whereby the fork transfers torque from the drive shaft to the agitator via the socket when the fork engages the socket ; and a lever configured to move the fork relative to the drive shaft from an engaged position to a disengaged position, wherein the fork clears the socket in the disengaged position such that the ice bucket may be removed from the ice making assembly when the fork is in the disengaged position; characterized in that the fork comprises a neck and a flange , the neck comprising a first outer diameter and the flange comprising a second outer diameter greater than the first outer diameter of the neck , further comprising a yoke partially encircling the neck of the fork , the yoke comprising an inner diameter , the inner diameter of the yoke greater than the first outer diameter of the neck of the fork and less than the second outer diameter of the flange of the fork . an ice maker configured to form ice pieces within the ice maker , the ice maker including an ice chute to direct the ice pieces from the ice maker ; an ice bucket defining a storage volume , the ice bucket including an opening in communication with the ice chute to receive the ice pieces into the storage volume ; an agitator rotatably mounted within the storage volume of the ice bucket ; a dispenser motor operatively coupled to a drive shaft ; a socket connected to a first end of the agitator ; a fork positioned on the drive shaft , the fork selectively engagable with the socket , whereby the fork transfers torque from the drive shaft to the agitator via the socket when the fork engages the socket ; and a lever configured to move the fork relative to the drive shaft from an engaged position to a disengaged position, wherein the fork clears the socket in the disengaged position such that the ice bucket may be removed from the ice making assembly when the fork is in the disengaged position; characterized in that the fork comprises a neck and a flange , the neck comprising a first outer diameter and the flange comprising a second outer diameter greater than the first outer diameter of the neck , further comprising a yoke partially encircling the neck of the fork , the yoke comprising an inner diameter , the inner diameter of the yoke greater than the first outer diameter of the neck of the fork and less than the second outer diameter of the flange of the fork .
Ultrasonic sensor device for arrangement on a fairing component of a vehicle, comprising an ultrasonic sensor and a mount with a carrier and a cap , wherein the ultrasonic sensor comprises an oscillating element , the carrier has a connecting section by means of which the carrier can be connected in a materially joined fashion to the fairing component , and has a frame section which forms a receptacle region for the ultrasonic sensor , wherein an opening , through which the oscillating element of the ultrasonic sensor extends, is provided in the connecting section , and where the cap is detachably fastened to the carrier by means of a latching connection, wherein the cap bounds the receptacle region on the side facing away from the connecting section , characterized in that the carrier is embodied as a hybrid component with a metal inlay which is encapsulated by injection moulding with plastic , wherein the metal inlay extends both over the connecting section and over the frame section , and wherein a first section of the metal inlay extends parallel to a surface by means of which the carrier can be joined to the fairing component , and a second section of the metal inlay extends perpendicular with respect to the first section , and a radial free space is formed between the ultrasonic sensor and the frame section of the carrier in the receptacle region , and the cap has a centring rib which engages at least partially in the free space .
A joint assembly comprising: a composite tube comprising a body having a longitudinal centerline axis and an end portion comprising an end rim that is circumferentially continuous, wherein at least one of a radially outward edge and a radially inward edge of the end rim is non-circular; and characterized by a support wedge that at least partially engages at least one of a radially inward surface of the end portion and a radially outward surface of the end portion; wherein the end portion of the composite tube comprises a tapered section that diverges radially outward in a direction from the body to the end rim. a composite tube comprising a body having a longitudinal centerline axis and an end portion comprising an end rim that is circumferentially continuous, wherein at least one of a radially outward edge and a radially inward edge of the end rim is non-circular; and characterized by a support wedge that at least partially engages at least one of a radially inward surface of the end portion and a radially outward surface of the end portion; wherein the end portion of the composite tube comprises a tapered section that diverges radially outward in a direction from the body to the end rim.
Aircraft seat device, with at least one mounting unit (12a; 12b; 12c), with at least one backrest (24a; 24b; 24c; 24d) that is coupled with the mounting unit (12a; 12b; 12c), with at least one seat bottom (28a; 28b; 28c; 28d) that is coupled with the mounting unit (12a; 12b; 12c) and/or with the backrest (24a; 24b; 24c; 24d), and with at least one kinematics module (34a; 34b), which is configured to adjust the backrest (24a; 24b; 24c; 24d) between at least a normal, substantially upright sitting position and a comfort position, the kinematics module (34a; 34b) being configured, in at least one operation state, to adjust the backrest (24a; 24b; 24c; 24d) into a further, special upright position, which is different from the upright sitting position and in which the backrest (24a; 24b; 24c; 24d) is at least in a subregion adjusted frontwards in comparison to the normal upright sitting position, characterised in that the kinematics module (34a; 34b; 34c; 34d; 34e) is configured, in a non-use operation state, to adjust the backrest (24a; 24b; 24c; 24d) automatically into the special upright position. with at least one mounting unit (12a; 12b; 12c), with at least one backrest (24a; 24b; 24c; 24d) that is coupled with the mounting unit (12a; 12b; 12c), with at least one seat bottom (28a; 28b; 28c; 28d) that is coupled with the mounting unit (12a; 12b; 12c) and/or with the backrest (24a; 24b; 24c; 24d), and with at least one kinematics module (34a; 34b), which is configured to adjust the backrest (24a; 24b; 24c; 24d) between at least a normal, substantially upright sitting position and a comfort position, the kinematics module (34a; 34b) being configured, in at least one operation state, to adjust the backrest (24a; 24b; 24c; 24d) into a further, special upright position, which is different from the upright sitting position and in which the backrest (24a; 24b; 24c; 24d) is at least in a subregion adjusted frontwards in comparison to the normal upright sitting position, characterised in that the kinematics module (34a; 34b; 34c; 34d; 34e) is configured, in a non-use operation state, to adjust the backrest (24a; 24b; 24c; 24d) automatically into the special upright position.
A three-dimensional illumination chart , comprising: a substrate divided into a number of portions (104-1, 104-2), wherein each portion comprises a raised relief pattern disposed thereon having a relief angle relative to a reference line , wherein each relief angle of the raised relief patterns of the number of portions is different from other relief angles of other raised relief patterns of other portions. a substrate divided into a number of portions (104-1, 104-2), wherein each portion comprises a raised relief pattern disposed thereon having a relief angle relative to a reference line , wherein each relief angle of the raised relief patterns of the number of portions is different from other relief angles of other raised relief patterns of other portions.
Housing arrangement for a radar sensor , comprising at least one tubular body , a lens being attached to a distal end of the tubular body , a radar sender and a radar receiver being arranged in the tubular body at a proximal end , with the housing arrangement having a shielding device for radar beams arranged on a side wall of the tubular body , the tubular body consisting of a dielectric plastics material and the shielding device being arranged on an external face of the tubular body and having a layer applied to the tubular body or a film or a metal part separate from the tubular body , characterized in that the tubular body is a circular cylinder.
A lamp utilizing a bar-shaped light source with unsafe voltage, comprising an unsafe voltage power supply, a bar-shaped solid light source and a non-insulating housing for fixing the bar-shaped LED light source , wherein the bar-shaped LED light source is a bar-shaped light source with a substrate of aluminum , an insulation spacer is disposed between the bar-shaped LED light source with a substrate of aluminum and the housing , and the distance between the bar-shaped LED light source with a substrate of aluminum and the edge around the insulation spacer is larger than or equal to the creepage distance defined in safety regulation; and the bar-shaped solid light source is fixed to the housing in a manner that an insulating fixing member presses the bar-shaped LED light source , crosses the creepage distance and fixes its one or more ends to the housing , characterized in that the insulation fixing member presses the bas-shaped LED light source by means of opening fixing holes in pairs in the housing on both sides of the insulation spacer , and passing the insulating fixing member through the fixing holes , to cross and fix the bar-shaped LED light source with a substrate of aluminum ; the insulating fixing member is a bridge-shaped snap , an annular snap, an ultrasonic riveting member or an ultrasonic welding member ; wherein the insulating fixing member comprises a jumper , elastic pawls connected to both ends of the jumper and a pair of positioning teeth arranged on the jumper ; the jumper is covered on the bar-shaped light source with a substrate of aluminum ; positioning slots are arranged on both sides of the substrate of aluminum; the positioning teeth are embed into the positioning slots to prevent the bar-shape LED light source with a substrate of aluminum from moving; each of the elastic pawls at both ends of the jumper passes through the fixing holes on both sides of the bar-shaped LED light source with a substrate of aluminum, so as to use the elasticity of the snap to ensure the elastic pawls be fixed in the fixing holes firmly and not fall off.
A root canal filler comprising autologous or allogeneic dental pulp stem cells, an extracellular matrix, and a CCR3 antagonist, wherein the CCR3 antagonist is selected from: ; or wherein A is CH 2 or O, R 1 is NHR, wherein R is C1-C6 alkyl, R 2 is C1-C6 alkylene-phenyl, R 3 is H or C1-C6 alkyl, and R 4 is H or C1-C6 alkyl.
A curing device for a resin composite material , the curing device comprising: an environment setting unit which is adapted for applying a specific physical environment to an uncured resin composite material including a fibrous reinforcing material, a thermosetting or thermoplastic matrix resin, and a metal nanomaterial selected from platinum, gold, nickel and copper, wherein the specific physical environment is such that the molecular momentum of the metal nanomaterial is increased and the metal nanomaterial self-heats when placed in the specific physical environment; a pressurizing body which is adapted for coming into pressure-contact with a surface of the resin composite material ; and a pressure-contact driving unit which allows the pressurizing body to come into pressure-contact with the surface of the resin composite material , wherein the environment setting unit is an electromagnetic wave irradiation unit, and the specific physical environment is a state where electromagnetic waves (EW) are emitted by the electromagnetic wave irradiation unit. an environment setting unit which is adapted for applying a specific physical environment to an uncured resin composite material including a fibrous reinforcing material, a thermosetting or thermoplastic matrix resin, and a metal nanomaterial selected from platinum, gold, nickel and copper, wherein the specific physical environment is such that the molecular momentum of the metal nanomaterial is increased and the metal nanomaterial self-heats when placed in the specific physical environment; a pressurizing body which is adapted for coming into pressure-contact with a surface of the resin composite material ; and a pressure-contact driving unit which allows the pressurizing body to come into pressure-contact with the surface of the resin composite material , wherein the environment setting unit is an electromagnetic wave irradiation unit, and the specific physical environment is a state where electromagnetic waves (EW) are emitted by the electromagnetic wave irradiation unit.