mhurhangee/patent-ind-claim-en huggingface dataset:
Method for carrying out a multiple welding method, in which a welding process is carried out on a workpiece using at least two electrodes (EA, EB) each having a welding current circuit, characterized in that a test parameter is applied to one of the at least two welding current circuits before the start or after the end of the multiple welding method and at least one electrical welding parameter (Pi) is recorded in at least one other welding current circuit, wherein an electrically conductive connection is detected between the at least two welding current circuits, if the recorded welding parameter (Pi) is influenced by the test parameter and fulfills a predetermined test criterion, or in that at least one electrical welding parameter (Pi) is recorded in each welding current circuit during the multiple welding method, wherein an electrically conductive connection is detected between the at least two welding current circuits, if the recorded welding parameters (Pi) change simultaneously.
A catalyst for the purification of exhaust gas having a catalyst layer of catalyst components comprising a noble metal, magnesium oxide, and a refractory inorganic oxide formed on a three-dimensional structure, wherein the catalyst layer has two peaks originated from the magnesium oxide in a pore distribution obtained by mercury intrusion technique, wherein the two peaks are composed of a first peak present in the range of 1 to 5 μm, and a second peak present in the range of 0.1 to 1 μm; and wherein a supported amount of the magnesium oxide is 0.5 to 9g per 1 L of the three-dimensional structure.
Car body having a front structure, wherein - the front structure comprises a coupling carrier for receiving and pivotably mounting a coupling , - the coupling carrier encloses a receiving region , which is accessible from the outside via a push-in opening in the coupling carrier , wherein a longitudinal end of a coupling having a pin can be pushed into the receiving region via the push-in opening , - the coupling carrier comprises at least one rotary bearing , which is designed to receive a rotary plate and to mount said rotary plate so as to be able to rotate about an axis of rotation (A), - the coupling carrier is configured such that a rotary plate received in the rotary bearing can be connected to a pin of a coupling pushed into the receiving region and, as a result, the coupling is mounted on the coupling carrier so as to be able to pivot about the axis of rotation (A), - the coupling carrier is connected to the rest of the front structure in such a manner that the coupling carrier cannot be detached from the front structure in a non-destructive manner. - the front structure comprises a coupling carrier for receiving and pivotably mounting a coupling , - the coupling carrier encloses a receiving region , which is accessible from the outside via a push-in opening in the coupling carrier , wherein a longitudinal end of a coupling having a pin can be pushed into the receiving region via the push-in opening , - the coupling carrier comprises at least one rotary bearing , which is designed to receive a rotary plate and to mount said rotary plate so as to be able to rotate about an axis of rotation (A), - the coupling carrier is configured such that a rotary plate received in the rotary bearing can be connected to a pin of a coupling pushed into the receiving region and, as a result, the coupling is mounted on the coupling carrier so as to be able to pivot about the axis of rotation (A), - the coupling carrier is connected to the rest of the front structure in such a manner that the coupling carrier cannot be detached from the front structure in a non-destructive manner.
A processing system for determining position information for a device within a body of a subject , wherein the device is capable of outputting and/or routing an acoustic signal having a frequency of no more than 20 kHz, the processing system being configured to: receive, from a first sensor positioned externally to the body of the subject, a first received signal responsive to the acoustic signal output and/or routed by the device; obtain a value for one or more parameters of the first received signal, wherein each of the one or more parameters is a parameter of the first received signal that varies with the distance traveled by the acoustic signal; and process the value for each of the one or more parameters to determine position information for the device. receive, from a first sensor positioned externally to the body of the subject, a first received signal responsive to the acoustic signal output and/or routed by the device; obtain a value for one or more parameters of the first received signal, wherein each of the one or more parameters is a parameter of the first received signal that varies with the distance traveled by the acoustic signal; and process the value for each of the one or more parameters to determine position information for the device.
A lighting device comprising: a lighting panel ; a plurality of winches coupled at different, respective locations to the lighting panel ; one or more controllers configured to control the winches to raise and/or lower the lighting panel at one or more of the different, respective locations ; and a safety control device coupled to the plurality of winches and the one or more controllers , wherein the safety control device is configured to receive, from the winches , status data relating to a setup process status, and wherein, when the status data satisfies a predefined condition, the safety control device is configured to: control one or more of the winches to stop raising and/or lowering the lighting panel , and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches , and/or disable and/or switch off power supply to one or more of the winches , and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device , and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches . a lighting panel ; a plurality of winches coupled at different, respective locations to the lighting panel ; one or more controllers configured to control the winches to raise and/or lower the lighting panel at one or more of the different, respective locations ; and a safety control device coupled to the plurality of winches and the one or more controllers , wherein the safety control device is configured to receive, from the winches , status data relating to a setup process status, and wherein, when the status data satisfies a predefined condition, the safety control device is configured to: control one or more of the winches to stop raising and/or lowering the lighting panel , and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches , and/or disable and/or switch off power supply to one or more of the winches , and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device , and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches . control one or more of the winches to stop raising and/or lowering the lighting panel , and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches , and/or disable and/or switch off power supply to one or more of the winches , and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device , and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches .
A method for turning off an internal combustion engine of a vehicle powertrain system (P), wherein the powertrain system (P) further comprises a transmission and a clutch arrangement connected to and arranged between the internal combustion engine and the transmission , wherein the clutch arrangement comprises a first clutch arranged to couple the internal combustion engine to a first input shaft of the transmission and a second clutch arranged to couple the internal combustion engine to a second input shaft of the transmission , wherein the first input shaft is drivingly connected to a first set of gears and the second input shaft is drivingly connected to a second set of gears , wherein the first set of gears and the second set of gears are connected to an output shaft of the transmission , wherein the method comprises the steps: controlling the internal combustion engine in an idling state when the vehicle is in a standstill position, wherein the first clutch and the second clutch are arranged in open positions; engaging the first input shaft with a first pre-selected gear of the first set of gears , and engaging the second input shaft with a second pre-selected gear of the second set of gears ; initiating an engine turning off command; stopping the internal combustion engine by at least partly closing the first clutch and the second clutch for simultaneously introducing torque transfer to the first clutch and the second clutch into a transmission tie-up state for a controlled engine stop, wherein engine inertia of the internal combustion engine is captured in the first clutch and the second clutch ; cutting off fuel supply to the internal combustion engine , characterized in that the fuel supply to the internal combustion engine is cut off after closing of the first clutch and the second clutch for simultaneously introducing torque transfer to the first clutch and the second clutch into the controlled transmission tie-up state. controlling the internal combustion engine in an idling state when the vehicle is in a standstill position, wherein the first clutch and the second clutch are arranged in open positions; engaging the first input shaft with a first pre-selected gear of the first set of gears , and engaging the second input shaft with a second pre-selected gear of the second set of gears ; initiating an engine turning off command; stopping the internal combustion engine by at least partly closing the first clutch and the second clutch for simultaneously introducing torque transfer to the first clutch and the second clutch into a transmission tie-up state for a controlled engine stop, wherein engine inertia of the internal combustion engine is captured in the first clutch and the second clutch ; cutting off fuel supply to the internal combustion engine , characterized in that the fuel supply to the internal combustion engine is cut off after closing of the first clutch and the second clutch for simultaneously introducing torque transfer to the first clutch and the second clutch into the controlled transmission tie-up state.
A mobile electric leakage detection device comprising: a plurality of electrodes in a form of wheels, configured to be capacitively coupled to ground; a plurality of moisture supply means for supplying moisture to the plurality of electrodes; and a potential measuring section for measuring a plurality of earth potential values input from the plurality of electrodes, characterized in that each wheel is comprised of an elastic vehicle tire around which a metal conductor is wound up, wherein a hygroscopic carbon fiber fabric is disposed on said metal conductor, wherein the plurality of moisture supply means supplies moisture to the hygroscopic carbon fiber fabric to distribute an earth potential substantially evenly over the hygroscopic carbon fiber fabric. a plurality of electrodes in a form of wheels, configured to be capacitively coupled to ground; a plurality of moisture supply means for supplying moisture to the plurality of electrodes; and a potential measuring section for measuring a plurality of earth potential values input from the plurality of electrodes, characterized in that each wheel is comprised of an elastic vehicle tire around which a metal conductor is wound up, wherein a hygroscopic carbon fiber fabric is disposed on said metal conductor, wherein the plurality of moisture supply means supplies moisture to the hygroscopic carbon fiber fabric to distribute an earth potential substantially evenly over the hygroscopic carbon fiber fabric.
A home appliance having a body , a flange provided on said body , and a panel connected to said flange and said flange is provided so as to stay behind the panel provided on the front face of the home appliance and extends upwardly from the upper ends of the body at the two sides of the body and said panel comprising a front wall , an upper wall extending towards the body from the two mutual edges of the front wall and a lower wall , wherein the home appliance comprises a support element which fills the clearance left between the flange and the front wall of the panel when the panel is mounted to the flange , wherein the support element comprises a body extending in the direction of the height of the front wall and the support element is rested to a support edge of the flange from one side, and it is rested to a rear face of the front wall from the other side wherein the side of the front wall facing the body is defined as the rear face , wherein in order to provide fixation of the support element on the flange , at least one coupling tab is provided on one of the support edge and the support element and at least one housing is provided on the other one of the support edge and the support element and wherein the housing is a channel provided on the support edge and accordingly, the support element comprises a couple of coupling tabs which are spaced apart from each other and which extend outwardly from the body of the support element , characterized in that each coupling tab is provided with at least one inclined surface each formed at the end of its respective coupling tab as being opposite sides with respect to each other and wherein each coupling tab comprises at least one locking protrusion formed on opposite sides with respect to each other.
A monoclonal antibody that is capable of specifically binding to lectin-like transcript (LLT1), wherein the heavy chain of said antibody comprises: - a CDR1 sequence of amino acids 31 to 35 which are DYYMH of SEQ ID NO: 10 and - a CDR2 sequence of amino acids 50 to 66 which are WIDPENGDTEYAPKFQG of SEQ ID NO: 10 and - a CDR3 sequence of amino acids 98 to 109 which are EIITTTAWFTY of SEQ ID NO 10 and wherein the light chain of said antibody comprises: - a CDR1 sequence of amino acids 24 to 40 which are KSSQSLLYTNGKTYLNW of SEQ ID NO: 13 and - a CDR2 sequence of amino acids 56 to 62 which are VSKLDSG of SEQ ID NO: 13 and - a CDR3 sequence of amino acids 94 to 102 which are LQNTHFPHT of SEQ ID NO : 13. - a CDR1 sequence of amino acids 31 to 35 which are DYYMH of SEQ ID NO: 10 and - a CDR2 sequence of amino acids 50 to 66 which are WIDPENGDTEYAPKFQG of SEQ ID NO: 10 and - a CDR3 sequence of amino acids 98 to 109 which are EIITTTAWFTY of SEQ ID NO 10 and wherein the light chain of said antibody comprises: - a CDR1 sequence of amino acids 24 to 40 which are KSSQSLLYTNGKTYLNW of SEQ ID NO: 13 and - a CDR2 sequence of amino acids 56 to 62 which are VSKLDSG of SEQ ID NO: 13 and - a CDR3 sequence of amino acids 94 to 102 which are LQNTHFPHT of SEQ ID NO : 13.
Use of a device comprising at least two ramp elements which are arranged in parallel next to one another perpendicularly to the direction of flow and over which the flowing medium can flow, the ramp elements being each assigned with a first end to an upstream water and with a second end opposite the first end, to a downstream water, wherein the ramp elements have different gradients in the flow direction (S), wherein a gradient of a first ramp element is independently adjustable from at least one gradient of a second ramp element , for generating a spatially standing wave in a flowing medium with a three-dimensional flow guidance while adjusting an extension of the wave in the flow direction (S).
A prosthetic heart valve having a compressed delivery configuration and an expanded deployed configuration, the prosthetic heart valve comprising: a self-expanding stent body having a tubular body and a cuff integral with and extending from the tubular body, a cuff covering being disposed on the cuff; characterized by a leaflet structural support disposed within a lumen of the tubular body and attached to the stent body, the leaflet structural support being configured to be compressed when the prosthetic heart valve is in the compressed delivery configuration and to expand to the expanded configuration when the prosthetic heart valve is deployed from a deployment catheter; and a prosthetic leaflet structure attached to the leaflet structural support, the cuff including a plurality of radially extending loops collectively defining a collar shape and defining circumferential spaces between adjacent loops, the collar having a distal-facing side and a proximal-facing side, wherein the leaflet structural support includes three junctions that are not directly connected to the stent body, and three arched wires that are directly connected to the stent body, so that the three junctions of the leaflet structural support are independently moveable with respect to the stent body, wherein the leaflet structural support is housed within the stent body in both the compressed delivery configuration and in the expanded deployed configuration. a self-expanding stent body having a tubular body and a cuff integral with and extending from the tubular body, a cuff covering being disposed on the cuff; characterized by a leaflet structural support disposed within a lumen of the tubular body and attached to the stent body, the leaflet structural support being configured to be compressed when the prosthetic heart valve is in the compressed delivery configuration and to expand to the expanded configuration when the prosthetic heart valve is deployed from a deployment catheter; and a prosthetic leaflet structure attached to the leaflet structural support, the cuff including a plurality of radially extending loops collectively defining a collar shape and defining circumferential spaces between adjacent loops, the collar having a distal-facing side and a proximal-facing side, wherein the leaflet structural support includes three junctions that are not directly connected to the stent body, and three arched wires that are directly connected to the stent body, so that the three junctions of the leaflet structural support are independently moveable with respect to the stent body, wherein the leaflet structural support is housed within the stent body in both the compressed delivery configuration and in the expanded deployed configuration.
A gas turbine engine , comprising: an inner shaft extending axially along the gas turbine engine ; a first disk and a second disk extending radially inwardly and toward the inner shaft , said disks are located adjacent to one another; at least one web or diaphragm hole in each disk ; and an obstruction positioned between the inner shaft and an end of at least one disk , such that a bore flow that flows along an axial length of the inner shaft is obstructed from flowing along the shaft by the obstruction, and flows radially outward from the obstruction , through the at least one hole , and radially inward toward the inner shaft . an inner shaft extending axially along the gas turbine engine ; a first disk and a second disk extending radially inwardly and toward the inner shaft , said disks are located adjacent to one another; at least one web or diaphragm hole in each disk ; and an obstruction positioned between the inner shaft and an end of at least one disk , such that a bore flow that flows along an axial length of the inner shaft is obstructed from flowing along the shaft by the obstruction, and flows radially outward from the obstruction , through the at least one hole , and radially inward toward the inner shaft .
A computer implemented method, comprising: receiving a signal associated with an analyte level of a user; determining whether the received signal shows a transition from above a first predetermined level to below another second predetermined level; determining an operational state associated with an analyte monitoring device as a no detected sensor state if the transition is detected; and generating an output data associated with the operational state of the analyte monitoring device based on the determined operational state. receiving a signal associated with an analyte level of a user; determining whether the received signal shows a transition from above a first predetermined level to below another second predetermined level; determining an operational state associated with an analyte monitoring device as a no detected sensor state if the transition is detected; and generating an output data associated with the operational state of the analyte monitoring device based on the determined operational state.
A method for performing a handover by a mobile subscriber station in a mobile communication system, the method comprising: transmitting a handover request message to a serving base station ; receiving a handover response message in response to the handover request message from the serving base station ; and performing a network reentry process for a handover with a recommended neighbor base station according to an indication field included in the handover response message, wherein the handover response message includes an identifier of the recommended neighbor base station and the indication field indicating whether at least one of a subscriber station basic capability request, SBC-REQ, message , a subscriber station basic capability response, SBC-RSP, message , a registration request, REG-REQ, message , and a registration response, REG-RSP, message is required or omitted during the network reentry process with the mobile subscriber station and the recommended neighbor base station. transmitting a handover request message to a serving base station ; receiving a handover response message in response to the handover request message from the serving base station ; and performing a network reentry process for a handover with a recommended neighbor base station according to an indication field included in the handover response message, wherein the handover response message includes an identifier of the recommended neighbor base station and the indication field indicating whether at least one of a subscriber station basic capability request, SBC-REQ, message , a subscriber station basic capability response, SBC-RSP, message , a registration request, REG-REQ, message , and a registration response, REG-RSP, message is required or omitted during the network reentry process with the mobile subscriber station and the recommended neighbor base station.
Vehicle for transporting objects, the vehicle comprising a crate which is intended to hold said objects and which comprises at least one opening , and at least one door , each of which closes such an opening and which, depending on the circumstances, prevents or allows entry into the crate , characterized by the fact that it comprises a winch , which is located inside the crate and which comprises a hook , a cable having a free end equipped with said hook , a drum for winding the cable and a motor for driving said drum , said vehicle also comprising securing means for fixedly securing the winch to the crate and, additionally, at least one fastening means comprised by said at least one door , while the hook of the winch cooperates directly or indirectly with said at least one fastening means and, moreover, remote control means of the motor of the winch .