mhurhangee/ep-ind-claims huggingface dataset:
Process for measuring the welding depth during welding by means of a working laser beam, in which process - a measuring light beam from a sensor system is coupled into a machining beam path of the working laser beam in a laser machining head and is bundled or focused by focusing optics of the machining beam path into a measuring light spot on a surface of a workpiece, - the measuring light beam reflected on the surface of the workpiece is returned to a measuring and evaluation unit of the sensor system so that information is obtained about the distance between the surface of the workpiece and the laser machining head, - the position of the measuring light spot on the surface of the workpiece is guided over the vapor capillary both in the welding direction and transversely thereto so that a surface profile of the workpiece in the region of the vapor capillary is obtained, - the position of the vapor capillary relative to the point of incidence of the working laser beam is determined from the surface profile of the workpiece in the region of the vapor capillary, and - the measuring light spot for measuring the welding depth during laser machining is moved into the determined position of the vapor capillary, characterized in that the position of the vapor capillary relative to the point of incidence of the working laser beam is determined for predetermined process parameters of a machining process during a machining test and is stored as the measuring spot position for this machining process. - a measuring light beam from a sensor system is coupled into a machining beam path of the working laser beam in a laser machining head and is bundled or focused by focusing optics of the machining beam path into a measuring light spot on a surface of a workpiece, - the measuring light beam reflected on the surface of the workpiece is returned to a measuring and evaluation unit of the sensor system so that information is obtained about the distance between the surface of the workpiece and the laser machining head, - the position of the measuring light spot on the surface of the workpiece is guided over the vapor capillary both in the welding direction and transversely thereto so that a surface profile of the workpiece in the region of the vapor capillary is obtained, - the position of the vapor capillary relative to the point of incidence of the working laser beam is determined from the surface profile of the workpiece in the region of the vapor capillary, and - the measuring light spot for measuring the welding depth during laser machining is moved into the determined position of the vapor capillary,
Method, applied to the steering system or another control unit or an electronic system of the vehicle, for avoiding an overtemperature situation in a vehicle, in particular individual components of the vehicle, wherein a first and a second power budget are defined, wherein the first power budget is provided for a first component and/or a first group of components and the second power budget is provided for a second component and/or a second group of components, comprising the steps of: stipulating a first power budget for a first component of the vehicle, replenishing the first power budget and decreasing the first power budget during operation of the vehicle, characterized by the step of: assigning and/or transferring the first power budget or parts thereof to the second power budget. stipulating a first power budget for a first component of the vehicle, replenishing the first power budget and decreasing the first power budget during operation of the vehicle, characterized by the step of: assigning and/or transferring the first power budget or parts thereof to the second power budget.
An endometrial vapor ablation system, comprising: a vapor generator comprising a first pressure sensor; a uterine ablation device coupled to the vapor generator, the uterine ablation device comprising: a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon (108, 110, 112) disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon (108, 110, 112); a control system coupled to the uterine ablation device and the vapor generator, the control system being configured to automatically perform a pre-procedural sterilization of the vapor generator and the uterine ablation device, the control system being configured to pressurize the tip cover, with the at least one balloon (108, 110, 112) inflated, and compare a sensed pressure of the first pressure sensor to a sensed pressure of the second pressure sensor to test for leaks in the at least one balloon (108, 110, 112), and, after removal of the tip cover, the control system being configured to monitor the application of vapor energy, monitor temperature readings at identified locations on the uterine ablation device, and implement shutdown of the vapor generator following vapor delivery. a vapor generator comprising a first pressure sensor; a uterine ablation device coupled to the vapor generator, the uterine ablation device comprising: a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon (108, 110, 112) disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon (108, 110, 112); a shaft configured to be inserted_into a uterine cavity of a patient; one or more lumens disposed in the shaft and coupled to the vapor generator; a second pressure sensor; at least one balloon (108, 110, 112) disposed on the shaft; a tip cover disposed over the shaft and the at least one balloon (108, 110, 112); a control system coupled to the uterine ablation device and the vapor generator, the control system being configured to automatically perform a pre-procedural sterilization of the vapor generator and the uterine ablation device, the control system being configured to pressurize the tip cover, with the at least one balloon (108, 110, 112) inflated, and compare a sensed pressure of the first pressure sensor to a sensed pressure of the second pressure sensor to test for leaks in the at least one balloon (108, 110, 112), and, after removal of the tip cover, the control system being configured to monitor the application of vapor energy, monitor temperature readings at identified locations on the uterine ablation device, and implement shutdown of the vapor generator following vapor delivery.
A method in a first network node for signaling a point-to-multipoint traffic path from one ingress node to a plurality of egress nodes in a network, which traffic path includes a plurality of source-to-leaf sub paths, wherein each source-to-leaf sub path is set up between the ingress node and an egress node, said method comprising the steps of: encoding the point-to-multipoint traffic path using an encoding scheme to produce a number of path descriptors, including said number of path descriptors in at least one path message (21, 31), sending the at least one path message to at least one second network node to enable routing of traffic according to the point-to-multipoint traffic path, characterized by said encoding scheme including a step of producing a common explicit route object as one of the number of path descriptors, which common explicit route object specifies a list consisting of nodes, downlink from the first network node, that every source-to-leaf sub path, traversing the second network node and belonging to the point-to-multipoint traffic path, should traverse, and said encoding scheme further including a step of producing at least one sub path descriptor, which specifies a list of nodes, downlink from the first network node and excluding any node listed in the common explicit route object, that one of the source-to-leaf sub paths should traverse to reach the egress node of that source-to-leaf sub path. encoding the point-to-multipoint traffic path using an encoding scheme to produce a number of path descriptors, including said number of path descriptors in at least one path message (21, 31), sending the at least one path message to at least one second network node to enable routing of traffic according to the point-to-multipoint traffic path, characterized by said encoding scheme including a step of producing a common explicit route object as one of the number of path descriptors, which common explicit route object specifies a list consisting of nodes, downlink from the first network node, that every source-to-leaf sub path, traversing the second network node and belonging to the point-to-multipoint traffic path, should traverse, and said encoding scheme further including a step of producing at least one sub path descriptor, which specifies a list of nodes, downlink from the first network node and excluding any node listed in the common explicit route object, that one of the source-to-leaf sub paths should traverse to reach the egress node of that source-to-leaf sub path.
A photographing method, comprising: judging (101, 201) whether dithering is present in response to an operation of pressing a shutter of a photographing device; if dithering is present, determining a parameter of the photographing device, the parameter corresponding to a current processing mode of the photographing device; and adjusting the parameter; wherein judging (101, 201) whether dithering is present comprises: acquiring a dithering amplitude of the photographing device via a sensor in response to the operation of pressing the shutter of the photographing device; judging whether the dithering amplitude is greater than a predetermined amplitude; and determining that dithering is present when the dithering amplitude is greater than the predetermined amplitude; characterized in that the sensor is operable to acquire, in real time, partial dithering amplitudes of the photographing device along horizontal and vertical directions, and to use the sum of the partial dithering amplitudes of the photographing device along horizontal and vertical directions as the dithering amplitude. judging (101, 201) whether dithering is present in response to an operation of pressing a shutter of a photographing device; if dithering is present, determining a parameter of the photographing device, the parameter corresponding to a current processing mode of the photographing device; and adjusting the parameter; wherein judging (101, 201) whether dithering is present comprises: acquiring a dithering amplitude of the photographing device via a sensor in response to the operation of pressing the shutter of the photographing device; judging whether the dithering amplitude is greater than a predetermined amplitude; and determining that dithering is present when the dithering amplitude is greater than the predetermined amplitude; characterized in that the sensor is operable to acquire, in real time, partial dithering amplitudes of the photographing device along horizontal and vertical directions, and to use the sum of the partial dithering amplitudes of the photographing device along horizontal and vertical directions as the dithering amplitude. acquiring a dithering amplitude of the photographing device via a sensor in response to the operation of pressing the shutter of the photographing device; judging whether the dithering amplitude is greater than a predetermined amplitude; and determining that dithering is present when the dithering amplitude is greater than the predetermined amplitude; characterized in that the sensor is operable to acquire, in real time, partial dithering amplitudes of the photographing device along horizontal and vertical directions, and to use the sum of the partial dithering amplitudes of the photographing device along horizontal and vertical directions as the dithering amplitude.
A method comprising: storing a constant path loss exponent corresponding to free space; receiving a signal via a rake receiver of a user device; identifying a maximum received signal strength, during an instant t, based on a signal strength associated with the signal relative to fingers of the rake receiver; storing a current maximum received signal strength value based on the identifying; determining whether the current maximum received signal strength value is a first maximum received signal strength value that is stored of a sequence of samples of signal strengths received; calculating a current indoor position of the user device based on the constant path loss exponent, regardless of the type of multipath environment in which the user device resides, and the current maximum received signal strength value when a determination is that the current maximum received signal strength value is the first maximum received signal strength value; outputting the current indoor position, and recalculating the current indoor position of the user device when a determination is that the current maximum received signal strength value is not the first maximum received signal strength value and there is a significant increase or decrease in maximum received signal strength value, based on the current maximum received signal strength value and the constant path loss exponent, and recalculating previous positions based on the current position and at least one of accelerometer, gyroscope, or compass information. storing a constant path loss exponent corresponding to free space; receiving a signal via a rake receiver of a user device; identifying a maximum received signal strength, during an instant t, based on a signal strength associated with the signal relative to fingers of the rake receiver; storing a current maximum received signal strength value based on the identifying; determining whether the current maximum received signal strength value is a first maximum received signal strength value that is stored of a sequence of samples of signal strengths received; calculating a current indoor position of the user device based on the constant path loss exponent, regardless of the type of multipath environment in which the user device resides, and the current maximum received signal strength value when a determination is that the current maximum received signal strength value is the first maximum received signal strength value; outputting the current indoor position, and recalculating the current indoor position of the user device when a determination is that the current maximum received signal strength value is not the first maximum received signal strength value and there is a significant increase or decrease in maximum received signal strength value, based on the current maximum received signal strength value and the constant path loss exponent, and recalculating previous positions based on the current position and at least one of accelerometer, gyroscope, or compass information.
A method performed by a user equipment, the method comprising: receiving first information indicating a plurality of physical random access channel resources configured for beam failure recovery; and receiving second information indicating a command for a set of the plurality of physical random access channel resources, wherein each of the plurality of physical random access channel resources is associated with a downlink reference signal of a plurality of downlink reference signals; wherein receiving the second information indicating the command for the set of the plurality of physical random access channel resources comprises receiving the second information via a medium access control control element; and wherein the second information comprises a bitmap, and each bit of the bitmap indicates the command for a physical random access channel resource of the set of the plurality of physical random access channel resources. receiving first information indicating a plurality of physical random access channel resources configured for beam failure recovery; and receiving second information indicating a command for a set of the plurality of physical random access channel resources, wherein each of the plurality of physical random access channel resources is associated with a downlink reference signal of a plurality of downlink reference signals; wherein receiving the second information indicating the command for the set of the plurality of physical random access channel resources comprises receiving the second information via a medium access control control element; and wherein the second information comprises a bitmap, and each bit of the bitmap indicates the command for a physical random access channel resource of the set of the plurality of physical random access channel resources.
A multi-purpose radiation therapy system, comprising a base, a movable couch, a rotatable gantry, and a radiotherapeutic apparatus, the movable couch and the rotatable gantry being arranged on the base, and the radiotherapeutic apparatus being movably installed on the rotatable gantry, wherein the radiotherapeutic apparatus comprises a multi-source focusing radiotherapeutic unit and an adaptive intensity modulated radiotherapeutic unit said units being distributed at both sides of a rotatable gantry axis, characterised in that the adaptive intensity modulated radiotherapeutic unit comprises a radioactive source, a precollimator, and a multi-leaf collimator.
A method for performing interference control, applied to a TDD system and other systems which need to dynamically adjust uplink and downlink configurations of subframes, comprising: determining, by a network side device, a traffic load parameter value of each cell and a measurement parameter value between base stations which serve for any two cells; for the two cells, determining, by the network side device, an interference control threshold value according to the traffic load parameter values of the two cells, comparing the measurement parameter value determined with the interference control threshold value and dividing the two cells into clusters according to the comparison result; and performing, by the network side device, interference control according to clusters after dividing; the method being characterised in that the traffic load parameter value of each cell comprises one or more of the following parameter values: frequency resource occupancy rate, time resource occupancy rate, resource occupancy rate in a specific resource set and statistics of occupancy rates of different traffic types of resources. determining, by a network side device, a traffic load parameter value of each cell and a measurement parameter value between base stations which serve for any two cells; for the two cells, determining, by the network side device, an interference control threshold value according to the traffic load parameter values of the two cells, comparing the measurement parameter value determined with the interference control threshold value and dividing the two cells into clusters according to the comparison result; and performing, by the network side device, interference control according to clusters after dividing; the method being characterised in that the traffic load parameter value of each cell comprises one or more of the following parameter values: frequency resource occupancy rate, time resource occupancy rate, resource occupancy rate in a specific resource set and statistics of occupancy rates of different traffic types of resources. frequency resource occupancy rate, time resource occupancy rate, resource occupancy rate in a specific resource set and statistics of occupancy rates of different traffic types of resources.
A semiconductor device, comprising: a heating element including terminals (la) extending in a vertical direction with respect to a mounting board, the heating element being connected to the mounting board through the terminals; a heat-radiating member including an element contact portion which is held in direct or indirect surface contact with a mounting surface (le) of the heating element; pressing means held in contact with the heating element, for pressing the heating element against the heat-radiating member; and fastening means for fixing the pressing means to the heat-radiating member through a through hole formed through the pressing means, wherein the pressing means includes an inclined surface (3a, 4a) formed so that a component force of an axial force of a tightening force of the fastening means is generated in a vertical direction with respect to the mounting surface (le); and characterized in that the through hole is formed through the pressing means in parallel to the mounting surface, the pressing means includes a projection that is brought into contact with the heating element to press the heating element, and the heating element includes a mounting hole formed therein, into which the projection is to be inserted. a heating element including terminals (la) extending in a vertical direction with respect to a mounting board, the heating element being connected to the mounting board through the terminals; a heat-radiating member including an element contact portion which is held in direct or indirect surface contact with a mounting surface (le) of the heating element; pressing means held in contact with the heating element, for pressing the heating element against the heat-radiating member; and fastening means for fixing the pressing means to the heat-radiating member through a through hole formed through the pressing means, wherein the pressing means includes an inclined surface (3a, 4a) formed so that a component force of an axial force of a tightening force of the fastening means is generated in a vertical direction with respect to the mounting surface (le); and characterized in that the through hole is formed through the pressing means in parallel to the mounting surface, the pressing means includes a projection that is brought into contact with the heating element to press the heating element, and the heating element includes a mounting hole formed therein, into which the projection is to be inserted.