mhurhangee/ep-ind-claims huggingface dataset:
A component connection, comprising - a first component, especially a first vehicle component which has a male fixing element projecting from the first component, - a second component, especially a second vehicle component which has a female fixing element (4, 5), provided for receiving the male fixing element, wherein the male fixing element is introduced into the female fixing element (4, 5) in an insertion direction, wherein - the male fixing element partly has the shape of a sphere and has an oversize in respect of the female fixing element (4, 5) substantially transversely to the insertion direction, so that the two components (1, 3) are clamped against each other at the fixing elements (2, 4, 5), characterised in that the fixing element has a functional head and a foot region, wherein - the foot region is positively connected to the first component, wherein the foot region is pressed into the first component. - a first component, especially a first vehicle component which has a male fixing element projecting from the first component, - a second component, especially a second vehicle component which has a female fixing element (4, 5), provided for receiving the male fixing element, wherein the male fixing element is introduced into the female fixing element (4, 5) in an insertion direction, wherein - the male fixing element partly has the shape of a sphere and has an oversize in respect of the female fixing element (4, 5) substantially transversely to the insertion direction, so that the two components (1, 3) are clamped against each other at the fixing elements (2, 4, 5), characterised in that the fixing element has a functional head and a foot region, wherein - the foot region is positively connected to the first component, wherein the foot region is pressed into the first component.
A handheld skin treatment device that delivers electromagnetic and/or electrical energy and fluid to a person's skin via a surface region on the device, the device comprising a device body comprising: a head comprising the surface region, and a cartridge containment portion comprising a container holding portion, and a path through the head, the path having a distal end, the distal end having an opening within the surface region; wherein the cartridge containment portion has a locating feature (35,91); and a replaceable fluid cartridge secured in the cartridge containment portion and having a rigid cartridge body, characterized in that the cartridge body further includes a spout extending through the path, wherein the locating feature positions a tip of the spout at the opening. a head comprising the surface region, and a cartridge containment portion comprising a container holding portion, and a path through the head, the path having a distal end, the distal end having an opening within the surface region; wherein the cartridge containment portion has a locating feature (35,91); and a replaceable fluid cartridge secured in the cartridge containment portion and having a rigid cartridge body, characterized in that the cartridge body further includes a spout extending through the path, wherein the locating feature positions a tip of the spout at the opening.
A service packet processing method, applied to a service processing system, wherein the method comprises: receiving, by a central switching device, a first packet, wherein a first service packet is encapsulated in the first packet, and the first packet comprises a first service path identifier and a source device identifier of the first packet; querying, by the central switching device, a first service route forwarding entry according to the source device identifier of the first packet and the first service path identifier, so as to acquire a device identifier of a first service atom, wherein the first service route forwarding entry comprises a correspondence between the source device identifier of the first packet, the first service path identifier, and the device identifier of the first service atom; and sending, by the central switching device, a second packet to the first service atom, wherein the first service packet is encapsulated in the second packet and the second packet further comprises the first service path identifier. receiving, by a central switching device, a first packet, wherein a first service packet is encapsulated in the first packet, and the first packet comprises a first service path identifier and a source device identifier of the first packet; querying, by the central switching device, a first service route forwarding entry according to the source device identifier of the first packet and the first service path identifier, so as to acquire a device identifier of a first service atom, wherein the first service route forwarding entry comprises a correspondence between the source device identifier of the first packet, the first service path identifier, and the device identifier of the first service atom; and sending, by the central switching device, a second packet to the first service atom, wherein the first service packet is encapsulated in the second packet and the second packet further comprises the first service path identifier.
A gas sensor, comprising: a pre-concentration module to collect and concentrate a gas-phase chemical for analysis; a piezoelectric fan including a pair of drive and sense fans, the drive fan being configured to produce an air-flow through acoustic streaming to drive the gas-phase chemical released by the pre-concentration module to one or more downstream modules, the sense fan being configured to sense a lateral turbulent air-motion to provide a feedback signal for controlling the drive fan; an ionizer downstream from the piezoelectric fan to ionize the gas-phase chemical; and a gas sensor downstream from the piezoelectric fan and the ionizer to detect the ionized gas-phase chemical driven by the piezoelectric fan. a pre-concentration module to collect and concentrate a gas-phase chemical for analysis; a piezoelectric fan including a pair of drive and sense fans, the drive fan being configured to produce an air-flow through acoustic streaming to drive the gas-phase chemical released by the pre-concentration module to one or more downstream modules, the sense fan being configured to sense a lateral turbulent air-motion to provide a feedback signal for controlling the drive fan; an ionizer downstream from the piezoelectric fan to ionize the gas-phase chemical; and a gas sensor downstream from the piezoelectric fan and the ionizer to detect the ionized gas-phase chemical driven by the piezoelectric fan.
A monitoring device for locating the position of a mobile communications device, the mobile communications device being operable to communicate with a communication network using wireless signals, in the following named first network, the monitoring device comprising: a receiver operable to detect a wireless signal transmitted during a location update between the mobile communications device and a base station forming part of the communication network; means for processing the detected wireless signal to extract identification information for the mobile communications device; and storing said identification information in association with data indicative of the base station at a management and data logging system connected to the monitoring device over a second network distinct from the first network. a receiver operable to detect a wireless signal transmitted during a location update between the mobile communications device and a base station forming part of the communication network; means for processing the detected wireless signal to extract identification information for the mobile communications device; and storing said identification information in association with data indicative of the base station at a management and data logging system connected to the monitoring device over a second network distinct from the first network.
Electro-pneumatic control module for an electronically controllable pneumatic brake system for a vehicle combination comprising a tractor vehicle and a trailer vehicle, comprising: a pneumatic supply inlet which can be connected to a compressed-air supply, a trailer control unit which has a trailer control valve unit having one or more electro-pneumatic valves (RV, IV, OV), and which has a trailer brake pressure connection and a trailer supply pressure connection, a locking brake unit which has a spring accumulator connection for at least one spring accumulator for a tractor vehicle, and a locking brake valve unit having one or more electro-pneumatic valves (10, 55), and an electronic control unit, wherein the electronic control unit is configured to cause the locking brake valve unit, on the basis of an electronic locking signal, to switch at least one valve of the locking brake valve unit in such a way that the spring accumulator connection is connected to a pressure sink in order to vent the spring accumulator, characterized by a parking brake valve unit having a pneumatically controlled switching valve that has a pneumatic control input for receiving a pneumatic control pressure (P 2), wherein, when the spring accumulator connection is connected to the pressure sink, the pneumatically controlled switching valve is switched in such a way that a brake pressure (P B) can be controlled at the trailer brake pressure connection. a pneumatic supply inlet which can be connected to a compressed-air supply, a trailer control unit which has a trailer control valve unit having one or more electro-pneumatic valves (RV, IV, OV), and which has a trailer brake pressure connection and a trailer supply pressure connection, a locking brake unit which has a spring accumulator connection for at least one spring accumulator for a tractor vehicle, and a locking brake valve unit having one or more electro-pneumatic valves (10, 55), and an electronic control unit, wherein the electronic control unit is configured to cause the locking brake valve unit, on the basis of an electronic locking signal, to switch at least one valve of the locking brake valve unit in such a way that the spring accumulator connection is connected to a pressure sink in order to vent the spring accumulator, characterized by a parking brake valve unit having a pneumatically controlled switching valve that has a pneumatic control input for receiving a pneumatic control pressure (P 2), wherein, when the spring accumulator connection is connected to the pressure sink, the pneumatically controlled switching valve is switched in such a way that a brake pressure (P B) can be controlled at the trailer brake pressure connection.
A solid oral pharmaceutical formulation in tablet form, which comprises: an inner phase which is a solid dispersion comprising amorphous -methyl (1-((4-(3-(5-chloro-2-fluoro-3-(methylsulfonamido)phenyl)-1-isopropyl-1H-pyrazol-4-yl)pyrimidin-2-yl)amino)propan-2-yl)carbamate (Compound A), a hydrophilic binder, and a surfactant; and an external phase which comprises one or more of an acidifier, a filler, a disintegrant, a flow enhancer and a lubricant. an inner phase which is a solid dispersion comprising amorphous -methyl (1-((4-(3-(5-chloro-2-fluoro-3-(methylsulfonamido)phenyl)-1-isopropyl-1H-pyrazol-4-yl)pyrimidin-2-yl)amino)propan-2-yl)carbamate (Compound A), a hydrophilic binder, and a surfactant; and an external phase which comprises one or more of an acidifier, a filler, a disintegrant, a flow enhancer and a lubricant.
A backlighting arrangement comprising a plurality of identical illumination groups, in which - each illumination group comprises at least one adjacent illumination group with a different orientation, - each illumination group comprises a plurality of light-emitting semiconductor chips in identical arrangement, - at least two of the semiconductor chips provide different colors or color contributions, - each illumination group comprises at least one red light-emitting semiconductor chip, at least one green light-emitting semiconductor chip, and at least one blue light-emitting semiconductor chip, - at least two adjacent illumination groups in each case are rotated relative to one another by 90° or by 180° with respect to an imaginary axis along their main direction of radiation, - a plurality of illumination groups are attached to a first strip-shaped carrier and other illumination groups are attached to a second strip-shaped carrier adjacent to the first carrier, wherein - the first and second carriers are arranged antiparallel to one another, - and wherein the illumination groups are arranged in a regular grid arrangement, characterized in that the regular grid arrangement has a hexagonal grid structure. - each illumination group comprises at least one adjacent illumination group with a different orientation, - each illumination group comprises a plurality of light-emitting semiconductor chips in identical arrangement, - at least two of the semiconductor chips provide different colors or color contributions, - each illumination group comprises at least one red light-emitting semiconductor chip, at least one green light-emitting semiconductor chip, and at least one blue light-emitting semiconductor chip, - at least two adjacent illumination groups in each case are rotated relative to one another by 90° or by 180° with respect to an imaginary axis along their main direction of radiation, - a plurality of illumination groups are attached to a first strip-shaped carrier and other illumination groups are attached to a second strip-shaped carrier adjacent to the first carrier, wherein - the first and second carriers are arranged antiparallel to one another, - and wherein the illumination groups are arranged in a regular grid arrangement,
A flexible lumenal assembly (100, 100A) configured for transiting a body lumen comprising a flexible lumenal member (102, 102A, 150) extending longitudinally and a medial member having a structural support member (300, 360, 400, 410) that has a facing surface facing at least one surface on either of the flexible lumenal member (102, 102A, 150) or an outer member, wherein the facing surface has a non-smooth surface geometry; the medial member extends outside a portion of the flexible lumenal member (102, 102A, 150) and inside the outer member extending over the medial member wherein the outer member is configured to selectively apply pressure to the medial member; the structural support member (300, 360, 400, 410) is monolithic; and the structural support member (300, 360, 400, 410) extends along and circumferentially completely around an adjacent portion of the flexible lumenal member (102, 102A, 150); characterized in that the structural support member (300, 360, 400, 410) is a tubular mesh that includes a non-random tubular mesh. the facing surface has a non-smooth surface geometry; the medial member extends outside a portion of the flexible lumenal member (102, 102A, 150) and inside the outer member extending over the medial member wherein the outer member is configured to selectively apply pressure to the medial member; the structural support member (300, 360, 400, 410) is monolithic; and the structural support member (300, 360, 400, 410) extends along and circumferentially completely around an adjacent portion of the flexible lumenal member (102, 102A, 150); characterized in that the structural support member (300, 360, 400, 410) is a tubular mesh that includes a non-random tubular mesh.
A measuring device for determining the location of one or more measurement points relative to the measuring device, the measuring device being arranged to be coupled to a non-contact distance measuring device and one or more sensors for determining the orientation of the EDM, the measuring device comprising: an image capture device operable to output digital images and being arranged to be coupled to the EDM such that the ICD moves in known registration with respect to the EDM; and characterised by a controller arranged to receive data from the one or more sensors and the ICD, the controller being configured to: a) associate an image with the orientation of the EDM during exposure of the image; b) locate one of the measurement points within the image; and c) use the location of the measurement point within the image in combination with the EDM orientation to establish the direction of the measurement point with respect to the measuring device, wherein the controller includes a data synchronisation sub-system arranged such that the direction of the ICD during the image exposure period is known. an image capture device operable to output digital images and being arranged to be coupled to the EDM such that the ICD moves in known registration with respect to the EDM; and characterised by a controller arranged to receive data from the one or more sensors and the ICD, the controller being configured to: a) associate an image with the orientation of the EDM during exposure of the image; b) locate one of the measurement points within the image; and c) use the location of the measurement point within the image in combination with the EDM orientation to establish the direction of the measurement point with respect to the measuring device, wherein the controller includes a data synchronisation sub-system arranged such that the direction of the ICD during the image exposure period is known. a) associate an image with the orientation of the EDM during exposure of the image; b) locate one of the measurement points within the image; and c) use the location of the measurement point within the image in combination with the EDM orientation to establish the direction of the measurement point with respect to the measuring device, wherein the controller includes a data synchronisation sub-system arranged such that the direction of the ICD during the image exposure period is known.
A heating system for a peritoneal dialysis apparatus comprising: a pumping apparatus configured to pump dialysate into or out of a heater bag; an electric heater (2000; 2001, 2002) configurable to operate at an AC line voltage in a range of about 100 to 120 volts or an AC line voltage in a range of about 200 to 240 volts; and a heater controller configured to control a temperature of the dialysate using the electrical heater; characterized by a universal power supply configured to convert line voltage to one or more DC voltages to power the pumping apparatus and heater controller, and to configure the electric heater to operate at a voltage in a range of about 100 to 120 volts or in a range of about 200 to 240 volts, based on a measured current flow through the electrical heater. a pumping apparatus configured to pump dialysate into or out of a heater bag; an electric heater (2000; 2001, 2002) configurable to operate at an AC line voltage in a range of about 100 to 120 volts or an AC line voltage in a range of about 200 to 240 volts; and a heater controller configured to control a temperature of the dialysate using the electrical heater; a universal power supply configured to convert line voltage to one or more DC voltages to power the pumping apparatus and heater controller, and to configure the electric heater to operate at a voltage in a range of about 100 to 120 volts or in a range of about 200 to 240 volts, based on a measured current flow through the electrical heater.
A robot comprising: a driver unit; a sensor unit; and a controller; the controller is configured to control the driver unit to perform a first task corresponding to a first area in a first location of the first area, characterized in that the controller is further configured to identify whether the robot is moved from the first location to a second location of a second area based on a user input to override an execution of a current operation corresponding to the first task performed by the robot, wherein the identifying whether the robot is moved being based on a change of an environment around the robot sensed by the sensor unit and map information, in response to identifying that the robot is moved from the first location to the second location, identify a second task corresponding to the second area based on the second location and an environment around the robot, and control the driver unit to stop performing the first task and perform the second task different from the first task in the second area, control the driver unit to return to the first location after completion of the second task in the second area, and control the driver unit to restart the first task in the first area. a driver unit; a sensor unit; and a controller; the controller is configured to control the driver unit to perform a first task corresponding to a first area in a first location of the first area, characterized in that the controller is further configured to identify whether the robot is moved from the first location to a second location of a second area based on a user input to override an execution of a current operation corresponding to the first task performed by the robot, wherein the identifying whether the robot is moved being based on a change of an environment around the robot sensed by the sensor unit and map information, in response to identifying that the robot is moved from the first location to the second location, identify a second task corresponding to the second area based on the second location and an environment around the robot, and control the driver unit to stop performing the first task and perform the second task different from the first task in the second area, control the driver unit to return to the first location after completion of the second task in the second area, and control the driver unit to restart the first task in the first area.
Final drive for a motor vehicle comprising a drive assembly having a drive shaft, wherein the drive shaft is coupled via a gear stage to an output shaft of the final drive, wherein the drive shaft is coupled to the gear stage via an intermediate shaft that is arranged offset with respect to it, and wherein the intermediate shaft lies on a first side of a conceptual plane incorporating an axis of rotation of the drive shaft, characterised in that a power electronics unit is arranged on the drive assembly at the front end thereof on a second side of the plane, which lies opposite to the first side, and is electrically connected to the drive assembly via connection terminals arranged at the front end thereof.