mhurhangee/ep-ind-claims huggingface dataset:
Body structure for a vehicle, having a body pillar, in particular B pillar, which is constructed from a vehicle-interior sheet-metal inner part and from a vehicle-exterior sheet-metal outer part that form a hollow support having a cross-sectionally closed hollow profile running in the vertical direction (z) of the vehicle, wherein functional elements (20, 21, 23)) of a seatbelt system can be mounted on the hollow support of the body pillar, wherein the body pillar has a module support which can be provided as a preassembly unit which is separate from the vehicle body and on which the functional elements (20, 21, 23) of the seatbelt system and/or a pillar trim can be preassembled, and in that the module support together with the functional elements (20, 21, 23) and/or pillar trim already preassembled thereon can be joined to the sheet-metal inner part of the hollow support at at least one pillar-side attachment point (S1, S2), in particular by an adhesive connection and/or screw connection, in an assembly process step, characterized in that the module support and the sheet-metal inner part have a positioning aid by means of which the module support can be correctly positioned in advance in a screw-in position on the sheet-metal inner part during the assembly, in which screw-in position the module support can be screwed to the sheet-metal inner part, wherein the positioning aid has at least one keyhole-like positioning opening in the sheet-metal inner part, the positioning opening consisting of a cross-sectionally large insertion region and a cross-sectionally small region adjoining the latter downwards in the vehicle, and in that the positioning aid has a positioning bolt which interacts therewith, protrudes from a base surface of the module support and has a widened bolt head which is spaced apart from the assembly surface of the module support by a clear annular gap (r) which is greater than the sheet-metal thickness of the sheet-metal inner part, and in that, during the positioning in advance, first of all the module support is inserted with its positioning bolt into the insertion region of the sheet-metal inner part positioning opening and is subsequently moved downwards in the vehicle under the action of gravity until the positioning bolt rests on a bottom edge of the positioning opening and an edge region of the positioning opening projects in a form-fitting manner into the annular gap (r) on the module-support side.
An imaging unit for use in an endoscope, the imaging unit comprising: an optical element (1101; 1201; 1301; 1402) comprising one or more lenses; a sensor configured to receive light from the optical element (1101; 1201; 1301; 1402); a connector (1110; 4925) coupled to the sensor, wherein the connector (1110; 4925) comprises: a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section, wherein the second section (1115, 1120; 4920) is transverse to the first section; and a circuit board (1103; 1304) coupled to the second section (1115, 1120; 4920), wherein the sensor communicates electronically with the circuit board (1103; 1304) through the connector (1110; 4925), wherein the circuit board (1103; 1304) is transverse to the second section (1115, 1120; 4920) and the first section, wherein the first section, the second section (1115; 1120; 4920), and the circuit board (1103; 1304) are planar, and wherein the second section (1115; 1120; 4920) is L-shaped. an optical element (1101; 1201; 1301; 1402) comprising one or more lenses; a sensor configured to receive light from the optical element (1101; 1201; 1301; 1402); a connector (1110; 4925) coupled to the sensor, wherein the connector (1110; 4925) comprises: a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section, wherein the second section (1115, 1120; 4920) is transverse to the first section; and a first section coupled to the sensor, and a second section (1115, 1120; 4920) extending from the first section, wherein the second section (1115, 1120; 4920) is transverse to the first section; and a circuit board (1103; 1304) coupled to the second section (1115, 1120; 4920), wherein the sensor communicates electronically with the circuit board (1103; 1304) through the connector (1110; 4925), wherein the circuit board (1103; 1304) is transverse to the second section (1115, 1120; 4920) and the first section, wherein the first section, the second section (1115; 1120; 4920), and the circuit board (1103; 1304) are planar, and wherein the second section (1115; 1120; 4920) is L-shaped.
A terminal (1000, 10), comprising a speaker (03, 40) and an audio amplifier integrated circuit, wherein the speaker (30, 40) comprises a coil (201, 202), a magnetic diaphragm, and a voice coil; the audio amplifier integrated circuit is connected to the voice coil and the coil (201, 202), and is configured to: measure voltage or current at two ends of the voice coil, measure inductance value at two ends of the coil (201, 202), and determine a driver voltage or driver current of the voice coil based on the voltage or the current, and the inductance value; and the voice coil is configured to drive, based on the driver voltage or the driver current, the magnetic diaphragm to vibrate; characterised in that the speaker (30, 40) further comprises a front cover, a frame, and a magnet (500, 501), the coil (201, 202) is located on an inner side of the front cover, the magnetic diaphragm is located between the coil (201, 202) and the voice coil, a periphery of the magnetic diaphragm is adhered to one side of the frame, the magnet (500, 501) is located on the other side of the frame, and the one side and the other side of the frame are two opposite sides of the frame; and wherein the magnetic diaphragm comprises a diaphragm and a magnetic conductive material is coated on a surface of the diaphragm. the speaker (30, 40) comprises a coil (201, 202), a magnetic diaphragm, and a voice coil; the audio amplifier integrated circuit is connected to the voice coil and the coil (201, 202), and is configured to: measure voltage or current at two ends of the voice coil, measure inductance value at two ends of the coil (201, 202), and determine a driver voltage or driver current of the voice coil based on the voltage or the current, and the inductance value; and the voice coil is configured to drive, based on the driver voltage or the driver current, the magnetic diaphragm to vibrate; characterised in that the speaker (30, 40) further comprises a front cover, a frame, and a magnet (500, 501), the coil (201, 202) is located on an inner side of the front cover, the magnetic diaphragm is located between the coil (201, 202) and the voice coil, a periphery of the magnetic diaphragm is adhered to one side of the frame, the magnet (500, 501) is located on the other side of the frame, and the one side and the other side of the frame are two opposite sides of the frame; and wherein the magnetic diaphragm comprises a diaphragm and a magnetic conductive material is coated on a surface of the diaphragm.
A protective helmet with a head-width adjusting device adjustable from the exterior, wherein an adjusting wheel is connected to a toothed wheel, wherein the toothed wheel is disposed in guide seat in active connection with the head support ring, in such a way that the open ends of the head support ring of the protective helmet, which are provided with complementary teeth, can be moved towards or away from one another for the head-width adjustment depending on the direction of rotation, characterised in that the adjusting wheel is disposed rotatably on the helmet shell and is connected to the toothed wheel via a mechanically connected flexible element for the transmission of the turning moment.
A method of displaying a transformation of a server image on a display on a client, the server image is stored on a server and has a first dynamic range, the display has a second dynamic range, the second dynamic range is less than the first dynamic range, the method comprising: a) selecting a desired window level comprising a desired window width and a desired window center; b) determining a server window width and a server window center of a server window level that contains the desired window level; c) performing a server window level transformation on the server image at the server to generate a server window level image file, the transformation being based on the server window width and the server window center; d) transmitting the server window level image file from the server to the client; e) determining a third window level transformation so that the third window level transformation when combined with the server window level transformation yields a final displayed image in the desired window level; and f) performing the third window level transformation on the server window level image file at the client to generate and display the final displayed image. a) selecting a desired window level comprising a desired window width and a desired window center; b) determining a server window width and a server window center of a server window level that contains the desired window level; c) performing a server window level transformation on the server image at the server to generate a server window level image file, the transformation being based on the server window width and the server window center; d) transmitting the server window level image file from the server to the client; e) determining a third window level transformation so that the third window level transformation when combined with the server window level transformation yields a final displayed image in the desired window level; and f) performing the third window level transformation on the server window level image file at the client to generate and display the final displayed image.
A system to monitor an output of a gas source, comprising: a chamber comprising a plurality of input ports configured to receive a flow of gas from a plurality of gas sources; the system being characterised in that it comprises means configured to repeatedly: temporarily block one of the plurality of input ports; detect the input port that is blocked; sample, from a sensor, a characteristic of the gas in the chamber; and store data from the sensor in a memory in association with an indicator of which one of the plurality of input ports is blocked. a chamber comprising a plurality of input ports configured to receive a flow of gas from a plurality of gas sources; the system being characterised in that it comprises means configured to repeatedly: temporarily block one of the plurality of input ports; detect the input port that is blocked; sample, from a sensor, a characteristic of the gas in the chamber; and store data from the sensor in a memory in association with an indicator of which one of the plurality of input ports is blocked. temporarily block one of the plurality of input ports; detect the input port that is blocked; sample, from a sensor, a characteristic of the gas in the chamber; and store data from the sensor in a memory in association with an indicator of which one of the plurality of input ports is blocked.
Machining unit for processing a workpiece with a machining tool, wherein a coolant is fed at least to the machining tool, wherein the coolant flows through a cooling circuit (K') driven by a coolant pump, comprising a chip conveyor for removing a portion of chips generated during the machining process of the workpiece, a machine bed arranged below the chip conveyor, in which a portion of the chips generated during the machining process of the workpiece and not removed by the chip conveyor and the coolant can be received, a coolant pump (6; 6a, 6b) as well as a separation unit arranged upstream thereof in the coolant circuit, by means of which the coolant received in the machine bed can be sucked by the separation unit, characterizend in that the machining unit comprises a suction pump for suction of a portion of the coolant received in the machine bed and interspersed with chips, as well as a separating device to which the coolant sucked by the suction pump can be lead via a conduit; the suction pump, operating in parallel to the coolant pump driving the coolant circuit, as well as the separating device are located outside of the coolant circuit (K'); and the separating device separates at least a portion of the chips contained in the sucked coolant, and the thus purified coolant is fed to the coolant circuit through a further conduit.
Multi-layer board panel with a first cover layer, a second cover layer and at least one central layer arranged therebetween, wherein the cover layers (1, 2) are formed respectively from board layers with a plurality of boards (a, b, c) arranged next to one another, wherein at least one central layer is formed from wooden boards (3a, 3b, 3c) which are arranged next to one another and from one another to form the respective central layer so that material-free gaps are produced between adjacent wooden boards of a central layer, characterised in that the wooden boards (3a, 3b, 3c) of at least one central layer are formed from wooden planks which are arranged next to one another to form the respective central layer so that due to the uneven lateral edge region of the wooden planks, gaps are produced between adjacent wooden planks of a central layer.
Apparatus for feeding bars to a machine tool, comprising: - an end suitable for being placed in a position adjacent to a working zone 4) in which spindle means of said machine tool are provided; - a drum element near said end and rotatable around a rotation axis, - movable supporting means provided on said drum element and suitable for supporting and guiding a bar parallel to said rotation axis, - said movable supporting means being slidably drivable on said drum element parallel to said rotation axis between a disengagement retracted configuration, in which said movable supporting means are gathered nearer the end to enable a respective bar, to be machined, to be loaded, and an engagement extended configuration, in which said movable supporting means are spaced away from the end and are distributed along a supporting zone, opposite said working zone with respect to said drum element, to engage said respective bar to be supported and guided during machining, characterised in that it further comprises tubular housing and guiding means for receiving internally said movable supporting means, said tubular housing and guiding means being mounted on the side of said drum element that faces said working zone and being shaped for coupling with said spindle means, and in that said movable supporting means comprise telescopic tubular means and supporting and guiding carriage elements for said telescopic tubular means that are drivable by dragging means for being moved from said disengagement retracted configuration to said engagement extended configuration and vice versa, said telescopic tubular means being configured for being received, in said disengagement retracted configuration, inside said tubular housing and guiding means, said telescopic tubular means defining in said engagement extended configuration, an elongated and cylindrical containing structure configured for enclosing and supporting in a distributed extended and continuous manner a respective bar along the entire supporting zone. - an end suitable for being placed in a position adjacent to a working zone 4) in which spindle means of said machine tool are provided; - a drum element near said end and rotatable around a rotation axis, - movable supporting means provided on said drum element and suitable for supporting and guiding a bar parallel to said rotation axis, - said movable supporting means being slidably drivable on said drum element parallel to said rotation axis between a disengagement retracted configuration, in which said movable supporting means are gathered nearer the end to enable a respective bar, to be machined, to be loaded, and an engagement extended configuration, in which said movable supporting means are spaced away from the end and are distributed along a supporting zone, opposite said working zone with respect to said drum element, to engage said respective bar to be supported and guided during machining,
A pharmaceutical composition comprising a compound or a pharmaceutically acceptable salt thereof; and one or more additional therapeutic agents; wherein the compound is selected from the compounds shown below:
A hair styling device comprising: a heating unit; a unit capable of engaging a detachable holder having a hair treatment agent, whereby in the presence of the detachable holder, the detachable holder covers the heating unit; and a detector for detecting the presence of the detachable holder, wherein a temperature of the heating unit in the presence of the detachable holder is automatically set higher than a corresponding temperature in the absence of the detachable holder. a heating unit; a unit capable of engaging a detachable holder having a hair treatment agent, whereby in the presence of the detachable holder, the detachable holder covers the heating unit; and a detector for detecting the presence of the detachable holder, wherein a temperature of the heating unit in the presence of the detachable holder is automatically set higher than a corresponding temperature in the absence of the detachable holder.
A silicone gel composition comprising: 100 parts by weight of organopolysiloxane having at least one silicon-bonded alkenyl group per molecule, represented by the average compositional formula: R a R 1 b SiO (4-a-b)/2 wherein R is independently alkenyl, R 1 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, a is a positive number of 0.0001 to 0.2, b is a positive number of 1.7 to 2.2, and the sum a+b is 1.9 to 2.4, organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, represented by the average compositional formula: R 2 c H d SiO( 4-c-d)/2 wherein R 2 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, c is a positive number of 0.7 to 2.2, d is a positive number of 0.001 to 0.5, and the sum c+d is 0.8 to 3, in such an amount as to give 0.01 to 3 silicon-bonded hydrogen atoms in component per silicon-bonded alkenyl in the entire composition, an effective amount of a platinum-based catalyst, and nickel carboxylate and/or niobium carboxylate having the formula: (R 3 COO) f M wherein R 3 which may be the same or different is a monovalent hydrocarbon group, M is at least one metal selected from nickel and niobium, f is 2 when M is nickel, and f is 4 or 5 when M is niobium, in an amount of 1 to 1,000 ppm based on the total weight of the composition. 100 parts by weight of organopolysiloxane having at least one silicon-bonded alkenyl group per molecule, represented by the average compositional formula: R a R 1 b SiO (4-a-b)/2 wherein R is independently alkenyl, R 1 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, a is a positive number of 0.0001 to 0.2, b is a positive number of 1.7 to 2.2, and the sum a+b is 1.9 to 2.4, organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, represented by the average compositional formula: R 2 c H d SiO( 4-c-d)/2 wherein R 2 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, c is a positive number of 0.7 to 2.2, d is a positive number of 0.001 to 0.5, and the sum c+d is 0.8 to 3, in such an amount as to give 0.01 to 3 silicon-bonded hydrogen atoms in component per silicon-bonded alkenyl in the entire composition, an effective amount of a platinum-based catalyst, and nickel carboxylate and/or niobium carboxylate having the formula: (R 3 COO) f M wherein R 3 which may be the same or different is a monovalent hydrocarbon group, M is at least one metal selected from nickel and niobium, f is 2 when M is nickel, and f is 4 or 5 when M is niobium, in an amount of 1 to 1,000 ppm based on the total weight of the composition.
A channel measurement and measurement result reporting method performed by a terminal equipment, the method comprising: receiving configuration information from a source base station containing a source cell or from a target base station, wherein the configuration information comprises: measurement parameters, a measurement period and a measurement duration, the measurement parameters comprising a Received Signal Strength Indicator, RSSI; measuring a channel of a carrier according to the configuration information; acquiring (S1 10) a channel measurement result of the carrier according to the configuration information, the carrier being configurable as a secondary carrier of the terminal equipment; and transmitting the channel measurement result to the target base station containing a target cell when a serving cell is changed from the source cell to the target cell, wherein measuring the channel of the carrier to obtain the channel measurement result of the carrier according to the configuration information comprises: measuring a measurement parameter in a measurement duration on a carrier frequency indicated in the configuration information according to the measurement period in the configuration information, and recording a measurement result, wherein the measurement duration is configured according to a comparison result of a previous RSSI measurement result with respect to a threshold value. receiving configuration information from a source base station containing a source cell or from a target base station, wherein the configuration information comprises: measurement parameters, a measurement period and a measurement duration, the measurement parameters comprising a Received Signal Strength Indicator, RSSI; measuring a channel of a carrier according to the configuration information; acquiring (S1 10) a channel measurement result of the carrier according to the configuration information, the carrier being configurable as a secondary carrier of the terminal equipment; and transmitting the channel measurement result to the target base station containing a target cell when a serving cell is changed from the source cell to the target cell, wherein measuring the channel of the carrier to obtain the channel measurement result of the carrier according to the configuration information comprises: measuring a measurement parameter in a measurement duration on a carrier frequency indicated in the configuration information according to the measurement period in the configuration information, and recording a measurement result, wherein the measurement duration is configured according to a comparison result of a previous RSSI measurement result with respect to a threshold value.