mhurhangee/patent-ind-claim-en huggingface dataset:
A cartridge for a multi-component material which comprises: - a hollow cylindrical inner body which defines an inner space for receiving a first component of the multi-component material, - a hollow cylindrical outer body which receives the inner body in its interior such that an intermediate space for receiving a second component of the multi-component material is formed between an outer wall of the inner body and an inner wall of the outer body , characterized by - an outlet protruding directly from from the inner body and formed in one piece with the inner body , in which outlet a first passage is formed which connects an outlet opening of the outlet with the inner space of the inner body and a second passage which connects the outlet opening of the outlet with the intermediate space present between the outer body and the inner body , wherein an end section of the inner space facing the outlet lies at least essentially in the same plane (E), in particular in the same plane (E), as an end section of the intermediate space facing the outlet . - a hollow cylindrical inner body which defines an inner space for receiving a first component of the multi-component material, - a hollow cylindrical outer body which receives the inner body in its interior such that an intermediate space for receiving a second component of the multi-component material is formed between an outer wall of the inner body and an inner wall of the outer body , characterized by - an outlet protruding directly from from the inner body and formed in one piece with the inner body , in which outlet a first passage is formed which connects an outlet opening of the outlet with the inner space of the inner body and a second passage which connects the outlet opening of the outlet with the intermediate space present between the outer body and the inner body , wherein an end section of the inner space facing the outlet lies at least essentially in the same plane (E), in particular in the same plane (E), as an end section of the intermediate space facing the outlet .
A semiconductor element , comprising: a semiconductor layer , an electrical conductor layer , a dielectric multilayered film , and a reflective layer , arranged in that order, the reflective layer containing Ag as a major component characterised in that the reflective layer contains particles of at least one selected from an oxide, a nitride, and a carbide, wherein the particles are dispersed in the reflective layer and in contact with the dielectric multilayered film , and wherein the reflective layer contains at least one oxide selected from Ga 2 O 3 , Nb 2 O 5 , and HfO 2 . a semiconductor layer , an electrical conductor layer , a dielectric multilayered film , and a reflective layer , arranged in that order, the reflective layer containing Ag as a major component characterised in that the reflective layer contains particles of at least one selected from an oxide, a nitride, and a carbide, wherein the particles are dispersed in the reflective layer and in contact with the dielectric multilayered film , and wherein the reflective layer contains at least one oxide selected from Ga 2 O 3 , Nb 2 O 5 , and HfO 2 .
A hybrid dynamic pressure gas radial bearing, comprises a bearing outer sleeve, an inner sleeve and at least one foil type elastic part arranged between the bearing outer sleeve and the inner sleeve, the outer circumferential face and the left and right end faces of the bearing inner sleeve are respectively provided with regular groove-type patterns, characterized in that the groove-type patterns in one end face is in mirror symmetry with the groove-type pattern in the other end face, and the axial contour lines of the groove-type patterns in the outer circumference face and the radial contour lines of the groove-type patterns in the left and right end faces are in one-to-one correspondence and are connected with each other.
Transmission arrangement for a motor vehicle having a transmission housing , a first pinion shaft and a second pinion shaft arranged coaxially to the first pinion shaft as well as with a first transmission output shaft and a second transmission output shaft , wherein the first pinion shaft is mounted by means of a first bearing and the second pinion shaft is mounted by means of a second bearing on the transmission housing and wherein on the first pinion shaft is arranged non-rotationally a first pinion meshing with a first crown gear arranged on the first transmission output shaft and on the second pinion shaft is arranged non-rotationally a second pinion meshing with a second crown gear arranged on the second transmission output shaft , characterised in that the first bearing or the second bearing is connected via a thermal expansion compensation element with the transmission housing and is displaced by the thermal expansion compensation element in axial direction with respect to a rotational axis of the pinion shafts , and that the two pinion shafts are supported on one another by means of at least one axial bearing , wherein the at least one axial bearing is spring-pre-loaded by means of a spring element which exerts a spring craft in axial direction which pushes the two pinions away from one another, such that the bearings are pre-loaded outwardly in axial direction.
A cushion partially or entirely composed of a foam, the foam composed of a polymer composition, wherein the polymer composition comprises: a first component composed of one or more farnesene-based polymers; and a second component composed of one or more polymers different from the one or more farnesene-based polymers, wherein the one or more polymers of the second component have a Type-A durometer hardness of 93 or less, measured according to JIS K 6253-3:2012, and wherein the second component comprises at least one of ethylene-α-olefin block copolymer and ethylene-vinyl acetate copolymer. a first component composed of one or more farnesene-based polymers; and a second component composed of one or more polymers different from the one or more farnesene-based polymers, wherein the one or more polymers of the second component have a Type-A durometer hardness of 93 or less, measured according to JIS K 6253-3:2012, and wherein the second component comprises at least one of ethylene-α-olefin block copolymer and ethylene-vinyl acetate copolymer.
A method of detecting leakage from a vacuum assembly , comprising the steps: - Carrying out a first detection process to determine a leakage area with o Providing a vacuum assembly having a plurality of sensors for sensing a physical parameter, o Determining values of the parameter over time during evacuation of a cavity of the vacuum assembly , ∘ Creating a value-time curve for each sensor of the vacuum assembly from the determined values of the respective sensors by means of an evaluation unit , ∘ Comparing the created value-time curves with each other and determining differences depending on the comparison by means of the evaluation unit , and ∘ Determining a leakage area at the vacuum assembly as a function of the detected differences in the value-time curves and the respective position of the sensor with respect to the vacuum assembly ; characterized by - Carrying out a second detection process after the first detection process to detect the leakage within the determined leakage area with o Providing an additional detection device adapted to detect a leakage from a vacuum assembly , and o Detecting a leakage within the leakage area by means of the detection device . - Carrying out a first detection process to determine a leakage area with o Providing a vacuum assembly having a plurality of sensors for sensing a physical parameter, o Determining values of the parameter over time during evacuation of a cavity of the vacuum assembly , ∘ Creating a value-time curve for each sensor of the vacuum assembly from the determined values of the respective sensors by means of an evaluation unit , ∘ Comparing the created value-time curves with each other and determining differences depending on the comparison by means of the evaluation unit , and ∘ Determining a leakage area at the vacuum assembly as a function of the detected differences in the value-time curves and the respective position of the sensor with respect to the vacuum assembly ; o Providing a vacuum assembly having a plurality of sensors for sensing a physical parameter, o Determining values of the parameter over time during evacuation of a cavity of the vacuum assembly , ∘ Creating a value-time curve for each sensor of the vacuum assembly from the determined values of the respective sensors by means of an evaluation unit , ∘ Comparing the created value-time curves with each other and determining differences depending on the comparison by means of the evaluation unit , and ∘ Determining a leakage area at the vacuum assembly as a function of the detected differences in the value-time curves and the respective position of the sensor with respect to the vacuum assembly ; - Carrying out a second detection process after the first detection process to detect the leakage within the determined leakage area with o Providing an additional detection device adapted to detect a leakage from a vacuum assembly , and o Detecting a leakage within the leakage area by means of the detection device . o Providing an additional detection device adapted to detect a leakage from a vacuum assembly , and o Detecting a leakage within the leakage area by means of the detection device .
A method for wireless communication at a user equipment, UE, comprising: establishing a discontinuous reception, DRX, configuration comprising a first DRX on duration and a first DRX periodicity; receiving a DRX update indication on a broadcast channel, wherein the DRX update indication comprises a UE-specific indication whether a DRX on period is delayed in addition to a delay duration; identifying a DRX delay based at least in part on the DRX update indication; and entering a DRX on mode based at least in part on the DRX delay. establishing a discontinuous reception, DRX, configuration comprising a first DRX on duration and a first DRX periodicity; receiving a DRX update indication on a broadcast channel, wherein the DRX update indication comprises a UE-specific indication whether a DRX on period is delayed in addition to a delay duration; identifying a DRX delay based at least in part on the DRX update indication; and entering a DRX on mode based at least in part on the DRX delay.
An air-cooled battery module , comprising: a unit module stack formed by stacking a plurality of unit modules , each unit module having a plurality of battery cells stacked on each other; a swelling absorption pad interposed between the unit modules adjacent to each other; and a module housing configured to accommodate the unit module stack and the swelling absorption pad , wherein the swelling absorption pad has a water coolant channel (P) formed to extend along a longitudinal direction thereof, wherein the air-cooled battery module includes: an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet . a unit module stack formed by stacking a plurality of unit modules , each unit module having a plurality of battery cells stacked on each other; a swelling absorption pad interposed between the unit modules adjacent to each other; and a module housing configured to accommodate the unit module stack and the swelling absorption pad , wherein the swelling absorption pad has a water coolant channel (P) formed to extend along a longitudinal direction thereof, wherein the air-cooled battery module includes: an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet . an air inlet formed through the module housing at one side of the unit module stack in a stacking direction; and an air outlet formed through the module housing at the other side of the unit module stack in the stacking direction, wherein the air-cooled battery module includes an expansion pad disposed inside the air inlet and the air outlet and configured to expand due to the contact with a water coolant introduced into the air-cooled battery module to close the air inlet and the air outlet .
A method of operating an accessory device that is in communication with a companion device over a network connection , the method comprising: detecting a display change to be displayed at a display of the accessory device ; generating a display message at the accessory device for an application that is installed at the accessory device and that is identified by an application identifier, in response to the detected display change; sending the generated display message with the application identifier from an accessory device daemon to a companion device daemon over the network connection ; receiving an updated display message from the companion device daemon at the accessory device daemon ; determining one or more display values from the updated display message for an application identified by the application identifier; and displaying the one or more display values at the accessory device display in accordance with an interface definition for the accessory device . detecting a display change to be displayed at a display of the accessory device ; generating a display message at the accessory device for an application that is installed at the accessory device and that is identified by an application identifier, in response to the detected display change; sending the generated display message with the application identifier from an accessory device daemon to a companion device daemon over the network connection ; receiving an updated display message from the companion device daemon at the accessory device daemon ; determining one or more display values from the updated display message for an application identified by the application identifier; and displaying the one or more display values at the accessory device display in accordance with an interface definition for the accessory device .
A sensor device comprising: a semiconductor substrate ; a first compound semiconductor magnetic sensor provided in an insulating layer between a first metal wiring layer and a second metal wiring layer provided on the semiconductor substrate; and a second compound semiconductor magnetic sensor provided in an insulating layer between the second metal wiring and a third metal wiring layer on the second metal wiring layer , characterized in that the second compound semiconductor magnetic sensor is formed above the first compound semiconductor magnetic sensor as viewed in a cross section. a semiconductor substrate ; a first compound semiconductor magnetic sensor provided in an insulating layer between a first metal wiring layer and a second metal wiring layer provided on the semiconductor substrate; and a second compound semiconductor magnetic sensor provided in an insulating layer between the second metal wiring and a third metal wiring layer on the second metal wiring layer , characterized in that the second compound semiconductor magnetic sensor is formed above the first compound semiconductor magnetic sensor as viewed in a cross section.
A method for preparing a continuous filament yarn of electrospun polyacrylonitrile nanofibers, wherein the continuous filament yarn has a length of no less than 2000 meters and a metric count of more than 500, the method comprising the following steps: a. dissolving a polyacrylonitrile raw material in a polar solvent under mechanical stirring to obtain a uniform spinning solution, wherein a mass concentration of the spinning solution is 12 to 22% (w/w); b. making the polyacrylonitrile solution in the step a into a polyacrylonitrile nonwoven fabric in an electrospinning machine, wherein the polyacrylonitrile solution is spraying spun in a high-voltage electric field, and DC voltage of the high-voltage electric field in the step b is 30 to 50 kV; c. cutting the nonwoven fabric in the step b into slender strips with a width of 0.5 to 6 cm; d. drafting the slender strips in the step c in a water bath at 80 to 95°C with a draft ratio of 2 to 5 times, then drafting in air at 110 to 150°C with a draft ratio of 3 to 10 times to obtain a fiber bundle with highly oriented internal fibers; e. twisting the fiber bundle in the step d to obtain a continuous filament yarn of electrospun polyacrylonitrile nanofibers with a length of not less than 2000 meters, and the unwinding speed of the twisting is 5 to 50 m/min. a. dissolving a polyacrylonitrile raw material in a polar solvent under mechanical stirring to obtain a uniform spinning solution, wherein a mass concentration of the spinning solution is 12 to 22% (w/w); b. making the polyacrylonitrile solution in the step a into a polyacrylonitrile nonwoven fabric in an electrospinning machine, wherein the polyacrylonitrile solution is spraying spun in a high-voltage electric field, and DC voltage of the high-voltage electric field in the step b is 30 to 50 kV; c. cutting the nonwoven fabric in the step b into slender strips with a width of 0.5 to 6 cm; d. drafting the slender strips in the step c in a water bath at 80 to 95°C with a draft ratio of 2 to 5 times, then drafting in air at 110 to 150°C with a draft ratio of 3 to 10 times to obtain a fiber bundle with highly oriented internal fibers; e. twisting the fiber bundle in the step d to obtain a continuous filament yarn of electrospun polyacrylonitrile nanofibers with a length of not less than 2000 meters, and the unwinding speed of the twisting is 5 to 50 m/min.
Method for manufacturing a floor system , comprising the steps: • providing a supporting structure ; • optionally applying utility lines on this supporting structure; • applying a foamed polymer-containing material applied on the supporting structure and if applicable the utility lines in order to obtain a floor surface; • levelling the floor surface by means of a milling apparatus comprising at least one milling cutter ; • optionally applying a layer of rigid, flat boards on the levelled side of the layer of foamed polymer-containing material; • applying a floor heating layer provided with heat conductors supported by the levelled side of the layer of foamed polymer-containing material, or if applicable by the layer of rigid, flat boards; • applying an upper external floor covering placed on the floor heating layer. • providing a supporting structure ; • optionally applying utility lines on this supporting structure; • applying a foamed polymer-containing material applied on the supporting structure and if applicable the utility lines in order to obtain a floor surface; • levelling the floor surface by means of a milling apparatus comprising at least one milling cutter ; • optionally applying a layer of rigid, flat boards on the levelled side of the layer of foamed polymer-containing material; • applying a floor heating layer provided with heat conductors supported by the levelled side of the layer of foamed polymer-containing material, or if applicable by the layer of rigid, flat boards; • applying an upper external floor covering placed on the floor heating layer.
A therapeutic agent, comprising: (a) a first pharmaceutical composition comprising an oncolytic vaccinia virus in a first pharmaceutically acceptable carrier; and (b) a second pharmaceutical composition comprising NK cells in a second pharmaceutically acceptable carrier; wherein the oncolytic vaccinia virus can selectively replicate in tumor cells; wherein the first pharmaceutical composition and the second pharmaceutical composition are present separately in the therapeutic agent without being mixed together; wherein the oncolytic vaccinia virus is functionally deficient in the TK gene and in the VGF gene; and wherein the active ingredients of the therapeutic agent consist of the oncolytic vaccinia virus and the NK cells. (a) a first pharmaceutical composition comprising an oncolytic vaccinia virus in a first pharmaceutically acceptable carrier; and (b) a second pharmaceutical composition comprising NK cells in a second pharmaceutically acceptable carrier; wherein the oncolytic vaccinia virus can selectively replicate in tumor cells; wherein the first pharmaceutical composition and the second pharmaceutical composition are present separately in the therapeutic agent without being mixed together; wherein the oncolytic vaccinia virus is functionally deficient in the TK gene and in the VGF gene; and wherein the active ingredients of the therapeutic agent consist of the oncolytic vaccinia virus and the NK cells. wherein the oncolytic vaccinia virus can selectively replicate in tumor cells; wherein the first pharmaceutical composition and the second pharmaceutical composition are present separately in the therapeutic agent without being mixed together; wherein the oncolytic vaccinia virus is functionally deficient in the TK gene and in the VGF gene; and wherein the active ingredients of the therapeutic agent consist of the oncolytic vaccinia virus and the NK cells.
Hinged component with one degree of freedom, comprising three concentric rings , rotatable with respect to one other about a central axis (X1), defining a friction interface therebetween, and including: - an outer ring having an inner friction surface , - an inner ring having an outer friction surface and an inner friction surface provided to receive a movable element guided by the component in rotation, oscillation and/or translation, and - an intermediate ring located between the outer and inner rings; a first friction interface being defined between the intermediate ring and the outer ring, a second friction interface being defined between the intermediate ring and the inner ring, the component having five friction surfaces (12; 22; 24; 32; 34), the friction interfaces between the rings receiving a lubricant (L) and at least one of the friction surfaces (12; 22; 12; 22; 24) comprises arrangements (18; 28) capable of acting as a reserve of lubricant (L); characterised in that the component comprises sealing means on opposite sides of the component arranged to prevent leaks of lubricant (L) out of the friction interface . - an outer ring having an inner friction surface , - an inner ring having an outer friction surface and an inner friction surface provided to receive a movable element guided by the component in rotation, oscillation and/or translation, and - an intermediate ring located between the outer and inner rings; a first friction interface being defined between the intermediate ring and the outer ring, a second friction interface being defined between the intermediate ring and the inner ring, the component having five friction surfaces (12; 22; 24; 32; 34), the friction interfaces between the rings receiving a lubricant (L) and at least one of the friction surfaces (12; 22; 12; 22; 24) comprises arrangements (18; 28) capable of acting as a reserve of lubricant (L); characterised in that the component comprises sealing means on opposite sides of the component arranged to prevent leaks of lubricant (L) out of the friction interface .