mhurhangee/ep-ind-claims huggingface dataset:
Method for grasping and moving in a lifting direction a component having a protruding connecting piece by means of a lifting tool, wherein the connecting piece is grasped by the lifting tool at a fully or partially radially encircling undercut into which multiple gripping elements of the lifting tool engage, wherein the lifting tool has a cylindrical support, a first end region of which is able to be grasped manually and on the other, second end region of which a gripping arrangement for grasping the connecting piece of the component is arranged, wherein a sleeve of the gripping arrangement is arranged on the support so as to be axially displaceable between a release position and a grasping position, characterized in that said sleeve has a pot-like extension at one end thereof, wherein, in the release position, the pot-like extension is situated outside two or more clamping jaws (9, 9') which, at the second end region of the support, surround the support so as to be arranged in a ring-like manner in relation to one another and which are guided on the support so as to be movable between a radially maximum position and a radially minimum position and which are spring-loaded in their radially maximum position, wherein the clamping jaws (9, 9') axially project beyond the second end region of the support with a gripping region and, on the gripping region, have radially inwardly directed projections which, in the radially maximum position of the clamping jaws (9, 9'), are situated radially outside the connecting piece and which, in the radially minimum position, engage into the undercut of the connecting piece, wherein the radially encircling outer contour of the clamping jaws (9, 9'), in their radially maximum position, is larger than the radially encircling inner contour of the pot-like extension of the sleeve, and, by way of displacement of the sleeve into its grasping position, the pot-like extension is pushed axially onto the clamping jaws (9, 9') and the clamping jaws (9, 9') are moved radially inwards into their radially minimum position.
A pipeline coupling, for use in a fluid conduit, comprising: a pair of shut-off valve housings (22, 24) releasably coupled to each other, the shut-off valve housings (22, 24) defining a hollow bore along which flowable material may flow, the shut-off valve housings (22, 24) configured to be decoupleable from each other; a distance monitoring device configured to monitor a separation distance between the shut-off valve housings (22, 24) when they are coupled to each other; and an indication device configured to provide an indication when the distance monitoring device detects that the separation distance between the shut-off valve housings (22, 24) reaches or exceeds a reference threshold value, wherein the distance monitoring device includes a direct contact sensing device configured to monitor the separation distance between the shut-off valve housings (22, 24) when they are coupled to each other, wherein the direct contact sensing device includes a plunger coupled to a first of the shut-off valve housings, the plunger is arranged to be in contact with a second of the shut-off valve housings, and the direct contact sensing device is configured to detect a displacement of the plunger when the shut-off valve housings (22, 24) are coupled to each other. a pair of shut-off valve housings (22, 24) releasably coupled to each other, the shut-off valve housings (22, 24) defining a hollow bore along which flowable material may flow, the shut-off valve housings (22, 24) configured to be decoupleable from each other; a distance monitoring device configured to monitor a separation distance between the shut-off valve housings (22, 24) when they are coupled to each other; and an indication device configured to provide an indication when the distance monitoring device detects that the separation distance between the shut-off valve housings (22, 24) reaches or exceeds a reference threshold value, wherein the distance monitoring device includes a direct contact sensing device configured to monitor the separation distance between the shut-off valve housings (22, 24) when they are coupled to each other, wherein the direct contact sensing device includes a plunger coupled to a first of the shut-off valve housings, the plunger is arranged to be in contact with a second of the shut-off valve housings, and the direct contact sensing device is configured to detect a displacement of the plunger when the shut-off valve housings (22, 24) are coupled to each other.
A medical device, comprising: a conductive body including a surface; a sensor conformally formed on the surface and including a piezoelectric polymer formed about a portion of the surface and following a contour of the surface, the piezoelectric polymer configured to generate or receive ultrasonic energy; and electrical connections conforming to the surface and being connected to at least one electrode in contact with the piezoelectric polymer, the electrical connections providing connections to the piezoelectric polymer and being electrically isolated from the conductive body over at least a portion of the surface, characterized in that the sensor is integrally formed with the medical device. a conductive body including a surface; a sensor conformally formed on the surface and including a piezoelectric polymer formed about a portion of the surface and following a contour of the surface, the piezoelectric polymer configured to generate or receive ultrasonic energy; and electrical connections conforming to the surface and being connected to at least one electrode in contact with the piezoelectric polymer, the electrical connections providing connections to the piezoelectric polymer and being electrically isolated from the conductive body over at least a portion of the surface, characterized in that the sensor is integrally formed with the medical device.
A touch sensing system comprising: a pen including a resonant circuit embedded therein; XY electrodes (X/Y) including X electrodes and Y electrodes perpendicular to the X electrodes; an antenna that surrounds the XY electrodes (X/Y); the touch sensing system characterized by a first touch driving circuit configured to: transmit a resonant inductive signal to the pen through electric capacitance coupling between the XY electrodes and the pen, such that a resonance signal is generated in the resonant circuit of the pen in response to the resonant inductive signal, and receive the resonance signal through the antenna in an electromagnetic field. a pen including a resonant circuit embedded therein; XY electrodes (X/Y) including X electrodes and Y electrodes perpendicular to the X electrodes; an antenna that surrounds the XY electrodes (X/Y); the touch sensing system characterized by a first touch driving circuit configured to: transmit a resonant inductive signal to the pen through electric capacitance coupling between the XY electrodes and the pen, such that a resonance signal is generated in the resonant circuit of the pen in response to the resonant inductive signal, and receive the resonance signal through the antenna in an electromagnetic field. transmit a resonant inductive signal to the pen through electric capacitance coupling between the XY electrodes and the pen, such that a resonance signal is generated in the resonant circuit of the pen in response to the resonant inductive signal, and receive the resonance signal through the antenna in an electromagnetic field.
A device for directly stimulating the spinal cord of a subject so as inhibit pain transmission, the device comprising: a) a compliant backing configured to conform to a region on the surface of the spinal cord inside the dura, the backing having an interior surface and an exterior surface; b) an array of electrodes along the inner surface of the backing; c) a means for securing the array of electrodes directly to the spinal cord; and d) circuitry configured for delivering an electrical stimulus to the spinal cord through the array of electrodes that pulses at a frequency at or above 500 Hz, thereby rendering sensory neurons within the spinal cord refractory to transmission of synchronous action potentials initiated within the spinal cord. a) a compliant backing configured to conform to a region on the surface of the spinal cord inside the dura, the backing having an interior surface and an exterior surface; b) an array of electrodes along the inner surface of the backing; c) a means for securing the array of electrodes directly to the spinal cord; and d) circuitry configured for delivering an electrical stimulus to the spinal cord through the array of electrodes that pulses at a frequency at or above 500 Hz,
A salivation cocktail composition for use in a food or beverage comprising (a) at least one food acid, wherein the food acid is selected from acetic acid, adipic acid, aspartic acid, benzoic acid, caffeotannic acid, citric acid, iso-citric acid, citramalic acid, formic acid, fumaric acid, galacturonic acid, glucuronic acid, glyceric acid, glycolic acid, ketoglutaric acid, α-ketoglutaric acid, lactic acid, lactoisocitric acid, malic acid, oxalacetic acid, oxalic acid, pyruvic acid, quinic acid, shikimic acid, succinic acid, tannic acid, and tartaric acid; and (b) at least one tingling sensate, wherein the tingling sensate is selected from spilanthol, sanshool, hydroxy α-sanshool, hydroxy β-sanshool, hydroxy γ-sanshool, sanshool- I, sanshool II, sanshoamide, chavicine, piperine, echinacea extract, northern prickly ash extract, Nepalese spice timur extract, 4-(1-menthoxymethyl)-2-phenyl-1,3-dioxolane, n -isobutyldeca-trans-2-trans-4-dienamide, n -cyclopropyl,trans-2-cis-6-nonadienamide, n-ethyl trans-2-cis-6-nonadienamide and jambu oleoresin; wherein the food acid and the tingling sensate are present in amounts such that human salivation is synergistically increased upon consuming the food or beverage and wherein the volume ratio of food acid to tingling sensate in the salivation cocktail is from 5:1 to 25:1. (a) at least one food acid, wherein the food acid is selected from acetic acid, adipic acid, aspartic acid, benzoic acid, caffeotannic acid, citric acid, iso-citric acid, citramalic acid, formic acid, fumaric acid, galacturonic acid, glucuronic acid, glyceric acid, glycolic acid, ketoglutaric acid, α-ketoglutaric acid, lactic acid, lactoisocitric acid, malic acid, oxalacetic acid, oxalic acid, pyruvic acid, quinic acid, shikimic acid, succinic acid, tannic acid, and tartaric acid; and (b) at least one tingling sensate, wherein the tingling sensate is selected from spilanthol, sanshool, hydroxy α-sanshool, hydroxy β-sanshool, hydroxy γ-sanshool, sanshool- I, sanshool II, sanshoamide, chavicine, piperine, echinacea extract, northern prickly ash extract, Nepalese spice timur extract, 4-(1-menthoxymethyl)-2-phenyl-1,3-dioxolane, n -isobutyldeca-trans-2-trans-4-dienamide, n -cyclopropyl,trans-2-cis-6-nonadienamide, n-ethyl trans-2-cis-6-nonadienamide and jambu oleoresin;
A method for manufacturing a honeycomb structure having plugging portions, the honeycomb structure having porous partition walls and a plurality of cells partitioned by the partition walls and formed so as to extend through the honeycomb structure from one end face of the honeycomb structure to the other end face thereof, the method comprising the steps of: attaching a mask having openings corresponding to openings of at least a part of the cells to the end faces of the honeycomb structure; supplying a plugging material having fluidity on the mask or on the same plane as a surface of the mask; and moving a pressurizing member, which has a pressurizing face which is a flat surface for pressurizing the plugging material, along the mask so that the pressurizing face is brought into contact with the mask via the plugging material to fill the plugging material into the cells of the honeycomb structure by pressurizing the plugging material with the pressurizing face, wherein the flat surface of the pressurizing face is disposed at an acute angle of 2° or more and 55° or less with respect to the surface of the mask wherein, upon positioning (a) a table portion, having a through-hole (llh) where the end face portion of the honeycomb structure is to be inserted, and (b) the honeycomb structure, by inserting the end face portion of the honeycomb structure into the through-hole (llh), the mask is provided on the end face portion; a remaining portion of the mask is folded on the side surface portion of the honeycomb structure, an end portion of the mask on the end face side of the side surface portion of the honeycomb structure where at least a part of the mask adheres to the side surface portion, is held with a sealing member to seal a gap between the side surface portion of the honeycomb structure and the table portion with the sealing member, and a plugging material having fluidity is supplied onto the mask or the table portion on the same plane as the surface of the mask to fill the plugging material into the cells. (a) a table portion, having a through-hole (llh) where the end face portion of the honeycomb structure is to be inserted, and (b) the honeycomb structure, by inserting the end face portion of the honeycomb structure into the through-hole (llh),
A method for operating a mixing chamber for a reformer, wherein a fuel is evaporated and mixed with an oxidizing agent, having the steps - a liquid, cold fuel is introduced into a first zone of the mixing chamber and atomized through a single-substance nozzle, - water vapour is also introduced into the first zone of the mixing chamber through a second nozzle tangentially to the atomized fuel flow, - upon contact of the liquid, cold atomized fuel with the water vapour, a vaporisation of the fuel will occur, - an oxidizing agent is supplied to the evaporated fuel and evenly mixed with it downstream of the introduced fuel and the water vapour at the border of a second zone of the mixing chamber. - a liquid, cold fuel is introduced into a first zone of the mixing chamber and atomized through a single-substance nozzle, - water vapour is also introduced into the first zone of the mixing chamber through a second nozzle tangentially to the atomized fuel flow, - upon contact of the liquid, cold atomized fuel with the water vapour, a vaporisation of the fuel will occur, - an oxidizing agent is supplied to the evaporated fuel and evenly mixed with it downstream of the introduced fuel and the water vapour at the border of a second zone of the mixing chamber.
A luminaire comprising a receptacle socket assembly mounted in an opening of a wall of the luminaire, said receptacle socket assembly comprising: - a receptacle extending in the opening, said receptacle having a front side for being located at an external side of the wall, a rear side for being located at an internal side of the wall and a peripheral side between the front side and the rear side, said receptacle housing a plurality of receptacle contacts (110, 120) and said front side being configured for receiving external contacts of an external module such that the external contacts (510, 520) contact the receptacle contacts; - at least one peripheral body (200; 200a, 200b) arranged around the peripheral side of the receptacle and coupled in such a manner with the wall that the at least one peripheral body is non-rotatable relative to the wall; - wherein the at least one peripheral body (200; 200a, 200b) and the peripheral side of the receptacle are coupled such that the receptacle is non-rotatable relative to the at least one peripheral body; wherein the receptacle socket assembly further comprises a nut, wherein the peripheral side of the receptacle is provided near the rear side with a screw thread cooperating with the nut to fix the receptacle in the opening, characterized in that the at least one peripheral body is inserted between the wall and the nut. - a receptacle extending in the opening, said receptacle having a front side for being located at an external side of the wall, a rear side for being located at an internal side of the wall and a peripheral side between the front side and the rear side, said receptacle housing a plurality of receptacle contacts (110, 120) and said front side being configured for receiving external contacts of an external module such that the external contacts (510, 520) contact the receptacle contacts; - at least one peripheral body (200; 200a, 200b) arranged around the peripheral side of the receptacle and coupled in such a manner with the wall that the at least one peripheral body is non-rotatable relative to the wall; - wherein the at least one peripheral body (200; 200a, 200b) and the peripheral side of the receptacle are coupled such that the receptacle is non-rotatable relative to the at least one peripheral body;
A thermally conductive material, comprising: (a) an olefin block composite; and (b) a thermally conductive filler, wherein said thermally conductive filler is present in an amount sufficient to provide said thermally conductive material with a higher thermal conductivity relative to said olefin block composite in its neat state, wherein the olefin block composite is a polymer composition comprising three components: a soft copolymer, a hard copolymer, and a block copolymer having a soft segment and a hard segment, wherein the hard segment of the block copolymer is the same composition as the hard polymer in the block composite and the soft segment of the block copolymer is the same composition as the soft copolymer of the block composite, wherein the block composite is prepared solely from two or more alpha-olefin monomers. (a) an olefin block composite; and (b) a thermally conductive filler,
Set with a drive device and at least two pressing tools (200, 200.1) that can be alternatively connected thereto, the drive device comprising a gripping surface, a connecting part for connecting the pressing tools (200, 200.1) and a roller plunger for activating the connected pressing tool, wherein the connecting part is disposed on the front on the drive device and has a plug-in receptacle, which is upstream in the plug-in direction of the gripping surface and into which each of the pressing tools is insertable from the front of the drive device, wherein furthermore the connecting part has a coupling point in order to effect a force coupling between the connecting part and the pressing tool inserted into the plug-in receptacle, characterized in that at least two depth stops (33, 34) are provided on the connecting part at different depths of the plug-in receptacle, and that the pressing tools (200, 200.1) are each designed for only one of the depth stops (33, 34) and have a counter stop (210; 210.1) for the respective corresponding depth stop (33; 34) in order to come into contact with the associated depth stop (33; 34) when inserted into the plug-in receptacle. the drive device comprising a gripping surface, a connecting part for connecting the pressing tools (200, 200.1) and a roller plunger for activating the connected pressing tool, wherein the connecting part is disposed on the front on the drive device and has a plug-in receptacle, which is upstream in the plug-in direction of the gripping surface and into which each of the pressing tools is insertable from the front of the drive device, wherein furthermore the connecting part has a coupling point in order to effect a force coupling between the connecting part and the pressing tool inserted into the plug-in receptacle, characterized in that at least two depth stops (33, 34) are provided on the connecting part at different depths of the plug-in receptacle, and that the pressing tools (200, 200.1) are each designed for only one of the depth stops (33, 34) and have a counter stop (210; 210.1) for the respective corresponding depth stop (33; 34) in order to come into contact with the associated depth stop (33; 34) when inserted into the plug-in receptacle.
A fiber structure, having an upstream side and a downstream side, comprising: a plurality of micron-sized fibers, each micron-sized fiber comprising a body having a diameter of at least one micron; and a plurality of discrete length crimped nano-fibers attached to respective ones of the bodies of the micron-sized fibers. a plurality of micron-sized fibers, each micron-sized fiber comprising a body having a diameter of at least one micron; and a plurality of discrete length crimped nano-fibers attached to respective ones of the bodies of the micron-sized fibers.
2- -(4-Fluoro-2-methyl-phenyl)-4- -( -6-oxo-hexahydro-pyrrolo[1,2- a]-pyrazin-2-yl)-piperidine-1-carboxylic acid [1- -(3,5-bis-trifluoromethyl-phenyl)-ethyl]-methylamide (orvepitant) or a pharmaceutically acceptable salt thereof for use in the treatment of chronic pruritus due to or associated with inflammatory dermatoses.
An amphoteric ion-type basic amino acid derivative represented by the formula: wherein an acyl group represented by R 1 -CO- is an acyl group derived from an optionally substituted saturated or unsaturated fatty acid having 6 - 18 carbon atoms; R 2 and R 3 are each independently an optionally substituted saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 6 carbon atoms, or R 2 and R 3 optionally form, together with the nitrogen atom bonded thereto, an optionally substituted heterocycle; R 4, R 5 and R 6 are each independently a hydrogen atom or an optionally substituted saturated or unsaturated straight chain or branched chain hydrocarbon group having 1 - 6 carbon atoms; m is an integer of 1 - 20; n is an integer of 1 - 4; X is a sulfonic acid group or a carboxylic acid group; and Y is an optionally substituted saturated or unsaturated straight chain or branched chain divalent hydrocarbon group having 1 - 8 carbon atoms, or a salt thereof.
A method for use in communication system wherein a client device requests media segments from a media ingestion system, the method comprising: constructing, at the media ingestion system, forward error correction, FEC, blocks in a FEC segment that correspond to media fragments in a media segment, wherein the FEC blocks in the FEC segment have the same order as the media fragments in the media segment, and wherein FEC symbols in the FEC blocks are in order of their encoding symbol identifier; and naming, using the media ingestion system, a plurality of segments such that media segments containing media fragments and FEC segments containing FEC blocks are named according to a derivable pattern derivable at a client device, thereby allowing a client device to derive names of corresponding FEC segments in order to make requests for those FEC segments based on media fragments needed by the client device. constructing, at the media ingestion system, forward error correction, FEC, blocks in a FEC segment that correspond to media fragments in a media segment, wherein the FEC blocks in the FEC segment have the same order as the media fragments in the media segment, and wherein FEC symbols in the FEC blocks are in order of their encoding symbol identifier; and naming, using the media ingestion system, a plurality of segments such that media segments containing media fragments and FEC segments containing FEC blocks are named according to a derivable pattern derivable at a client device, thereby allowing a client device to derive names of corresponding FEC segments in order to make requests for those FEC segments based on media fragments needed by the client device.