mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus having a tube and having a housing, which can be mounted thereon, for a charging box for electric vehicles, having three side walls and a cover , wherein a first side wall contains an opening for the introduction of the tube , wherein the three side walls are arranged to form a U, which has the opening provided on its side wall , which forms the first limb, and on its second limb, which forms the opposite side wall , in alignment with the opening , a tube piece is connected to the side wall , the cross section, in particular the diameter, of said tube piece being larger or smaller than the cross section of the tube , wherein the tube has a tube portion , which is introduced through the opening , and wherein the tube portion and the tube piece can be pushed one inside the other and, in the pushed-together state, can be locked, characterized - in that on the side wall , which is located opposite the first side wall , in alignment with the opening , a first part of an electric plug connector is fastened in the tube piece , and in that, at its free end, the tube portion has the part which forms the counterpart to the first part of the plug connector and is long enough so that, when introduced through the opening , it establishes the plug-in connection between the two parts of the plug connector. - in that on the side wall , which is located opposite the first side wall , in alignment with the opening , a first part of an electric plug connector is fastened in the tube piece , and in that, at its free end, the tube portion has the part which forms the counterpart to the first part of the plug connector and is long enough so that, when introduced through the opening , it establishes the plug-in connection between the two parts of the plug connector.
A pallet configured to hold and transport a plurality of glass substrates in a substantially vertical orientation through a sputtering apparatus , the pallet comprising: a frame comprising an aperture; and an adjustable grid array within the aperture, the adjustable grid array configurable to hold the plurality of glass substrates of different shapes and/or sizes at the same time, each along at least two edges, and in the substantially vertical orientation during transport through the sputtering apparatus , wherein the adjustable grid array comprises a system of vertical support bars , the vertical support bars slidably engaged with grid mounts at top and bottom inner edges of the frame, the vertical support bars configured to support the plurality of glass substrates along their vertical edges. a frame comprising an aperture; and an adjustable grid array within the aperture, the adjustable grid array configurable to hold the plurality of glass substrates of different shapes and/or sizes at the same time, each along at least two edges, and in the substantially vertical orientation during transport through the sputtering apparatus , wherein the adjustable grid array comprises a system of vertical support bars , the vertical support bars slidably engaged with grid mounts at top and bottom inner edges of the frame, the vertical support bars configured to support the plurality of glass substrates along their vertical edges.
An electrical converter having an active diode-clamped multilevel topology in which each clamping diode (S5P, S6P) is connected in antiparallel with a switch (S5A, S5B), the converter comprising: polyphase supply phases (A, B, C) each of which is connected via a respective phase leg to dc rails and a dc-link capacitor, the dc-link capacitor including a plurality of series-connected capacitors ; and characterized by : a controller configured to, in response to an event signal indicative of a fault which has occurred on a dc side of the converter, for each phase leg, activate a combination of switches therein to form a pair of parallel conduction paths to a midpoint between two capacitors in the dc-link capacitor, thereby connecting each phase to the same node and isolating an input of the converter from the DC side of the converter. polyphase supply phases (A, B, C) each of which is connected via a respective phase leg to dc rails and a dc-link capacitor, the dc-link capacitor including a plurality of series-connected capacitors ; and characterized by : a controller configured to, in response to an event signal indicative of a fault which has occurred on a dc side of the converter, for each phase leg, activate a combination of switches therein to form a pair of parallel conduction paths to a midpoint between two capacitors in the dc-link capacitor, thereby connecting each phase to the same node and isolating an input of the converter from the DC side of the converter.
A packaged IC comprising: a package having a die paddle , a signal lead , and a ground lead ; and a die having a ground pad and a signal pad , the die being secured to the package; the signal pad being electrically connected to the signal lead, the ground pad being electrically connected to both the die paddle and the ground lead, wherein the die comprises a via extending from the ground pad, the via being electrically connected with the die paddle. a package having a die paddle , a signal lead , and a ground lead ; and a die having a ground pad and a signal pad , the die being secured to the package; the signal pad being electrically connected to the signal lead, the ground pad being electrically connected to both the die paddle and the ground lead, wherein the die comprises a via extending from the ground pad, the via being electrically connected with the die paddle.
A method for preparing a thermoplastic polyurethane elastomer material with micro air holes, characterized by comprising following steps: feeding liquid raw materials including diisocyanate molecules and polyol, and solid additives into a double-screw reactor to trigger a polymerization type chain extension reaction so as to obtain a hot melt having a high molecular weight; pushing the hot melt having a high molecular weight obtained in step into a mixing extruder via the exit of the double-screw reactor, and allowing the reaction to continue to generate a macromolecular thermoplastic polyurethane elastomer with molecular weight distribution in a narrow range; continuously feeding the obtained macromolecular thermoplastic polyurethane elastomer into a foaming extruder , and at the same time, adding nucleator and a foaming agent into the foaming extruder, well mixing and homogenizing all materials to obtain a mixture, delivering the mixture to a mold head by a melt booster pump under a controlled pressure and at a fixed amount, and extruding a high-pressure hot melt from the mold head into an under-water granulation chamber ; granulating the high-pressure hot melt obtained in step in the underwater granulation chamber, delivering granulated particles into a separator by process water via a multi-stage pressure-release expansion process water pipeline, separating the generated expanded particles from the process water at the separator, screening and drying the expanded particles to obtain the target product. feeding liquid raw materials including diisocyanate molecules and polyol, and solid additives into a double-screw reactor to trigger a polymerization type chain extension reaction so as to obtain a hot melt having a high molecular weight; pushing the hot melt having a high molecular weight obtained in step into a mixing extruder via the exit of the double-screw reactor, and allowing the reaction to continue to generate a macromolecular thermoplastic polyurethane elastomer with molecular weight distribution in a narrow range; continuously feeding the obtained macromolecular thermoplastic polyurethane elastomer into a foaming extruder , and at the same time, adding nucleator and a foaming agent into the foaming extruder, well mixing and homogenizing all materials to obtain a mixture, delivering the mixture to a mold head by a melt booster pump under a controlled pressure and at a fixed amount, and extruding a high-pressure hot melt from the mold head into an under-water granulation chamber ; granulating the high-pressure hot melt obtained in step in the underwater granulation chamber, delivering granulated particles into a separator by process water via a multi-stage pressure-release expansion process water pipeline, separating the generated expanded particles from the process water at the separator, screening and drying the expanded particles to obtain the target product.
A bearing ring for a roller bearing defining a guiding flange and a raceway , wherein the bearing ring comprises a retainer element (120, 120a-c) that is removably engageable with the raceway, characterized in that said retainer element (120, 120a-c) is removably engageable with an engagement feature (124, 124a-c, 106) defined by the bearing ring, at at least one location on the bearing ring, to modify or adjust the raceway width to accommodate different sized rolling elements in different bearings showing the same basic configuration of inner and outer rings.
Process for producing a security element comprising a support made from oriented plastic and at least one layer of liquid crystals borne and oriented by the support, an adhesion primer being deposited before or after the support is stretched in at least one direction, said stretching making it possible to bring the support to the oriented state and characterized in that the liquid crystals are deposited by means of printing on this adhesion primer.
An apparatus of a user equipment, UE, operable for bandwidth part, BWP, configuration, the apparatus comprising: one or more processors configured to: decode, at the UE, a radio resource control, RRC, signal including BWP configuration information for one or more of downlink, DL, or uplink, UL, BWP configurations, wherein the DL BWP configurations are configured separately from the UL BWP configurations, and wherein the BWP configuration information comprises: subcarrier spacing for the BWP, and location and bandwidth of the BWP, encode, at the UE, one or more of data or control information, using the BWP configuration information, for transmission to a base station; and decode, at the UE, one or more of data or control information, received from the base station, using the BWP configuration information; and a memory interface configured to send the BWP configuration information to a memory. one or more processors configured to: decode, at the UE, a radio resource control, RRC, signal including BWP configuration information for one or more of downlink, DL, or uplink, UL, BWP configurations, wherein the DL BWP configurations are configured separately from the UL BWP configurations, and wherein the BWP configuration information comprises: subcarrier spacing for the BWP, and location and bandwidth of the BWP, encode, at the UE, one or more of data or control information, using the BWP configuration information, for transmission to a base station; and decode, at the UE, one or more of data or control information, received from the base station, using the BWP configuration information; and decode, at the UE, a radio resource control, RRC, signal including BWP configuration information for one or more of downlink, DL, or uplink, UL, BWP configurations, wherein the DL BWP configurations are configured separately from the UL BWP configurations, and wherein the BWP configuration information comprises: subcarrier spacing for the BWP, and location and bandwidth of the BWP, subcarrier spacing for the BWP, and location and bandwidth of the BWP, encode, at the UE, one or more of data or control information, using the BWP configuration information, for transmission to a base station; and decode, at the UE, one or more of data or control information, received from the base station, using the BWP configuration information; and a memory interface configured to send the BWP configuration information to a memory.
An outdoor device of an air conditioner, comprising: a top cover configured to form an external appearance of an upper surface of the outdoor device, the top cover having at least one discharge port , through which air passed through an outdoor heat exchanger can be discharged and a recess recessed along at least a portion of an edge of the top cover ; and a plurality of panels configured to form an external appearance of a circumference of the outdoor device, wherein an outer end of the top cover is bent downward to form an edge configured to accommodate upper ends of the plurality of panels , and wherein an upper end of each of the plurality of panels is bent toward an inside of the outdoor device to form a bent portion , wherein the bent portion is formed to extend and be fitted into a space between the edge and the recess , and restricted by the top cover ,and wherein a circumference of the recess is formed to be inclined, and formed by a restriction portion (143; 133), which is in contact with an end of the bent portion , and a distance between the restriction portion (143; 133) and the edge is gradually reduced upward. a top cover configured to form an external appearance of an upper surface of the outdoor device, the top cover having at least one discharge port , through which air passed through an outdoor heat exchanger can be discharged and a recess recessed along at least a portion of an edge of the top cover ; and a plurality of panels configured to form an external appearance of a circumference of the outdoor device, wherein an outer end of the top cover is bent downward to form an edge configured to accommodate upper ends of the plurality of panels , and wherein an upper end of each of the plurality of panels is bent toward an inside of the outdoor device to form a bent portion , wherein the bent portion is formed to extend and be fitted into a space between the edge and the recess , and restricted by the top cover ,and wherein a circumference of the recess is formed to be inclined, and formed by a restriction portion (143; 133), which is in contact with an end of the bent portion , and a distance between the restriction portion (143; 133) and the edge is gradually reduced upward.
A composition for use in the management, treatment or prevention of hypertension, the composition comprising Lactobacillus plantarum ECGC 13110402 and galactooligosaccharides (GOS), wherein the GOS is produced by the Lactobacillus plantarum strain.
A self-calibrating sensor system , comprising: one or more sensors supportively disposed on or proximate to a wall defining one or more apertures , each of the one or more sensors being configured to track individuals proximate to at least one of the one or more apertures ; characterized by a processor configured to: create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures ; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures . one or more sensors supportively disposed on or proximate to a wall defining one or more apertures , each of the one or more sensors being configured to track individuals proximate to at least one of the one or more apertures ; characterized by a processor configured to: create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures ; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures . create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures ; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures .
A device for detecting crack formation in a component as a consequence of hardening under heat treatment of the component , such as for example inductive hardening or flame hardening, and/or as a consequence of straightening of the component , comprising a sound sensor , which can be coupled in terms of structure-borne sound to the component , the device comprising an evaluation unit configured for the frequency- and time-based evaluation of sound signals detected by the sound sensor during the hardening or straightening, characterized in that the evaluation unit is set up for comparing different crack category threshold values with the integrated intensity of sound signals detected within a frequency and/or time window, wherein different crack category threshold values are provided for two time periods of the hardening process or straightening process.
A systemic formulation containing (S,E)-methyl-7-(1-(2-(2-ethylbutylamino)-2-oxoethyl)-2-oxo-1,2-dihydro-pyridin-3-ylamino)-6-(1-methyl-1H-imidazole-5-carboxamido)-7-oxohept-2-enoate of the formula ( I ): or an enantiomer, a solvate, a hydrate or a pharmaceutically acceptable salt thereof, and at least one polymeric precipitation inhibitor.
A method comprising: triggering, by a service orchestrator hosted on a processor, creation of one or more container instances for a first service cluster , wherein the first service cluster provides a first service for a telecommunications services platform; creating, by a container manager hosted on a processor, the one or more container instances; mapping, by the container manager , the one or more container instances of the first service cluster to one or more first virtual machines belonging to a first virtual machine server group in accordance with a platform profile of the first virtual machine server group and the first service provided by the first service cluster; mapping, by a virtual machine manager hosted on a processor, the one or more first virtual machines to one or more first host virtual machines of a cloud network in accordance with the platform profile of the first virtual machine server group; and deploying the one or more first host virtual machines on one or more host processors. triggering, by a service orchestrator hosted on a processor, creation of one or more container instances for a first service cluster , wherein the first service cluster provides a first service for a telecommunications services platform; creating, by a container manager hosted on a processor, the one or more container instances; mapping, by the container manager , the one or more container instances of the first service cluster to one or more first virtual machines belonging to a first virtual machine server group in accordance with a platform profile of the first virtual machine server group and the first service provided by the first service cluster; mapping, by a virtual machine manager hosted on a processor, the one or more first virtual machines to one or more first host virtual machines of a cloud network in accordance with the platform profile of the first virtual machine server group; and deploying the one or more first host virtual machines on one or more host processors.
A method for coating a carbon-carbon composite structure, comprising: applying a pretreating composition consisting of a single pretreating composition on a surface of the carbon-carbon composite structure, the single pretreating composition comprising a first acid aluminum phosphate comprising a first molar ratio of aluminum to phosphate between 1 to 2 and 1 to 3, wherein the single pretreating composition comprises less than 0.01% by weight of aluminum oxide; heating the carbon-carbon composite structure to a pretreating composition temperature sufficient to form an aluminum phosphate polymer layer on the carbon-carbon composite structure; applying a second slurry to the aluminum phosphate polymer layer, and heating the composite structure to a sealing layer temperature sufficient to form a sealing layer on the aluminum phosphate polymer layer, wherein the second slurry comprises a second pre-slurry composition and a second carrier fluid, and the second pre-slurry composition comprises a second phosphate glass composition; said method further comprising; applying a first slurry to the aluminum phosphate polymer layer and heating the carbon-carbon composite structure to a base layer temperature sufficient to form a base layer prior to applying the second slurry to the aluminum phosphate polymer layer, wherein the first slurry comprises a first pre-slurry composition and a first carrier fluid, and the first pre-slurry composition comprises a first phosphate glass composition and a second acid aluminum phosphate wherein a second molar ratio of aluminum to phosphate is between 1 to 2 and 1 to 3. applying a pretreating composition consisting of a single pretreating composition on a surface of the carbon-carbon composite structure, the single pretreating composition comprising a first acid aluminum phosphate comprising a first molar ratio of aluminum to phosphate between 1 to 2 and 1 to 3, wherein the single pretreating composition comprises less than 0.01% by weight of aluminum oxide; heating the carbon-carbon composite structure to a pretreating composition temperature sufficient to form an aluminum phosphate polymer layer on the carbon-carbon composite structure; applying a second slurry to the aluminum phosphate polymer layer, and heating the composite structure to a sealing layer temperature sufficient to form a sealing layer on the aluminum phosphate polymer layer, wherein the second slurry comprises a second pre-slurry composition and a second carrier fluid, and the second pre-slurry composition comprises a second phosphate glass composition; said method further comprising; applying a first slurry to the aluminum phosphate polymer layer and heating the carbon-carbon composite structure to a base layer temperature sufficient to form a base layer prior to applying the second slurry to the aluminum phosphate polymer layer, wherein the first slurry comprises a first pre-slurry composition and a first carrier fluid, and the first pre-slurry composition comprises a first phosphate glass composition and a second acid aluminum phosphate wherein a second molar ratio of aluminum to phosphate is between 1 to 2 and 1 to 3.