mhurhangee/ep-ind-claims huggingface dataset:
A supported proton conducting membrane comprising a porous support, a non porous proton conducting membrane thereon and a dehydrogenation catalyst on said proton conducting membrane so as to form the layered structure support - membrane - catalyst; characterised in that said non porous proton conducting membrane comprises a mixed metal oxide of formula Ln a W b-c Mo c O 12-y wherein Ln is Y or an element numbered 57 to 71; the molar ratio of a:b is 4.8 to 6, preferably 5.3 to 6; c is 0 to (0.5 x b); and y is a number such that formula is uncharged, e.g. y is 0 ≤ y ≤ 1.8; and wherein said support comprises a porous mixed metal oxide of formula Ln a W b-c Mo c O 12-y wherein Ln is Y or an element numbered 57 to 71; the molar ratio of a:b is 4.8 to 6, preferably 5.3 to 6; c is 0 to (0.5 x b); and y is a number such that formula is uncharged, e.g. y is 0 ≤ y ≤ 1.8. wherein Ln is Y or an element numbered 57 to 71; the molar ratio of a:b is 4.8 to 6, preferably 5.3 to 6; c is 0 to (0.5 x b); and y is a number such that formula is uncharged, e.g. y is 0 ≤ y ≤ 1.8; and wherein Ln is Y or an element numbered 57 to 71; the molar ratio of a:b is 4.8 to 6, preferably 5.3 to 6; c is 0 to (0.5 x b); and y is a number such that formula is uncharged, e.g. y is 0 ≤ y ≤ 1.8.
A filter assembly, comprising: a filter media sized for positioning within an air induction system and for cleaning air, the filter media possessing a first side and a second side substantially opposite the first side; a layer of sound absorbing foam positioned adjacent one of the first side of the filter media and the second side of the filter media, the sound absorbing foam including a plurality of perforations therein, the plurality of perforations permitting air to flow through the filter media and the layer of sound absorbing foam; wherein the layer of sound absorbing foam is perforated such that the perforations cover approximately 35 to 50 percent of a face of the layer of sound absorbing foam resulting in an open area in the range of about 35 to 50 percent of a total area of the face; and wherein the layer of sound absorbing foam is adhered directly to the one of the first side of the filter media and the second side of the filter media. a filter media sized for positioning within an air induction system and for cleaning air, the filter media possessing a first side and a second side substantially opposite the first side; a layer of sound absorbing foam positioned adjacent one of the first side of the filter media and the second side of the filter media, the sound absorbing foam including a plurality of perforations therein, the plurality of perforations permitting air to flow through the filter media and the layer of sound absorbing foam; wherein the layer of sound absorbing foam is perforated such that the perforations cover approximately 35 to 50 percent of a face of the layer of sound absorbing foam resulting in an open area in the range of about 35 to 50 percent of a total area of the face; and wherein the layer of sound absorbing foam is adhered directly to the one of the first side of the filter media and the second side of the filter media.
A scaffold comprising: at least one inlet tube; at least one outlet tube; a plurality of porous elongated electrospun microtubes, wherein each one of said porous elongated microtube has an inner diameter of 5-100 micrometers, wherein said plurality of elongated microtubes extend from said at least one inlet tube to said at least one outlet tube and is in fluid communication thereto; and; a plurality of fibers having a diameter range of 0.5-10 micrometers, wherein said plurality of fibers is dispersed upon a portion of each of said plurality of porous elongated microtubes, and wherein a distance between adjacent fibers of the plurality of fibers ranges between 20 micrometers and 300 micrometers. at least one inlet tube; at least one outlet tube; a plurality of porous elongated electrospun microtubes, wherein each one of said porous elongated microtube has an inner diameter of 5-100 micrometers, wherein said plurality of elongated microtubes extend from said at least one inlet tube to said at least one outlet tube and is in fluid communication thereto; and; a plurality of fibers having a diameter range of 0.5-10 micrometers, wherein said plurality of fibers is dispersed upon a portion of each of said plurality of porous elongated microtubes, and wherein a distance between adjacent fibers of the plurality of fibers ranges between 20 micrometers and 300 micrometers.
A surface card antenna apparatus, comprising: a single circuit board having a major side surface; a horizontal polarization antenna portion mounted on the major side surface of the single circuit board; a vertical polarization antenna portion mounted on the major side surface of the single circuit board, and a plurality of feedlines interconnecting the horizontal polarization antenna portion and the vertical polarization antenna portion and configured to feed the horizontal polarization antenna portion and the vertical polarization antenna portion; wherein the horizontal polarization antenna portion is mounted at one end portion of the single circuit board, and the vertical polarization antenna portion is mounted at an opposite end portion of the single circuit board. a single circuit board having a major side surface; a horizontal polarization antenna portion mounted on the major side surface of the single circuit board; a vertical polarization antenna portion mounted on the major side surface of the single circuit board, and a plurality of feedlines interconnecting the horizontal polarization antenna portion and the vertical polarization antenna portion and configured to feed the horizontal polarization antenna portion and the vertical polarization antenna portion; wherein the horizontal polarization antenna portion is mounted at one end portion of the single circuit board, and the vertical polarization antenna portion is mounted at an opposite end portion of the single circuit board.
A system comprising: a plurality of interconnected sockets (210, 220) each including a cache flush engine, CFE (202, 222), a core (212, 232), and an associated cache hierarchy comprising a plurality of caches, one of the CFEs designated as a master CFE in a master socket, the master CFE to: receive a request specifying an opcode and a range, the opcode calling for a cache flush; execute the request to cause writeback and, if indicated by the request, invalidation of modified cache lines in the master socket falling within the range; and communicate a request to any other, slave sockets in the system each having a slave CFE to cause writeback and, if indicated by the request, invalidation of modified cache lines in the slave socket falling within the range, wherein each of the sockets (210, 220) is coupled to a persistent memory, characterized in that the plurality of caches comprises coherent caches and memory-side caches, the memory side caches to cache data stored in the persistent memory, wherein the request specifies, using either the opcode or the range, whether cache lines to be flushed are in a coherent cache or in a memory-side cache. receive a request specifying an opcode and a range, the opcode calling for a cache flush; execute the request to cause writeback and, if indicated by the request, invalidation of modified cache lines in the master socket falling within the range; and communicate a request to any other, slave sockets in the system each having a slave CFE to cause writeback and, if indicated by the request, invalidation of modified cache lines in the slave socket falling within the range, wherein each of the sockets (210, 220) is coupled to a persistent memory, characterized in that the plurality of caches comprises coherent caches and memory-side caches, the memory side caches to cache data stored in the persistent memory, wherein the request specifies, using either the opcode or the range, whether cache lines to be flushed are in a coherent cache or in a memory-side cache.
Method of applying an adhesive-backed film to the surface of a vehicle and cutting the film, said method comprising the use of a cutting tool guide structure, wherein the cutting tool guide structure is removably attachable to a surface of the vehicle and comprises at least one cutting slit for receiving a cutting tool and being dimensioned such that the cutting tool can be moved back and forth in one direction within the cutting slit to carry out a cutting action, and wherein the guide structure is dimensioned such that it can be placed on or between opposite surfaces, of the vehicle, and wherein the method comprises (i) applying the adhesive-backed film on the surface of the vehicle wherein the film extends beyond the surface of the vehicle, wherein the areas of the film that extend beyond the surface are not to be adhered and are to be cut off; (ii) placing the cutting tool guide structure on or between opposite surfaces, of the vehicle such that the cutting slit of the cutting tool guide structure is situated underneath an area of the film that is to be cut off, (iii) placing the unadhered section of the film, which is to be cut off, over the cutting slit of the guide structure; (iv) inserting a cutting tool into the cutting slit and cutting off the excess film by moving the cutting tool along the cutting slit, wherein (i) can be carried out simultaneously with (ii), prior to (ii) or after (ii). (i) applying the adhesive-backed film on the surface of the vehicle wherein the film extends beyond the surface of the vehicle, wherein the areas of the film that extend beyond the surface are not to be adhered and are to be cut off; (ii) placing the cutting tool guide structure on or between opposite surfaces, of the vehicle such that the cutting slit of the cutting tool guide structure is situated underneath an area of the film that is to be cut off, (iii) placing the unadhered section of the film, which is to be cut off, over the cutting slit of the guide structure; (iv) inserting a cutting tool into the cutting slit and cutting off the excess film by moving the cutting tool along the cutting slit,
A method of mounting a bearing to an air compressor which includes: a base frame defining a first mounting hole, which allows a pinion driven by a motor to pass, and a second mounting hole for receiving therein a bearing which has an outer ring, an inner ring defining a central hole, and a plurality of rolling balls disposed between the outer ring and the inner ring; a cylinder fixed to or formed integrally with the base frame; an air storage container provided with one or more outlet tubes (411, 412) and connected with the cylinder; a gear in mesh with the pinion, the gear having a non-circular hole defined at its center; a crank mechanism including a counterweight provided on the gear, and a shaft element having a first end and a second end, wherein the second end has a diameter greater than the first end, thus forming an annular step therebetween, wherein the shaft element is a solid body having a circular top face on its first end, wherein a cutout is defined at the second end of the shaft element to form a non-circular portion on the second end of the shaft element corresponding to the non-circular hole of the gear; the method comprising the steps of: fixing the second end of the shaft element to a center of the gear; inserting the first end of the shaft element through the central hole of the bearing to have the annular step of the shaft element abutted the inner ring of the bearing; and hitting the first end of the shaft element by a striking tool to form an expanded or flared edge on a top face of the first end of the shaft element; whereby the bearing is firmly fixed between the expanded or flared edge and the annular step of the shaft element. fixing the second end of the shaft element to a center of the gear; inserting the first end of the shaft element through the central hole of the bearing to have the annular step of the shaft element abutted the inner ring of the bearing; and hitting the first end of the shaft element by a striking tool to form an expanded or flared edge on a top face of the first end of the shaft element; whereby the bearing is firmly fixed between the expanded or flared edge and the annular step of the shaft element.
Countertop for kitchen furniture comprising a hob with a plurality of magnetic inductors designed to be used for cooking food and located underneath a plurality of cooking areas of said hob, said hob further comprising a plurality of removable protection elements designed to be positioned on top of said plurality of cooking areas; wherein said hob is provided with at least one safety device designed to ensure correct positioning of the removable protection elements; and wherein there is continuity of material between the cooking areas of said hob and the countertop; characterized in that the safety device uses RFID technology and comprises two electronic tags provided on the removable protection elements, and two corresponding receivers positioned underneath the hob and in that each cooking area is provided with a removable protection element and in that cooking areas of the same size have receivers arranged in the same relative position and cooking areas with different dimensions have receivers arranged in different positions so as to be able to use the appropriate removable protection element. wherein said hob is provided with at least one safety device designed to ensure correct positioning of the removable protection elements; and wherein there is continuity of material between the cooking areas of said hob and the countertop; characterized in that the safety device uses RFID technology and comprises two electronic tags provided on the removable protection elements, and two corresponding receivers positioned underneath the hob and in that each cooking area is provided with a removable protection element and in that cooking areas of the same size have receivers arranged in the same relative position and cooking areas with different dimensions have receivers arranged in different positions so as to be able to use the appropriate removable protection element.
An apparatus for use in the treatment of substrates with a solid particulate material, said apparatus comprising: (a) a housing having mounted therein a rotatably mounted drum having an inner surface and an end wall; and (b) access means for introducing said substrates into said drum, wherein said drum comprises storage means for storage of said solid particulate material and a plurality of flow paths to facilitate flow of said solid particulate material between said storage means and an interior of said drum, and wherein said drum has at least one elongate protrusion located on said inner surface of said drum, wherein the elongate protrusion extends in a direction away from said end wall, wherein said elongate protrusion has an end proximal to the end wall and an end distal to the end wall wherein said drum comprises a dispensing flow path to facilitate flow of said solid particulate material from said storage means to the interior of said drum, and a collecting flow path to facilitate flow of said particulate material from the interior of said drum to said storage means, characterised in that said dispensing flow path and said collecting flow path are different flow paths; wherein the elongate protrusion extends from said end wall and wherein the collecting flow path comprises a collecting aperture which is located in the elongate protrusion at its proximal end. (a) a housing having mounted therein a rotatably mounted drum having an inner surface and an end wall; and (b) access means for introducing said substrates into said drum, wherein said drum comprises storage means for storage of said solid particulate material and a plurality of flow paths to facilitate flow of said solid particulate material between said storage means and an interior of said drum, said drum comprises a dispensing flow path to facilitate flow of said solid particulate material from said storage means to the interior of said drum, and a collecting flow path to facilitate flow of said particulate material from the interior of said drum to said storage means, characterised in that said dispensing flow path and said collecting flow path are different flow paths; wherein the elongate protrusion extends from said end wall and wherein the collecting flow path comprises a collecting aperture which is located in the elongate protrusion at its proximal end.
A method of transmitting, by a user equipment, a Scheduling Request, SR, in a wireless communication system, the method comprising: receiving configuration information, wherein the configuration information includes i) a first SR configuration for a logical channel related to a Buffer Status Reporting, BSR, and ii) a second SR configuration for a Secondary Cell, SCell, beam failure recovery, wherein each SR configuration consists of a set of PUCCH resources; and transmitting the SR on a valid Physical Uplink Control Channel, PUCCH, resource among PUCCH resources based on the configuration information, characterized in that the valid PUCCH resource is based on a PUCCH resource on a bandwidth part, BWP, which is active at a time of SR transmission occasion, and based on one or more PUCCH resources related to the BSR triggered by the logical channel overlapping with a PUCCH resource for the SCell beam failure recovery for the SR transmission occasion: the PUCCH resource for the SCell beam failure recovery is determined as valid, and the SR is transmitted on the PUCCH resource for the SCell beam failure recovery. receiving configuration information, wherein the configuration information includes i) a first SR configuration for a logical channel related to a Buffer Status Reporting, BSR, and ii) a second SR configuration for a Secondary Cell, SCell, beam failure recovery, wherein each SR configuration consists of a set of PUCCH resources; and transmitting the SR on a valid Physical Uplink Control Channel, PUCCH, resource among PUCCH resources based on the configuration information, characterized in that the valid PUCCH resource is based on a PUCCH resource on a bandwidth part, BWP, which is active at a time of SR transmission occasion, and based on one or more PUCCH resources related to the BSR triggered by the logical channel overlapping with a PUCCH resource for the SCell beam failure recovery for the SR transmission occasion: the PUCCH resource for the SCell beam failure recovery is determined as valid, and the SR is transmitted on the PUCCH resource for the SCell beam failure recovery. the PUCCH resource for the SCell beam failure recovery is determined as valid, and the SR is transmitted on the PUCCH resource for the SCell beam failure recovery.
Apparatus for continuously measuring the blood pressure of a user for monitoring purposes, with at least one pressure sensor designed to rest against a site on the external surface of the body of the user, to continuously measure at the site the pressure influenced by the blood pressure and to generate a corresponding electrical pressure signal, a band designed to encompass the body and to hold the pressure sensor against the surface at the site with safe, functional contact, a band-tension sensor designed to continuously measure the tensile stress in the band and to generate a corresponding electrical band-tension signal, as well as an electronic circuit with a current supply, a microprocessor designed to establish a diastolic and a systolic blood-pressure value and an output element designed to display and output, respectively, the blood-pressure values, characterized in that the microprocessor is designed to establish a correction function, as a function of the corresponding band-tension signal and pressure signal, in the case of the band being tightened to different extents, in order to correct the pressure signal during the continuous measurement as a function of the band-tension signal, and the microprocessor is designed to take into account the band-tension signal in the processing of the pressure signal to establish the diastolic and the systolic blood-pressure value.
An exterior structural trim part for a vehicle, comprising at least an area comprising at least 3 layers superposed and laminated together to form a structural unit whereby the two outer layers are compressed and consolidated fibrous layers (12 and 13) characterized in that the inner layer situated in-between the two fibrous outer layers is an impervious polyester foam layer.
A process for the production of 1,3-butadiene, the process comprising i) providing a supported catalyst comprising lanthanum, zirconium, and zinc, the support comprising silica; and ii) contacting a feed comprising ethanol with the supported catalyst, to obtain a raw product comprising 1,3-butadiene. i) providing a supported catalyst comprising lanthanum, zirconium, and zinc, the support comprising silica; and ii) contacting a feed comprising ethanol with the supported catalyst,
A compressor comprising: a case having an outlet configured to discharge a refrigerant at one side thereof; a rotation shaft disposed in the case; a driver coupled to the case and configured to rotate the rotation shaft; a compression unit coupled to the rotation shaft and configured to compress the refrigerant; and a muffler coupled to the compression unit and configured to provide an enclosed space for guiding the refrigerant to the outlet, wherein the compressor further comprises a branch protruding or recessed and extending from at least one of the compression unit and the muffler in a direction of the rotation shaft in the manner of expanding the enclosed space such that the branch is configured to reduce vibration or noise caused by the refrigerant discharged from the compression unit, wherein the muffler comprises: a muffler shaft support portion having an opening and coupled to the rotation shaft; the compressor being characterised in that the muffler further comprises a collector protruding and extending from the muffler in a direction away from the rotation shaft and configured to guide the refrigerant to the outlet; and a guider configured to guide the refrigerant collected by the collector to the outlet, and wherein the branch protrudes and extends from the collector in the direction away from the compression unit. a case having an outlet configured to discharge a refrigerant at one side thereof; a rotation shaft disposed in the case; a driver coupled to the case and configured to rotate the rotation shaft; a compression unit coupled to the rotation shaft and configured to compress the refrigerant; and a muffler coupled to the compression unit and configured to provide an enclosed space for guiding the refrigerant to the outlet, wherein the compressor further comprises a branch protruding or recessed and extending from at least one of the compression unit and the muffler in a direction of the rotation shaft in the manner of expanding the enclosed space such that the branch is configured to reduce vibration or noise caused by the refrigerant discharged from the compression unit, wherein the muffler comprises: a muffler shaft support portion having an opening and coupled to the rotation shaft; the compressor being characterised in that the muffler further comprises a collector protruding and extending from the muffler in a direction away from the rotation shaft and configured to guide the refrigerant to the outlet; and a guider configured to guide the refrigerant collected by the collector to the outlet, and wherein the branch protrudes and extends from the collector in the direction away from the compression unit. a muffler shaft support portion having an opening and coupled to the rotation shaft; the compressor being characterised in that the muffler further comprises a collector protruding and extending from the muffler in a direction away from the rotation shaft and configured to guide the refrigerant to the outlet; and a guider configured to guide the refrigerant collected by the collector to the outlet, and wherein the branch protrudes and extends from the collector in the direction away from the compression unit.