mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a gasket and a mounting groove, the gasket being mounted to the gasket mounting groove which is opened radially inward or radially outward and has a bottom surface and a pair of axial side surfaces to seal pressure, the gasket comprising: a gasket body in which a reinforcing ring is embedded; a first sealing lip which is provided in an end portion of one axial side of the gasket body and is brought into close contact to one side surface of the mounting groove when mounted; and a second sealing lip which is provided in an end portion of another axial side of the gasket body and is brought into close contact to another side surface of the mounting groove when mounted, the gasket having a structure in which the gasket body is displaced to the one axial side within the mounting groove when pressure acts on the gasket because rigidity of the second sealing lip is set to be higher than rigidity of the first sealing lip or the reinforcing ring is disposed closer to the one axial side within the gasket body , wherein a seal bead which is brought into close contact to the bottom surface of the mounting groove when mounted is provided in the gasket body , a space portion surrounded by the second sealing lip , the seal bead , and the bottom surface and the another side surface of the mounting groove when mounted is provided, and the reinforcing ring is integrally provided with a flange portion radially outward in one end of a cylindrical portion . a gasket body in which a reinforcing ring is embedded; a first sealing lip which is provided in an end portion of one axial side of the gasket body and is brought into close contact to one side surface of the mounting groove when mounted; and a second sealing lip which is provided in an end portion of another axial side of the gasket body and is brought into close contact to another side surface of the mounting groove when mounted, the gasket having a structure in which the gasket body is displaced to the one axial side within the mounting groove when pressure acts on the gasket because rigidity of the second sealing lip is set to be higher than rigidity of the first sealing lip or the reinforcing ring is disposed closer to the one axial side within the gasket body , wherein a seal bead which is brought into close contact to the bottom surface of the mounting groove when mounted is provided in the gasket body , a space portion surrounded by the second sealing lip , the seal bead , and the bottom surface and the another side surface of the mounting groove when mounted is provided, and the reinforcing ring is integrally provided with a flange portion radially outward in one end of a cylindrical portion .
A method for treating solid waste which comprises: introducing said waste into the interior of a rotary autoclave which has a fixed downwardly inclined attitude towards its discharge end and has a door at the discharge end for closing the autoclave, the door having a front dished region and a projecting flange region which assists in sealing with a lower opening of the autoclave body from which treated waste is discharged; injecting steam for treating the load through said door via a plenum chamber defined between the front dished region of the door and a plate secured to the door at a small spacing inwardly of said front dished region , the injection being via fluid delivery line , pressure-tight rotary connector and an inlet which passes axially through said front dished region for leading steam from rotary connector into the autoclave; and passing water and steam from the plenum chamber into the interior of the autoclave through outlets defined in the plate and through a plurality of one-way devices fitted to the outlets and providing parallel paths from the plenum chamber into the interior of the autoclave, the one-way devices preventing solid waste entering the plenum chamber from the interior of the autoclave and being porous stainless-steel discs or one-way valves. introducing said waste into the interior of a rotary autoclave which has a fixed downwardly inclined attitude towards its discharge end and has a door at the discharge end for closing the autoclave, the door having a front dished region and a projecting flange region which assists in sealing with a lower opening of the autoclave body from which treated waste is discharged; injecting steam for treating the load through said door via a plenum chamber defined between the front dished region of the door and a plate secured to the door at a small spacing inwardly of said front dished region , the injection being via fluid delivery line , pressure-tight rotary connector and an inlet which passes axially through said front dished region for leading steam from rotary connector into the autoclave; and passing water and steam from the plenum chamber into the interior of the autoclave through outlets defined in the plate and through a plurality of one-way devices fitted to the outlets and providing parallel paths from the plenum chamber into the interior of the autoclave, the one-way devices preventing solid waste entering the plenum chamber from the interior of the autoclave and being porous stainless-steel discs or one-way valves.
A method of forming an imaging calibration device for a biological material imaging system, the method comprising: providing one or more discrete regions upon or within a retaining member, each region for the receipt of a selected predetermined tissue stain material, wherein, for each discrete region, every part of the discrete region produces a common optical path length through the region, as defined in the direction normal to the surface of the retaining member; wherein providing one or more discrete regions comprises providing one or more elements of stain absorbent material onto the retaining member; selecting one or more predetermined tissue stain materials, wherein each of the selected predetermined tissue stain materials has a predetermined optical response; and depositing one or more of the selected predetermined tissue stains in a fluid form to the said one or more discrete regions such that the said material is localised in the said region. providing one or more discrete regions upon or within a retaining member, each region for the receipt of a selected predetermined tissue stain material, wherein, for each discrete region, every part of the discrete region produces a common optical path length through the region, as defined in the direction normal to the surface of the retaining member; wherein providing one or more discrete regions comprises providing one or more elements of stain absorbent material onto the retaining member; selecting one or more predetermined tissue stain materials, wherein each of the selected predetermined tissue stain materials has a predetermined optical response; and depositing one or more of the selected predetermined tissue stains in a fluid form to the said one or more discrete regions such that the said material is localised in the said region.
A wireless communication method carried out in a user equipment, UE, comprising: if the coverage enhancement, CE, level of the UE is smaller than a predetermined level, receiving a second downlink control information, DCI, if the CE level of the UE is larger than a predetermined level, receiving a first Downlink Control Information, DCI , the first DCI including frequency domain information and time domain information, the frequency domain information indicating a number of physical resource blocks, PRBs, from a plurality of candidates for the number of PRBs in a frequency domain within a narrowband which is a part of a bandwidth, and the time domain information indicating a number of repetitions in a time domain; determining, using the frequency domain information and the time domain information, the number of physical resource blocks and the number of repetitions in a time domain, wherein a number of bits of the first DCI is smaller than that of the second DCI used for the second CE level smaller than the predetermined level. if the coverage enhancement, CE, level of the UE is smaller than a predetermined level, receiving a second downlink control information, DCI, if the CE level of the UE is larger than a predetermined level, receiving a first Downlink Control Information, DCI , the first DCI including frequency domain information and time domain information, the frequency domain information indicating a number of physical resource blocks, PRBs, from a plurality of candidates for the number of PRBs in a frequency domain within a narrowband which is a part of a bandwidth, and the time domain information indicating a number of repetitions in a time domain; determining, using the frequency domain information and the time domain information, the number of physical resource blocks and the number of repetitions in a time domain, wherein a number of bits of the first DCI is smaller than that of the second DCI used for the second CE level smaller than the predetermined level.
A method of making a urinary catheter product, wherein the product includes a sleeve defining an inner cavity and a urinary catheter having a catheter tube located within the inner cavity of the sleeve, the catheter tube having an outer hydrophilic surface, an insertion aid at the distal end of the sleeve configured for passage of the catheter tube therethrough during catheterization, the method comprising: delivering a hydration medium through the insertion aid and into the interior cavity of the sleeve, wherein the hydration medium contacts the outer hydrophilic surface of the catheter tube; and then placing the sleeve having the catheter tube therein in an outer package. delivering a hydration medium through the insertion aid and into the interior cavity of the sleeve, wherein the hydration medium contacts the outer hydrophilic surface of the catheter tube; and then placing the sleeve having the catheter tube therein in an outer package.
A first wireless network unit (A) of a radio telecommunications network (RTN), wherein the first wireless network unit (A) comprises at least one data circuitry (dcA), at least one communication circuitry (ccA) and at least one antenna (aA), wherein the at least one data circuitry (dcA) is configured to interact with the at least one communication circuitry (ccA) and the at least one antenna (aA), wherein the first wireless network unit (A) is configured to determine a data entity (DE) intended to be transmitted via a physical shared radio channel (PSCH); determine a plurality of segments of the determined data entity (DE); determine at least one first radio resource window (rw(n-1)) of the physical shared radio channel (PSCH); monitor the at least one first radio resource window (rw(n-1)); determine a plurality of candidate resources (rr12, rr22) in a second radio resource window (rw(n)) of the physical shared radio channel (PSCH) in dependence on monitored radio resources (rr11, rr21) of the at least one first radio resource window (rw(n-1)), wherein each candidate resource (rr12, rr22) of the plurality of candidate resources (rr12, rr22) is part of a resource chain (RC1, RC2) of the physical shared radio channel (PSCH); select one of the plurality of candidate resources (rr12, rr22) as a transmission start resource (rr12); and transmit the plurality of the determined segments of the data entity (DE) via radio resources (rr12, rr13, rr14) along the resource chain (RC1) to which the selected transmission start resource (rr12) belongs to, wherein a single one of the segments is transmitted via a single one of the radio resources (rr12, rr13, rr14) of the resource chain (RC1). determine a plurality of segments of the determined data entity (DE); determine at least one first radio resource window (rw(n-1)) of the physical shared radio channel (PSCH); monitor the at least one first radio resource window (rw(n-1)); determine a plurality of candidate resources (rr12, rr22) in a second radio resource window (rw(n)) of the physical shared radio channel (PSCH) in dependence on monitored radio resources (rr11, rr21) of the at least one first radio resource window (rw(n-1)), wherein each candidate resource (rr12, rr22) of the plurality of candidate resources (rr12, rr22) is part of a resource chain (RC1, RC2) of the physical shared radio channel (PSCH); select one of the plurality of candidate resources (rr12, rr22) as a transmission start resource (rr12); and transmit the plurality of the determined segments of the data entity (DE) via radio resources (rr12, rr13, rr14) along the resource chain (RC1) to which the selected transmission start resource (rr12) belongs to, wherein a single one of the segments is transmitted via a single one of the radio resources (rr12, rr13, rr14) of the resource chain (RC1).
Reactor apparatus for dehydrogenating a carrier medium comprising a. a reactor housing in which the carrier medium is arranged, b. an interior space which is enclosed by the reactor housing , i. with a preliminary space , which has an inflow opening for inflow of loaded carrier medium into the preliminary space and at least one first connecting opening for outflow of the carrier medium from the preliminary space , ii. with a reaction space connected via the at least one first connecting opening to the preliminary space , c. a heat transfer space which is arranged between the reactor housing and the reaction space and contains a heat transfer medium for transfer of heat from the heat transfer medium to the carrier medium , d. a plurality of reaction tubes , which each have a reaction space and are each connected via a first connecting opening to the preliminary space , characterized in that the reaction tubes are oriented horizontally, the carrier medium is liquid. a. a reactor housing in which the carrier medium is arranged, b. an interior space which is enclosed by the reactor housing , i. with a preliminary space , which has an inflow opening for inflow of loaded carrier medium into the preliminary space and at least one first connecting opening for outflow of the carrier medium from the preliminary space , ii. with a reaction space connected via the at least one first connecting opening to the preliminary space , i. with a preliminary space , which has an inflow opening for inflow of loaded carrier medium into the preliminary space and at least one first connecting opening for outflow of the carrier medium from the preliminary space , ii. with a reaction space connected via the at least one first connecting opening to the preliminary space , c. a heat transfer space which is arranged between the reactor housing and the reaction space and contains a heat transfer medium for transfer of heat from the heat transfer medium to the carrier medium , d. a plurality of reaction tubes , which each have a reaction space and are each connected via a first connecting opening to the preliminary space , the reaction tubes are oriented horizontally, the carrier medium is liquid.
A method for wireless communication performed by a user equipment, UE, comprising: identifying two aggregated mini-slots (505-b, 510-b) to be used for transmission of two or more reference signals and at least one data payload, wherein the two or more reference signals are scheduled for transmission within the two aggregated mini-slots (505-b, 5io-b); determining a reference signal configuration for transmission of the two or more reference signals via the two aggregated mini-slots (505-b, 510-b), wherein at least one demodulation reference signal, DMRS , is repositioned during aggregation to be symmetrically or evenly positioned across the two aggregated mini-slots (505-b, 510-b); allocating the at least one data payload to resources associated with the two aggregated mini-slots (505-b, 510-b); and transmitting , via the two aggregated mini-slots (505-b, 510-b), the two or more reference signals and the at least one data payload based at least in part on the reference signal configuration and the allocation of the at least one data payload. identifying two aggregated mini-slots (505-b, 510-b) to be used for transmission of two or more reference signals and at least one data payload, wherein the two or more reference signals are scheduled for transmission within the two aggregated mini-slots (505-b, 5io-b); determining a reference signal configuration for transmission of the two or more reference signals via the two aggregated mini-slots (505-b, 510-b), wherein at least one demodulation reference signal, DMRS , is repositioned during aggregation to be symmetrically or evenly positioned across the two aggregated mini-slots (505-b, 510-b); allocating the at least one data payload to resources associated with the two aggregated mini-slots (505-b, 510-b); and transmitting , via the two aggregated mini-slots (505-b, 510-b), the two or more reference signals and the at least one data payload based at least in part on the reference signal configuration and the allocation of the at least one data payload.
A seat for a utility vehicle , in particular for a military utility vehicle, comprising: a seat base , a seat element comprising a sitting surface and a first stepping surface , a first pivoting mechanism for pivoting the seat element such that the seat element is pivotable from a seat position (SP1), in which the first stepping surface is facing the seat base , into a first step position (TP1), in which the first stepping surface is facing away from the seat base , a backrest comprising a backrest sitting surface and a second stepping surface , and a second pivoting mechanism for pivoting the backrest such that the backrest is pivotable from a seat position (SP2), in which the backrest sitting surface is positioned upright relative to the seat base , into a second step position (TP2), in which the second stepping surface is arranged parallel to the first stepping surface . a seat base , a seat element comprising a sitting surface and a first stepping surface , a first pivoting mechanism for pivoting the seat element such that the seat element is pivotable from a seat position (SP1), in which the first stepping surface is facing the seat base , into a first step position (TP1), in which the first stepping surface is facing away from the seat base , a backrest comprising a backrest sitting surface and a second stepping surface , and a second pivoting mechanism for pivoting the backrest such that the backrest is pivotable from a seat position (SP2), in which the backrest sitting surface is positioned upright relative to the seat base , into a second step position (TP2), in which the second stepping surface is arranged parallel to the first stepping surface .
A wear resistant device comprising: a wear resistant layer comprised of a matrix of a first metallic material, wherein the matrix first metallic material is selected from a group consisting of cobalt, nickel, cobalt-phosphorus, nickel-phosphorous, nickel-tungsten, and combinations thereof; particulates dispersed throughout the matrix, wherein the particulates are selected from a group consisting of aluminum oxide, silicon carbide, chromium carbide, tungsten carbide, diamond, boron nitride, and combinations thereof; and a boron material distributed within an outer portion of the matrix, wherein the boron material includes boride and elemental boron; wherein the particulates are harder than the first metallic material of the matrix; the wear resistant device further comprises a substrate comprised of a second, different metallic material, wherein the substrate second metallic material is selected from a group consisting of iron-based alloys, nickel-based alloys, cobalt-based alloys, nickel-chromium alloys, cobalt-chromium alloys, titanium alloys, and combinations thereof; and the wear resistant layer is disposed on the substrate characterised in that the wear resistant layer includes an inner sublayer portion relative to the substrate which is free of any of the boron material; and the device is an actuator bore, shaft, air cycle machine component, propeller blade or turbine. a wear resistant layer comprised of a matrix of a first metallic material, wherein the matrix first metallic material is selected from a group consisting of cobalt, nickel, cobalt-phosphorus, nickel-phosphorous, nickel-tungsten, and combinations thereof; particulates dispersed throughout the matrix, wherein the particulates are selected from a group consisting of aluminum oxide, silicon carbide, chromium carbide, tungsten carbide, diamond, boron nitride, and combinations thereof; and a boron material distributed within an outer portion of the matrix, wherein the boron material includes boride and elemental boron; wherein the particulates are harder than the first metallic material of the matrix; the wear resistant device further comprises a substrate comprised of a second, different metallic material, wherein the substrate second metallic material is selected from a group consisting of iron-based alloys, nickel-based alloys, cobalt-based alloys, nickel-chromium alloys, cobalt-chromium alloys, titanium alloys, and combinations thereof; and the wear resistant layer is disposed on the substrate characterised in that the wear resistant layer includes an inner sublayer portion relative to the substrate which is free of any of the boron material; and the device is an actuator bore, shaft, air cycle machine component, propeller blade or turbine.
An unlocking method, wherein the unlocking method comprises: determining , by a control device for Augmented Reality AR , whether a mobile terminal to be unlocked exists; and sending , by the control device , a preset instruction to the mobile terminal to be unlocked when the mobile terminal to be unlocked exists, wherein the preset instruction is used to control the mobile terminal to unlock a display screen, characterised in that , determining whether the mobile terminal to be unlocked exists comprises: obtaining , by the control device , a trusted device list comprising identifiers of one or more trusted mobile terminals that have established a Bluetooth connection with the control device before; sending , by the control device , a preset information request to the one or more trusted mobile terminals in the trusted device list for requesting an acceleration value from each of the trusted mobile terminals; and determining , by the control device , one of the trusted mobile terminals as the mobile terminal to be unlocked when the acceleration value acquired from the one trusted mobile terminal exceeds a preset acceleration threshold. determining , by a control device for Augmented Reality AR , whether a mobile terminal to be unlocked exists; and sending , by the control device , a preset instruction to the mobile terminal to be unlocked when the mobile terminal to be unlocked exists, wherein the preset instruction is used to control the mobile terminal to unlock a display screen, characterised in that , determining whether the mobile terminal to be unlocked exists comprises: obtaining , by the control device , a trusted device list comprising identifiers of one or more trusted mobile terminals that have established a Bluetooth connection with the control device before; sending , by the control device , a preset information request to the one or more trusted mobile terminals in the trusted device list for requesting an acceleration value from each of the trusted mobile terminals; and determining , by the control device , one of the trusted mobile terminals as the mobile terminal to be unlocked when the acceleration value acquired from the one trusted mobile terminal exceeds a preset acceleration threshold. obtaining , by the control device , a trusted device list comprising identifiers of one or more trusted mobile terminals that have established a Bluetooth connection with the control device before; sending , by the control device , a preset information request to the one or more trusted mobile terminals in the trusted device list for requesting an acceleration value from each of the trusted mobile terminals; and determining , by the control device , one of the trusted mobile terminals as the mobile terminal to be unlocked when the acceleration value acquired from the one trusted mobile terminal exceeds a preset acceleration threshold.