mhurhangee/patent-ind-claim-en huggingface dataset:
A particulate material comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework comprising micropores and/or mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and (b) an electroactive material selected from silicon, tin, germanium and aluminium and mixtures thereof located within the micropores and/or mesopores of the porous carbon framework; wherein the composite particles have a D 90 particle diameter of no more than 10 μm and a D 50 particle diameter of at least 1.5 to 7 μm, wherein D 90 refers to the volume-based 90th percentile particle diameter and D 50 refers to the volume-based median particle diameter, both as measured by laser diffraction in accordance with ISO 13320:2009. (a) a porous carbon framework comprising micropores and/or mesopores, wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and wherein the micropores and mesopores have a total pore volume as measured by gas adsorption of P 1 cm 3 /g, wherein P 1 represents a natural number having a value of at least 0.6, wherein the PD 50 pore diameter as measured by gas adsorption is no more than 2 nm, wherein the term PD 50 pore diameter refers to the volume-based median pore diameter, based on the total volume of micropores and mesopores; and (b) an electroactive material selected from silicon, tin, germanium and aluminium and mixtures thereof located within the micropores and/or mesopores of the porous carbon framework;
A method for manufacturing a textile product, the method comprising the steps of: a) providing a first sheet with yarns fastened thereto, where the first sheet has a first surface and a second surface and the yarns extend from the first surface of the first sheet, b) heating the second surface of the first sheet thereby at least partly melting the yarns fastened to the first sheet to bond the yarns to the first sheet; c) exposing the second surface of the first sheet to pressure; d) imparting a mechanical force on the molten fraction of the yarns in a direction parallel to the surface of the first sheet; wherein the method further comprises e) applying hot melt adhesive as a fluid having a viscosity of less than 500 Pa.s at 150°C, measured according to the description, to the second surface of the first sheet, wherein the hot melt adhesive is applied at a temperature above its melt temperature but below the melt temperature of the first sheet to which it is applied, and wherein the hot melt adhesive comprises a polymer P in an amount of at least 50% by weight of the hot melt adhesive composition, and wherein the polymer P is a polyester, wherein the polymer P is semi-crystalline and has a melting point from 40 to 200°C, measured according to the description, a glass transition temperature below 50°C, measured according to the description, and a melt viscosity at 150°C of less than 500 Pa.s, measured according to the description. a) providing a first sheet with yarns fastened thereto, where the first sheet has a first surface and a second surface and the yarns extend from the first surface of the first sheet, b) heating the second surface of the first sheet thereby at least partly melting the yarns fastened to the first sheet to bond the yarns to the first sheet; c) exposing the second surface of the first sheet to pressure; d) imparting a mechanical force on the molten fraction of the yarns in a direction parallel to the surface of the first sheet; wherein the method further comprises e) applying hot melt adhesive as a fluid having a viscosity of less than 500 Pa.s at 150°C, measured according to the description, to the second surface of the first sheet, wherein the hot melt adhesive is applied at a temperature above its melt temperature but below the melt temperature of the first sheet to which it is applied, and wherein the hot melt adhesive comprises a polymer P in an amount of at least 50% by weight of the hot melt adhesive composition, and wherein the polymer P is a polyester, wherein the polymer P is semi-crystalline and has a melting point from 40 to 200°C, measured according to the description, a glass transition temperature below 50°C, measured according to the description, and a melt viscosity at 150°C of less than 500 Pa.s, measured according to the description.
A process for manufacturing a ceramic component for timepiece or jewellery part, characterized in that it comprises : - a) a first phase (P1) consisting in preparing a ceramic powder, said ceramic powder being in particular based on zirconia and/or alumina and/or strontium aluminate, - b) a deposition step (E3) comprising the deposition of at least one additional element or compound on said ceramic powder by an atomic layer deposition (ALD), - c) a second phase (P2), before or after the deposition step (E3), consisting in integrating a binder of organic material type into the ceramic powder for forming a ceramic powder with binder, and characterized in that then after the phases (P1) and (P2) of preparing a ceramic powder and integrating a binder and after the deposition step (E3) comprising the deposition of at least one additional element or compound, the manufacturing process carries out: - d) a third phase (P3) of provisional shaping of the ceramic powder with binder comprising the at least one additional compound, then - e) a fourth phase (P4) comprising a step of debinding the provisionally shaped ceramic component consisting in particular of the elimination of the organic compounds then a step of sintering the ceramic component. - a) a first phase (P1) consisting in preparing a ceramic powder, said ceramic powder being in particular based on zirconia and/or alumina and/or strontium aluminate, - b) a deposition step (E3) comprising the deposition of at least one additional element or compound on said ceramic powder by an atomic layer deposition (ALD), - c) a second phase (P2), before or after the deposition step (E3), consisting in integrating a binder of organic material type into the ceramic powder for forming a ceramic powder with binder, - d) a third phase (P3) of provisional shaping of the ceramic powder with binder comprising the at least one additional compound, then - e) a fourth phase (P4) comprising a step of debinding the provisionally shaped ceramic component consisting in particular of the elimination of the organic compounds then a step of sintering the ceramic component.
A method for performing a chemical and/or a biological assay comprising at least the following successive steps of: a) providing an assay device comprising at least one microchannel having at least an inlet and at least an outlet , said assay device further comprising restricting means designed to restrict the movement toward the outlet of microparticles introduced in the microchannel while letting a fluid to flow through the restricting means toward the outlet , b) introducing a plurality of microparticles in the microchannel via the inlet , each microparticle having a shape relative to the cross-section of the microchannel that prevents overlapping of two adjacent microparticles , c) restricting the movement of said microparticles in the microchannel toward the outlet using restricting means , d) flowing a fluid sample through the microchannel and, e) performing a biological and/or chemical read-out on each microparticle , f) while the restricting means restricts movement of the microparticles in a direction toward the outlet , moving the microparticles backward toward the inlet along the microchannel and forward toward the outlet along the microchannel , the backward and forward movement of the microparticles causing spatially and random rearrangement the microparticles relative to one another along the microchannel , wherein the microparticles are moved toward the inlet of the microchannel a distance representing at least five times the dimension of a microparticle measured along the microchannel , and g) repeating successively the steps d) and e), wherein the steps f) and g) are periodically repeated at a predetermined frequency ranging from 0.05 Hz to 5Hz. a) providing an assay device comprising at least one microchannel having at least an inlet and at least an outlet , said assay device further comprising restricting means designed to restrict the movement toward the outlet of microparticles introduced in the microchannel while letting a fluid to flow through the restricting means toward the outlet , b) introducing a plurality of microparticles in the microchannel via the inlet , each microparticle having a shape relative to the cross-section of the microchannel that prevents overlapping of two adjacent microparticles , c) restricting the movement of said microparticles in the microchannel toward the outlet using restricting means , d) flowing a fluid sample through the microchannel and, e) performing a biological and/or chemical read-out on each microparticle , f) while the restricting means restricts movement of the microparticles in a direction toward the outlet , moving the microparticles backward toward the inlet along the microchannel and forward toward the outlet along the microchannel , the backward and forward movement of the microparticles causing spatially and random rearrangement the microparticles relative to one another along the microchannel , wherein the microparticles are moved toward the inlet of the microchannel a distance representing at least five times the dimension of a microparticle measured along the microchannel , and g) repeating successively the steps d) and e),
A method for providing a mat containing aerogel, comprising the steps of: - immersing a ribbon of fabric in a solution containing aerogel in suspension, said solution comprising water and ethanol, - continuously drying said ribbon impregnated with the solution , - winding said dried ribbon containing aerogel onto a reel . - immersing a ribbon of fabric in a solution containing aerogel in suspension, said solution comprising water and ethanol, - continuously drying said ribbon impregnated with the solution , - winding said dried ribbon containing aerogel onto a reel .
A caliper body , particularly for disc brakes of the type comprising at least one brake disc that is provided with two opposite braking surfaces upon which it is possible to actuate respective braking means , and which comprises a central portion that has two substantially opposite sides from which two lateral portions protrude which are intended to face the two opposite braking surfaces when the caliper body is arranged so as to straddle said brake disc, said caliper body being in one piece made of composite material constituted by a basic matrix in which appropriately oriented reinforcement fibers are dispersed and in that each one of said lateral portions comprises a seat for accommodating respective braking means which can be associated with said caliper body by the interposition of connecting means, the caliper body being characterized in that it comprises two connecting portions that are interposed between the free ends of said two lateral portions so as to define a continuous surface, said two lateral portions and said two connecting portions having respective flaps so as to define a continuous perimetric containment ring in which the reinforcement fibers are arranged so as to be oriented along the perimeter of said containment ring.
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.
An antenna, comprising: a first coarse phase shifter configured to receive a radio frequency (RF) signal of a first frequency band; a second coarse phase shifter configured to receive a RF signal of a second frequency band; first and second diplexers each configured to combine a varied phase signal output by the first coarse phase shifter with a varied phase signal output by the second coarse phase shifter ; a first fine phase shifter comprising an input coupled to an output of the first diplexer; a second fine phase shifter comprising an input coupled to an output of the second diplexer; a plurality of radiating elements comprising at least one first radiating element coupled to a respective output of the first fine phase shifter and at least one second radiating element coupled to a respective output of the second fine phase shifter ; and a tilt adapter , which is coupled to the both the first and second coarse phase shifters as well as the first and second fine phase shifters , and which is configured to adjust the first fine phase shifter based on adjustments made to the first and second coarse phase shifters and further configured to adjust the second fine phase shifter based on adjustments made to the first and second coarse phase shifters , wherein the first and second coarse phase shifters are independently adjustable. a first coarse phase shifter configured to receive a radio frequency (RF) signal of a first frequency band; a second coarse phase shifter configured to receive a RF signal of a second frequency band; first and second diplexers each configured to combine a varied phase signal output by the first coarse phase shifter with a varied phase signal output by the second coarse phase shifter ; a first fine phase shifter comprising an input coupled to an output of the first diplexer; a second fine phase shifter comprising an input coupled to an output of the second diplexer; a plurality of radiating elements comprising at least one first radiating element coupled to a respective output of the first fine phase shifter and at least one second radiating element coupled to a respective output of the second fine phase shifter ; and a tilt adapter , which is coupled to the both the first and second coarse phase shifters as well as the first and second fine phase shifters , and which is configured to adjust the first fine phase shifter based on adjustments made to the first and second coarse phase shifters and further configured to adjust the second fine phase shifter based on adjustments made to the first and second coarse phase shifters , wherein the first and second coarse phase shifters are independently adjustable.
An interior lining component for a motor vehicle, which comprises: a carrier component , which determines the contour of the interior lining component, a cover layer , which is applied to a front side of the carrier component , and a light-emitting layer , the contour of which is adapted to the contour of the carrier component and which is applied to the back side of the carrier component and is detachably connected thereto, wherein the carrier component and the cover layer are transparent, characterized in that the light-emitting layer has a woven fabric containing optical fibers, and the fibers have connector ends for connection to a light source, and that the light-emitting layer is applied to a carrier layer , which has connector pins , and the connector ends of the light-emitting layer are connected to the connector pins . a carrier component , which determines the contour of the interior lining component, a cover layer , which is applied to a front side of the carrier component , and a light-emitting layer , the contour of which is adapted to the contour of the carrier component and which is applied to the back side of the carrier component and is detachably connected thereto, wherein the carrier component and the cover layer are transparent, characterized in that the light-emitting layer has a woven fabric containing optical fibers, and the fibers have connector ends for connection to a light source, and that the light-emitting layer is applied to a carrier layer , which has connector pins , and the connector ends of the light-emitting layer are connected to the connector pins .
Composition comprising the complex of formula (II) below: constituted of at least 80% of a diastereoisomeric excess comprising a mixture of isomers II-RRR and II-SSS of formulae: and a free macrocyclic ligand, and advantageously having a concentration of free gadolinium of less than 1 ppm (m/v), characterized in that it comprises between 0.002 and 0.4 mol/mol% of free macrocyclic ligand relative to the complex of formula (II).
An epoxy resin formulation for preforms, textiles or pre-impregnated textiles consisting of a blend of solid phenoxy resin having an average molecular weight between 30000 to 65000 dalton and an epoxy resin being selected from a diglycidyl ether of biphenol, bisphenol, hydrocarbyl-substituted biphenol, hydrocarbyl-substituted bisphenol, phenol- or hydrocarbyl-substituted bisphenol-aldehyde novolac resin, unsaturated hydrocarbon-phenol or hydrocarbyl-substituted phenol resin, with a level of the solid phenoxy resin from 5 to 25 weight% more preferably, the epoxy resin is a diglycidyl ether of Bisphenol A having an epoxide equivalent weight of from 185 to 3000 g/eq.
A saddle-riding motor vehicle (1; 107; 207) with at least one rear driving wheel (5; 105; 205) and at least a first front steered wheel (7; 107; 207X, 207Y), which is connected to a rotatable arm (9; 109; 209X, 209Y) provided with a rotary motion about a steering axis (A-A); wherein a wheel support (37; 137) is connected to the rotatable arm (9; 109; 209X, 209Y) with the interposition of a suspension (17; 117; 217X, 217Y) comprising a shock absorber (22; 122), said wheel support (37; 137) supporting the front steered wheel (7; 107; 207X, 207Y) and defining a rotation axis (B-B) of said front steered wheel (7; 107; 207); characterized in that the suspension (17; 117) comprises a Roberts four-bar linkage.
A method of forming an elongate optical transmission element comprising: moving a buffer tube surrounding an optical fiber into a laser ablation station ; directing a laser beam toward an outer surface of the buffer tube ; and removing portions of buffer tube with the laser beam forming a depression pattern along the outer surface of the buffer tube , the method being further characterised in that the step of directing the laser beam includes directing the laser with a rotating mirror to different portions of the outer surface of the buffer tube while translating the buffer tube past the rotating mirror , and in that the depression pattern is formed from a plurality of discreet depressions positioned in the helical pattern around the outer surface of the buffer tube , wherein each of the discreet depressions are separated from each other along the helical shape of the helical pattern by an original section of buffer tube having an original thickness. moving a buffer tube surrounding an optical fiber into a laser ablation station ; directing a laser beam toward an outer surface of the buffer tube ; and removing portions of buffer tube with the laser beam forming a depression pattern along the outer surface of the buffer tube , the method being further characterised in that the step of directing the laser beam includes directing the laser with a rotating mirror to different portions of the outer surface of the buffer tube while translating the buffer tube past the rotating mirror , and in that the depression pattern is formed from a plurality of discreet depressions positioned in the helical pattern around the outer surface of the buffer tube , wherein each of the discreet depressions are separated from each other along the helical shape of the helical pattern by an original section of buffer tube having an original thickness.
A method for a user equipment, UE, communicating with eNB, evolved NodeB, over Uu interface while communicating with other UEs directly over PC5 interface (S1701), and operating in a wireless communication system, the method comprising: receiving an uplink grant while one or more Scheduling Requests, briefly SRs, are pending (S1705); generating a Medium Access Control Protocol Data Unit, briefly MAC PDU (S1707), based upon the uplink grant; and canceling all of the one or more pending SRs (S1711) when all of the one or more pending SRs are triggered by a sidelink Buffer Status Report, briefly BSR, procedure, and the MAC PDU includes a sidelink BSR MAC Control Element, briefly CE (S1709), wherein sidelink corresponds to the PC5 interface, wherein the sidelink BSR informs a buffer status of sidelink data. receiving an uplink grant while one or more Scheduling Requests, briefly SRs, are pending (S1705); generating a Medium Access Control Protocol Data Unit, briefly MAC PDU (S1707), based upon the uplink grant; and canceling all of the one or more pending SRs (S1711) when all of the one or more pending SRs are triggered by a sidelink Buffer Status Report, briefly BSR, procedure, and the MAC PDU includes a sidelink BSR MAC Control Element, briefly CE (S1709), wherein sidelink corresponds to the PC5 interface, wherein the sidelink BSR informs a buffer status of sidelink data.