mhurhangee/patent-ind-claim-en huggingface dataset:
A member for a wearable device, comprising: (i) a resin base material; - wherein the resin base material has a concave portion, the electronic component is disposed on the concave portion, and the concave portion and the electronic component are covered with the protecting layer from there above, (ii) an electronic component; and (iii) a protecting layer which protects the electronic component, and which is formed from a curable composition comprising - at least one cross-linking agent selected from organosilicon compounds having, each bonded to Si, at least two -O-R g3 wherein R g3 each independently is H or a monovalent organic group, and organosilicon compounds having two or more H each bonded to Si (Si-H) in one molecule; and - a perfluoropolyether group-containing compound selected from perfluoropolyether group-containing silane compounds and perfluoropolyether group-containing compounds having a carbon-carbon double bond at a molecular end. (i) a resin base material; - wherein the resin base material has a concave portion, the electronic component is disposed on the concave portion, and the concave portion and the electronic component are covered with the protecting layer from there above, - wherein the resin base material has a concave portion, the electronic component is disposed on the concave portion, and the concave portion and the electronic component are covered with the protecting layer from there above, (ii) an electronic component; and (iii) a protecting layer which protects the electronic component, and which is formed from a curable composition comprising - at least one cross-linking agent selected from organosilicon compounds having, each bonded to Si, at least two -O-R g3 wherein R g3 each independently is H or a monovalent organic group, and organosilicon compounds having two or more H each bonded to Si (Si-H) in one molecule; and - a perfluoropolyether group-containing compound selected from perfluoropolyether group-containing silane compounds and perfluoropolyether group-containing compounds having a carbon-carbon double bond at a molecular end. - at least one cross-linking agent selected from organosilicon compounds having, each bonded to Si, at least two -O-R g3 wherein R g3 each independently is H or a monovalent organic group, and organosilicon compounds having two or more H each bonded to Si (Si-H) in one molecule; and - a perfluoropolyether group-containing compound selected from perfluoropolyether group-containing silane compounds and perfluoropolyether group-containing compounds having a carbon-carbon double bond at a molecular end.
An emulation apparatus arranged to emulate an electrophysiological signal derived from a target area of the nervous system of a human or animal body under the influence of a stimulation signal applied to the human or animal body, the emulation apparatus comprising: a prior signal generator arranged to generate a prior signal representing an electrophysiological signal derived from a target area of the nervous system of a human or animal body in the absence of a stimulation signal; a test signal input arranged to receive a test signal representing a stimulation signal applied to the human or animal body; a modelling unit arranged to derive a modulation signal, which modulation signal represents the degree of modulation of the electrophysiological signal by the stimulation signal, from the test signal in accordance with a model implemented within the modelling unit of the temporal evolution of the modulation of the electrophysiological signal caused by the stimulation signal; and a modulation unit arranged to modulate the prior signal in accordance with the modulation signal to output an emulation signal representing an electrophysiological signal derived under the influence of the stimulation signal. a prior signal generator arranged to generate a prior signal representing an electrophysiological signal derived from a target area of the nervous system of a human or animal body in the absence of a stimulation signal; a test signal input arranged to receive a test signal representing a stimulation signal applied to the human or animal body; a modelling unit arranged to derive a modulation signal, which modulation signal represents the degree of modulation of the electrophysiological signal by the stimulation signal, from the test signal in accordance with a model implemented within the modelling unit of the temporal evolution of the modulation of the electrophysiological signal caused by the stimulation signal; and a modulation unit arranged to modulate the prior signal in accordance with the modulation signal to output an emulation signal representing an electrophysiological signal derived under the influence of the stimulation signal.
A microelectronic assembly comprising: a microelectronic element having a major surface , and a first dielectric layer and at least one first bond pad exposed at the major surface , the microelectronic element containing a plurality of active circuit elements; a second element having a coefficient of thermal expansion of less than 10 ppm/°C, the second element having a major surface , at least one second bond pad , and a second dielectric layer exposed at the major surface thereof; a first metal layer overlying the at least one first bond pad and the first dielectric layer of the microelectronic element , wherein a first gap exists in the first metal layer between the at least one first bond pad and the first dielectric layer and between each adjacent pair of first bond pads and first dielectric layers ; a second metal layer overlying the at least one second bond pad and the second dielectric layer of the second element , wherein a second gap exists in the second metal layer between the at least one second bond pad and the second dielectric layer and between each adjacent pair of second bond pads and second dielectric layers ; and wherein the first and second metal layers overlying the first and second dielectric layers are joined together and the first and second metal layers overlying the at least one first and second bond pads are joined together and mechanically and electrically connect the microelectronic element with the second element . a microelectronic element having a major surface , and a first dielectric layer and at least one first bond pad exposed at the major surface , the microelectronic element containing a plurality of active circuit elements; a second element having a coefficient of thermal expansion of less than 10 ppm/°C, the second element having a major surface , at least one second bond pad , and a second dielectric layer exposed at the major surface thereof; a first metal layer overlying the at least one first bond pad and the first dielectric layer of the microelectronic element , wherein a first gap exists in the first metal layer between the at least one first bond pad and the first dielectric layer and between each adjacent pair of first bond pads and first dielectric layers ; a second metal layer overlying the at least one second bond pad and the second dielectric layer of the second element , wherein a second gap exists in the second metal layer between the at least one second bond pad and the second dielectric layer and between each adjacent pair of second bond pads and second dielectric layers ; and wherein the first and second metal layers overlying the first and second dielectric layers are joined together and the first and second metal layers overlying the at least one first and second bond pads are joined together and mechanically and electrically connect the microelectronic element with the second element .
A resin impregnation measurement device comprising: a jig configured to be disposed between a skin and a stringer , the stringer including coupling portions coupled to the skin and a protrusion that protrudes away from the skin , the jig being formed into an inner surface shape of the protrusion , the jig comprising outer surfaces comprising a first facing surface (FS) that is to face an inner surface of the protrusion and a second facing surface that is to face the skin , and a resin impregnation sensor disposed on the first facing surface (FS) or the second facing surface of the jig . a jig configured to be disposed between a skin and a stringer , the stringer including coupling portions coupled to the skin and a protrusion that protrudes away from the skin , the jig being formed into an inner surface shape of the protrusion , the jig comprising outer surfaces comprising a first facing surface (FS) that is to face an inner surface of the protrusion and a second facing surface that is to face the skin , and a resin impregnation sensor disposed on the first facing surface (FS) or the second facing surface of the jig .
A method of preparing a composition comprising stressed tumor cells and immunogenic stress proteins of said tumor cells, comprising the following steps: i) cultivating tumor cells in a culture medium; ii) subjecting the cultured tumor cells from step i) to a stress in vitro, wherein the stress is selected from the group consisting of an irradiation, a heat shock, a chemical shock, a metabolic stress and a combination of at least two of them, wherein said cultured cells develop a resistance mechanism in response to said stress which causes the production of the stress proteins by said cells; iii) recovering the product of step ii) comprising stressed tumor cells and stress proteins found intracellularly, extracellularly free, intramembranously, and/or at the surface of a tumor cell; iv) treating the product obtained at step iii) with a molecule or a process capable of rendering the stress proteins immunogenic, wherein the time interval between the end of step ii) and the beginning of the next step is of several hours. i) cultivating tumor cells in a culture medium; ii) subjecting the cultured tumor cells from step i) to a stress in vitro, wherein the stress is selected from the group consisting of an irradiation, a heat shock, a chemical shock, a metabolic stress and a combination of at least two of them, wherein said cultured cells develop a resistance mechanism in response to said stress which causes the production of the stress proteins by said cells; iii) recovering the product of step ii) comprising stressed tumor cells and stress proteins found intracellularly, extracellularly free, intramembranously, and/or at the surface of a tumor cell; iv) treating the product obtained at step iii) with a molecule or a process capable of rendering the stress proteins immunogenic,
An inkjet liquid composition comprising: an organic solvent; a polymerizable compound, which is an oligomer or a polymer; a photopolymerization initiator; a polyether-modified siloxane compound having a weight-average molecular weight of 3,000 or more; and a vinyl chloride-vinyl acetate copolymer, wherein a content of the organic solvent is 40% by mass or more and 90% by mass or less with respect to a total mass of the composition, wherein a content of the polyether-modified siloxane compound is 2% by mass or more and 15% by mass or less with respect to a total solid content of the composition, wherein the "solid content" in the composition excludes volatile components such as an organic solvent. an organic solvent; a polymerizable compound, which is an oligomer or a polymer; a photopolymerization initiator; a polyether-modified siloxane compound having a weight-average molecular weight of 3,000 or more; and a vinyl chloride-vinyl acetate copolymer, wherein a content of the organic solvent is 40% by mass or more and 90% by mass or less with respect to a total mass of the composition,
A first wireless transmit/receive unit, WTRU, comprising a processor configured, at least in part, to: determine whether the first WTRU has device-to-device, D2D, data to transmit to a second WTRU; and on a condition that the first WTRU has D2D data to transmit to the second WTRU: autonomously select a subset of scheduling assignment, SA, resources for transmission of an SA to the second WTRU from a pre-configured set of allowed SA resources, transmit the SA to the second WTRU according to a first transmission period using the autonomously selected subset of SA resources, determine a set of allowed device-to-device, D2D, data resources for D2D data transmission to the second WTRU, autonomously select one or more transmission patterns for D2D transmission to the second WTRU, autonomously select one or more transmission parameters for D2D transmission to the second WTRU, and transmit D2D data to the second WTRU over the set of allowed D2D data resources according to a second transmission period using the autonomously selected one or more transmission patterns, and according to the autonomously selected one or more transmission parameters. determine whether the first WTRU has device-to-device, D2D, data to transmit to a second WTRU; and on a condition that the first WTRU has D2D data to transmit to the second WTRU: autonomously select a subset of scheduling assignment, SA, resources for transmission of an SA to the second WTRU from a pre-configured set of allowed SA resources, transmit the SA to the second WTRU according to a first transmission period using the autonomously selected subset of SA resources, determine a set of allowed device-to-device, D2D, data resources for D2D data transmission to the second WTRU, autonomously select one or more transmission patterns for D2D transmission to the second WTRU, autonomously select one or more transmission parameters for D2D transmission to the second WTRU, and transmit D2D data to the second WTRU over the set of allowed D2D data resources according to a second transmission period using the autonomously selected one or more transmission patterns, and according to the autonomously selected one or more transmission parameters. autonomously select a subset of scheduling assignment, SA, resources for transmission of an SA to the second WTRU from a pre-configured set of allowed SA resources, transmit the SA to the second WTRU according to a first transmission period using the autonomously selected subset of SA resources, determine a set of allowed device-to-device, D2D, data resources for D2D data transmission to the second WTRU, autonomously select one or more transmission patterns for D2D transmission to the second WTRU, autonomously select one or more transmission parameters for D2D transmission to the second WTRU, and transmit D2D data to the second WTRU over the set of allowed D2D data resources according to a second transmission period using the autonomously selected one or more transmission patterns, and according to the autonomously selected one or more transmission parameters.
A modular axle assembly for supporting wheels of an agricultural vehicle, said modular axle assembly comprising: a first tube ; a second tube parallel to the first tube ; at least one bracket connecting the first tube and the second tube ; and a first wheel support member mounted to first ends of the first tube and the second tube and a second wheel support member mounted to second ends of the first tube and the second tube , characterized in that the modular axle assembly further comprises a fan mounted to the wheel support members and positioned at least partially between the tubes . a first tube ; a second tube parallel to the first tube ; at least one bracket connecting the first tube and the second tube ; and a first wheel support member mounted to first ends of the first tube and the second tube and a second wheel support member mounted to second ends of the first tube and the second tube , characterized in that the modular axle assembly further comprises a fan mounted to the wheel support members and positioned at least partially between the tubes .
An amplitude comparison monopulse radar system for generating and receiving RF signals in the W-band frequency range comprising: a phased array antenna comprising a plurality of antenna elements for producing a monopulse radiation pattern; and a beam forming network coupled to the phased array antenna; the beam forming network comprising: a lens cavity; a plurality of lens array ports for connecting to the plurality of antenna elements; and a plurality of beam ports divided into a plurality of pairs; and a plurality of sum and difference generators, wherein each beam port pair is connected to a respective one of the plurality of sum and difference generators; wherein the beam forming network is adapted to change the phase delays between the antenna elements of the phased array antenna such that the monopulse radiation pattern of the phased array antenna is scanned over an angular range through space; and wherein the array ports of the beam forming network are adapted to sample signals generated through the simultaneous excitation of at least one selected beam port pair with a signal output by its respective sum and difference generator and the array ports are further adapted to transmit the sampled signals to the antenna elements to produce the monopulse radiation pattern. a phased array antenna comprising a plurality of antenna elements for producing a monopulse radiation pattern; and a beam forming network coupled to the phased array antenna; the beam forming network comprising: a lens cavity; a plurality of lens array ports for connecting to the plurality of antenna elements; and a plurality of beam ports divided into a plurality of pairs; and a lens cavity; a plurality of lens array ports for connecting to the plurality of antenna elements; and a plurality of beam ports divided into a plurality of pairs; and a plurality of sum and difference generators, wherein each beam port pair is connected to a respective one of the plurality of sum and difference generators; wherein the beam forming network is adapted to change the phase delays between the antenna elements of the phased array antenna such that the monopulse radiation pattern of the phased array antenna is scanned over an angular range through space; and wherein the array ports of the beam forming network are adapted to sample signals generated through the simultaneous excitation of at least one selected beam port pair with a signal output by its respective sum and difference generator and the array ports are further adapted to transmit the sampled signals to the antenna elements to produce the monopulse radiation pattern.
A fuel supply pump comprising: - a pressurizing chamber formed in a pump housing ; - a low-pressure fuel chamber that is formed in fluidly upstream side of the pressurizing chamber ; - a damper that is stored in the low-pressure fuel chamber ; and the low-pressure fuel chamber is formed in a bottomed tubular concave part , wherein: - a damper cover is provided that is mounted over the damper with an elastic damper holder sandwiched between the damper cover and the damper in a compressed state, the damper cover is arranged inside the bottomed tubular concave part of the low-pressure fuel chamber so that an outermost edge of the damper cover engages with an inner circumferential surface of the bottomed tubular concave part of the low-pressure fuel chamber , an outer circumferential part of the damper and an outer circumferential part of the damper holder are facing the inner circumferential surface of the bottomed tubular concave part , and the outermost edge of the damper cover is welded to the inner circumferential surface of the bottomed tubular concave part , wherein the outermost edge of the damper cover is provided in the bottomed tubular concave part , wherein an annular gap is formed by setting the diameter of the outer circumferential surface of the damper cover to be smaller than an inner circumferential surface of the bottomed tubular concave part at an open end , charaterised in that welding is performed on the interfacial part between the bottomed tubular concave part and the damper cover . - a pressurizing chamber formed in a pump housing ; - a low-pressure fuel chamber that is formed in fluidly upstream side of the pressurizing chamber ; - a damper that is stored in the low-pressure fuel chamber ; and the low-pressure fuel chamber is formed in a bottomed tubular concave part , wherein: - a damper cover is provided that is mounted over the damper with an elastic damper holder sandwiched between the damper cover and the damper in a compressed state, the damper cover is arranged inside the bottomed tubular concave part of the low-pressure fuel chamber so that an outermost edge of the damper cover engages with an inner circumferential surface of the bottomed tubular concave part of the low-pressure fuel chamber , an outer circumferential part of the damper and an outer circumferential part of the damper holder are facing the inner circumferential surface of the bottomed tubular concave part , and the outermost edge of the damper cover is welded to the inner circumferential surface of the bottomed tubular concave part , wherein the outermost edge of the damper cover is provided in the bottomed tubular concave part , wherein an annular gap is formed by setting the diameter of the outer circumferential surface of the damper cover to be smaller than an inner circumferential surface of the bottomed tubular concave part at an open end , charaterised in that welding is performed on the interfacial part between the bottomed tubular concave part and the damper cover .
A process for forming a functionalised plant hull fibre comprising a) admixing an enzyme and an aqueous suspension of plant hull fibre, wherein said plant hull fibre comprises less than 25 wt.% soluble fibres and at least 40% wt.% cellulose; b) degrading said plant hull fibre by said enzyme to a D 50 particle size distribution of less than 30μm; c) denaturing said enzyme to form a functionalised, amphiphilic plant hull fibre with adsorbed enzyme; wherein said enzyme is one or more enzymes selected from the group consisting of endo-1,4-β-glucanase, cellobiohydrolase, β-glucosidase, endo-polygalacturonase, exo-polygalacturonase, pectin-methyl-esterase, endo-pectate lyase, exo-pectate lyase and pectin lyase, wherein the D 50 particle size distribution is measured as set forth in the description.
Use of serum albumin which has been acetylated with acetylsalicylic acid in an organ preservation and/or perfusion solution, to protect the vascular endothelium and/or to reduce vascular resistance during isolated organ or tissue perfusion, wherein the organ preservation and/or perfusion solution is obtainable by mixing the serum albumin with a solution containing glucose to form an organ preservation and/or perfusion solution, wherein the solution also contains an acetylating agent which is acetylsalicylic acid; and wherein the mixture is incubated in vitro for least 12 hours at 25 °C or at least 24 hours at 2 to 8 °C.
An acoustically and thermally effective capsule with an interior space for accommodating an electric motor of a motor vehicle, particularly of an electric vehicle, wherein the capsule enables a reduction of noise emissions or acoustic damping and ensures an exchange of air between the interior space between the capsule and the electric motor and the environment outside the capsule , the capsule comprising: - several acoustically and thermally effective capsule elements that can be connected to one another, and - at least one fastening member for fastening the capsule to a housing of the electric motor , - wherein the capsule elements comprise one or several layers consisting of a flexible, open-pore polyurethane foam to permit a diffusion of water vapor through the capsule elements , - wherein the capsule elements have stiffening members disposed on the inside in order to reduce deformations due to its own weight and to drain condensate. - several acoustically and thermally effective capsule elements that can be connected to one another, and - at least one fastening member for fastening the capsule to a housing of the electric motor , - wherein the capsule elements comprise one or several layers consisting of a flexible, open-pore polyurethane foam to permit a diffusion of water vapor through the capsule elements , - wherein the capsule elements have stiffening members disposed on the inside in order to reduce deformations due to its own weight and to drain condensate.