mhurhangee/patent-ind-claim-en huggingface dataset:
A bi-angle pliable tape for use in forming a composite laminate structure, the bi-angle pliable tape consisting of: a longitudinal axis extending in a unidirectional machine direction and corresponding to a primary axis of the bi-angle pliable tape; a first ply comprising fibers extending in a first orientation, the first orientation being offset relative to the longitudinal axis at a first angle of less than 30°; and a second ply comprising fibers extending in a second orientation, the second orientation being opposite to the first orientation relative to the unidirectional machine direction and the primary axis of the bi-angle pliable tape, wherein the first ply and the second ply are secured substantially adjacently relative to one another by one or more yarns so as to provide a non-crimped configuration such that the bi-angle tape defines a pliable structure, the one or more yarns being oriented substantially in a transverse direction relative to the primary axis of the bi-angle pliable tape, the pliable structure being configured to permit relative movement of the first and second plies relative to one another upon subjection to a load or force capable of introducing scissoring into the configuration. a longitudinal axis extending in a unidirectional machine direction and corresponding to a primary axis of the bi-angle pliable tape; a first ply comprising fibers extending in a first orientation, the first orientation being offset relative to the longitudinal axis at a first angle of less than 30°; and a second ply comprising fibers extending in a second orientation, the second orientation being opposite to the first orientation relative to the unidirectional machine direction and the primary axis of the bi-angle pliable tape,
An implantable construct comprising: (a) a biocompatible substrate having a first surface; (b) a material surface comprising an alkyl acrylate polymer deposited on said first surface, wherein the alkyl acrylate polymer is capable of supporting the formation of a physiological fibrillar network of FN adsorbed on its surface; (c) fibronectin (FN) adsorbed on said material surface; and (d) a growth factor (GF) adsorbed on said FN, wherein said growth factor is capable of binding FNIII 12-14 ; wherein the FN forms a physiological fibrillar network of FN presenting colocalized growth factor binding domains and integrin binding domains. (a) a biocompatible substrate having a first surface; (b) a material surface comprising an alkyl acrylate polymer deposited on said first surface, wherein the alkyl acrylate polymer is capable of supporting the formation of a physiological fibrillar network of FN adsorbed on its surface; (c) fibronectin (FN) adsorbed on said material surface; and (d) a growth factor (GF) adsorbed on said FN, wherein said growth factor is capable of binding FNIII 12-14 ; wherein the FN forms a physiological fibrillar network of FN presenting colocalized growth factor binding domains and integrin binding domains.
A method for patterning an electronic device or a precursor of an electronic device comprising a substrate coated with one or more functional thin film layers , the one or more functional thin film layers comprising a first thin film layer of a first material, the method comprising: a) providing a thread saturated with a first species comprising either a solvent or a liquid in which the first material is soluble or with which the first material can be etched, b) contacting the thread with the first layer and dissolving, solvating and/or etching the first material in or with said solvent or liquid, and c) establishing a relative speed between the thread and the web so the first dissolved material is carried away by the thread to remove at least part of the first layer by surface effects, a wicking effect or a combination of the effects. a) providing a thread saturated with a first species comprising either a solvent or a liquid in which the first material is soluble or with which the first material can be etched, b) contacting the thread with the first layer and dissolving, solvating and/or etching the first material in or with said solvent or liquid, and c) establishing a relative speed between the thread and the web so the first dissolved material is carried away by the thread to remove at least part of the first layer by surface effects, a wicking effect or a combination of the effects.
Method for producing a semi-finished spectacle lens , comprising the following step: identifying the semi-finished spectacle lens by applying a sticker on the semi-finished spectacle lens , wherein the sticker has a code for unique identification of the semi-finished spectacle lens ; wherein the semi-finished spectacle lens furthermore has a second code embossed into the semi-finished spectacle lens, characterized in that the sticker is applied on the semi-finished spectacle lens in such a way that the sticker at least partly covers the second code embossed into the semi-finished spectacle lens. identifying the semi-finished spectacle lens by applying a sticker on the semi-finished spectacle lens , wherein the sticker has a code for unique identification of the semi-finished spectacle lens ; wherein the semi-finished spectacle lens furthermore has a second code embossed into the semi-finished spectacle lens, characterized in that the sticker is applied on the semi-finished spectacle lens in such a way that the sticker at least partly covers the second code embossed into the semi-finished spectacle lens.
A method for configuring a User Equipment, UE, to operate on a machine-type communication, MTC, region of a wireless spectrum, the method comprising: receiving, at the UE from an evolved Node B, eNB, a physical downlink control channel, PDCCH, transmission on a licensed band; receiving, at the UE from the eNB, a machine-type communication system information block, M-SIB, in the MTC region; characterised by : receiving, from the eNB, a channel state information reference signal, CSI-RS, in the MTC region, wherein resource element mapping around the CSI-RS within the MTC region is rate-matched; avoiding collisions between the CSI-RS and transmissions in the MTC region; and transmitting, from the UE, a data transmission on the MTC region in an uplink, wherein the MTC region includes a subset of frequencies of the licensed band. receiving, at the UE from an evolved Node B, eNB, a physical downlink control channel, PDCCH, transmission on a licensed band; receiving, at the UE from the eNB, a machine-type communication system information block, M-SIB, in the MTC region; characterised by : receiving, from the eNB, a channel state information reference signal, CSI-RS, in the MTC region, wherein resource element mapping around the CSI-RS within the MTC region is rate-matched; avoiding collisions between the CSI-RS and transmissions in the MTC region; and transmitting, from the UE, a data transmission on the MTC region in an uplink, wherein the MTC region includes a subset of frequencies of the licensed band. receiving, from the eNB, a channel state information reference signal, CSI-RS, in the MTC region, wherein resource element mapping around the CSI-RS within the MTC region is rate-matched; avoiding collisions between the CSI-RS and transmissions in the MTC region; and transmitting, from the UE, a data transmission on the MTC region in an uplink, wherein the MTC region includes a subset of frequencies of the licensed band.
A heat exchanger having an internal conduct for conducting a fluid, and having a heat dissipating body for dissipating heat of the fluid, wherein the heat dissipating body having a cavity extending in a longitudinal direction , at least one end piece of the internal conduct extending inside of the cavity , the end piece having an orifice facing a bottom surface of the cavity , for feeding the fluid into a bottom area of the cavity , wherein between an outer shell of the internal conduct and an inner shell of the heat dissipating body a streaming space for conducting the fluid away from the bottom is provided, the streaming space extending in the longitudinal direction wherein the inner shell of the heat dissipating body comprising: - a first portion having at least two ribs transversally displaced in relation to each other; and - adjacent to the first portion a second portion having at least two ribs transversally displaced in relation to each other; at least one rib of the second portion being transversally displaced in relation to each rib of the first portion or at least one rib of the first portion being transversally displaced in relation to each rib of the second portion and wherein the ribs of the first portion and the ribs of the second portion each are elongate, characterized in that the ribs of the first portion and the ribs of the second portion each extend in the longitudinal direction . - a first portion having at least two ribs transversally displaced in relation to each other; and - adjacent to the first portion a second portion having at least two ribs transversally displaced in relation to each other;
Method for extending the representative evaluation period of a test strip of a competitive immunoassay to which a sample derived from a human or animal organism has been applied, which strip has a sample receiving section for applying a sample and a test section for indicating the presence or absence of defined analytes in the sample, which is provided with antibodies conjugated with colour particles, in particular also gold particles, matched to these analytes, characterised in that after a specific incubation time has elapsed, a fluid, transparent and fast-drying fixative for preserving the line intensities of the test strip is applied to the test strip , which fixative is silicone-based.
An apparatus for extracting power comprising: a track comprising first and second elongate sections , wherein the first elongate section is positioned above the second elongate section ; an airfoil comprising a suction surface and a pressure surface , wherein the airfoil is coupled to the track so that the pressure surface lies between the suction surface and the track and so that the airfoil can travel along the track , and wherein the airfoil is moveable in opposite directions when alternately coupled to the first elongate section and second elongate section ; a bridle system coupling at least one of the first and second elongate sections to an anchor ; and a power generator to harvest power from an atmospheric wind through the movement of the airfoil . a track comprising first and second elongate sections , wherein the first elongate section is positioned above the second elongate section ; an airfoil comprising a suction surface and a pressure surface , wherein the airfoil is coupled to the track so that the pressure surface lies between the suction surface and the track and so that the airfoil can travel along the track , and wherein the airfoil is moveable in opposite directions when alternately coupled to the first elongate section and second elongate section ; a bridle system coupling at least one of the first and second elongate sections to an anchor ; and a power generator to harvest power from an atmospheric wind through the movement of the airfoil .
An antenna assembly , comprising: a reflector comprising a center opening, a fastener opening, a convex side and a concave side, the concave side being the front side of the reflector; a rear housing situated on the convex side of the reflector, wherein the rear housing comprises a center cavity ; a feed-antenna subassembly situated on the concave side of the reflector, wherein the feed-antenna subassembly comprises a feed tube, and wherein a proximal end of the feed tube is operable to be inserted in and coupled to the center cavity of the rear housing, with the reflector situated between the feed-antenna subassembly and the rear housing; and a transceiver circuit situated inside the feed tube, wherein the transceiver circuit is coupled to a data port accessible from a proximal side of the feed-antenna subassembly, the antenna assembly being configured such that when the feed-antenna subassembly is mounted to the concave side of the reflector, the data port becomes exposed at the convex side of the reflector, characterized in that the rear housing further comprises a push latch operable to pass through the fastener opening of the reflector, and engage to the front side of the reflector. a reflector comprising a center opening, a fastener opening, a convex side and a concave side, the concave side being the front side of the reflector; a rear housing situated on the convex side of the reflector, wherein the rear housing comprises a center cavity ; a feed-antenna subassembly situated on the concave side of the reflector, wherein the feed-antenna subassembly comprises a feed tube, and wherein a proximal end of the feed tube is operable to be inserted in and coupled to the center cavity of the rear housing, with the reflector situated between the feed-antenna subassembly and the rear housing; and a transceiver circuit situated inside the feed tube, wherein the transceiver circuit is coupled to a data port accessible from a proximal side of the feed-antenna subassembly, the antenna assembly being configured such that when the feed-antenna subassembly is mounted to the concave side of the reflector, the data port becomes exposed at the convex side of the reflector, characterized in that the rear housing further comprises a push latch operable to pass through the fastener opening of the reflector, and engage to the front side of the reflector.
Process for preparing a masterbatch, comprising a diene elastomer and a reinforcing filler, and having a dispersion of the reinforcing filler in the elastomer matrix that has a Z value greater than or equal to 80, the diene elastomer comprises at least natural rubber, the process comprises the following successive steps: a) introducing, in order to obtain a masterbatch in the form of dried mass, a coagulum into at least one heated continuous mixer, said coagulum comprises said diene elastomer and said reinforcing filler dispersed, with a Z value greater than or equal to 80, in the dried mass; b) passing the mass leaving the continuous mixer into a roll mill in order to obtain a masterbatch in strip form; then c) optionally, introducing the strip leaving the roll mill and an antioxidant into a continuous mixer so as to obtain a masterbatch comprising an antioxidant; d) recovering, following step b) or c), said masterbatch having a moisture content of less than 1% by weight, characterized in that the throughputs of steps a) and b) are greater than 500 kg/h, and in that when an antioxidant is present in the masterbatch obtained at the end of step d), the whole of said antioxidant is introduced during step c). a) introducing, in order to obtain a masterbatch in the form of dried mass, a coagulum into at least one heated continuous mixer, said coagulum comprises said diene elastomer and said reinforcing filler dispersed, with a Z value greater than or equal to 80, in the dried mass; b) passing the mass leaving the continuous mixer into a roll mill in order to obtain a masterbatch in strip form; then c) optionally, introducing the strip leaving the roll mill and an antioxidant into a continuous mixer so as to obtain a masterbatch comprising an antioxidant; d) recovering, following step b) or c), said masterbatch having a moisture content of less than 1% by weight, characterized in that the throughputs of steps a) and b) are greater than 500 kg/h, and in that when an antioxidant is present in the masterbatch obtained at the end of step d), the whole of said antioxidant is introduced during step c).
A composition for enhancing wound healing and/or for reducing pain and inflammation, comprising a first active ingredient and a second active ingredient, wherein the first active ingredient comprises an antiseptic and the second active ingredient comprises an admixture of the vitamins thiamin, riboflavin, niacin, vitamin C, pantothenic acid, pyridoxine hydrochloride, vitamin B 12, biotin and folate, and the minerals chromium, copper, iodine, magnesium, manganese, molybdenum, and selenium, and the amino acids glycine, L-glutamine, L-lysine, and L-arginine.
Method for producing a micromechanical pressure sensor , comprising the following steps: - providing a MEMS wafer comprising a silicon substrate and a first cavity formed therein between a sensor membrane and bulk silicon ; - providing a second wafer ; - eutectic bonding of an underside of the MEMS wafer having metallization elements for forming the eutectic bond connection to a first side of the second wafer , wherein the sensor membrane is arranged on the underside of the MEMS wafer ; and - freeing a sensor core comprising bulk silicon , the sensor membrane and the first cavity from the top side of the MEMS wafer , wherein a second cavity is etched in the bulk silicon between the sensor core and the surface of the silicon substrate through the access openings on the top side of the first wafer . - providing a MEMS wafer comprising a silicon substrate and a first cavity formed therein between a sensor membrane and bulk silicon ; - providing a second wafer ; - eutectic bonding of an underside of the MEMS wafer having metallization elements for forming the eutectic bond connection to a first side of the second wafer , wherein the sensor membrane is arranged on the underside of the MEMS wafer ; and - freeing a sensor core comprising bulk silicon , the sensor membrane and the first cavity from the top side of the MEMS wafer , wherein a second cavity is etched in the bulk silicon between the sensor core and the surface of the silicon substrate through the access openings on the top side of the first wafer .
Light-emitting diode including at least: - a first layer of n-doped Al X1 Ga (1-X1-Y1) In Y1 N, with X1 > 0 and X1+Y1 ≤ 1; - a second layer of p-doped Al X2 Ga (1-X2-Y2 )In Y2 N, with X2 > 0 and X2+Y2 ≤ 1; - an active area disposed between the first and second layers and comprising at least one multi-quantum well emissive structure ; and - an ohmic contact layer , and characterized in that the light-emitting diode also comprises: - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer ; and in that the ohmic contact layer is in contact with the nanowires . - a first layer of n-doped Al X1 Ga (1-X1-Y1) In Y1 N, with X1 > 0 and X1+Y1 ≤ 1; - a second layer of p-doped Al X2 Ga (1-X2-Y2 )In Y2 N, with X2 > 0 and X2+Y2 ≤ 1; - an active area disposed between the first and second layers and comprising at least one multi-quantum well emissive structure ; and - an ohmic contact layer , and characterized in that the light-emitting diode also comprises: - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer ; - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer ; and in that the ohmic contact layer is in contact with the nanowires .
A snap-action non-separable connection between a lid and a container , comprising a container incorporating snap-action profiles formed in a top part of the container around an opening suitable for filling the container, and a lid comprising snap-action profiles formed in the lid, wherein said profiles interlock, characterised in that the snap-action profiles in the top part of the container are formed as segments on a front surface of the top part of the container, said segments not being in contact with one another; in that at least one snap protrusion is formed on a side surface of each segment ; , in that slots are present in a top part of the lid with at least one snap ledge being formed on a surface of said slots, wherein the number of the slots in the lid is equal to the number of the segments formed around the opening of the container ; and in that in a connected state said segments fit into said slots in the lid so that the snap protrusions of the segments rest on the snap ledges in the slots in the lid, top parts of the segments above the snap protrusion contact tightly the slots in the lid , and a bottom surface of the lid contacts the front surface of the top part of the container .
Control cabinet arrangement for an exhaust gas measuring system with a first control cabinet which defines a first interior space , wherein a first heat-generating component of the exhaust gas measuring system is arranged in the first interior space , wherein the air in the first interior space can be heated by the waste heat of the heat-generating first component , and a second control cabinet which defines a second interior space , wherein a second component of the exhaust gas measuring system is arranged in the second interior space , wherein the first interior space and the second interior space are connected to one another via at least one fluidic connection , wherein the second component can be heated by a flow of air flowing between the first interior space and the second interior space , wherein the heat-generating first component is a voltage supply unit and wherein the first control cabinet and the second control cabinet are arranged directly adjacent to each other, wherein a side wall of the first control cabinet is directly in contact with a side wall of the second control cabinet and the fluidic connection is formed in the two adjacent side walls .
A method of wireless communication performed by a user equipment, UE, comprising: receiving a grant that identifies a set of uplink resources; determining whether a timing of the grant overlaps with a repetition window of a grant-free uplink communication configured on the UE based at least in part on whether the set of uplink resources, identified by the grant, overlaps in time with resources of the repetition window; and processing the grant based at least in part on whether the timing of the grant overlaps with the repetition window of the grant-free uplink communication. receiving a grant that identifies a set of uplink resources; determining whether a timing of the grant overlaps with a repetition window of a grant-free uplink communication configured on the UE based at least in part on whether the set of uplink resources, identified by the grant, overlaps in time with resources of the repetition window; and processing the grant based at least in part on whether the timing of the grant overlaps with the repetition window of the grant-free uplink communication.
An electronic vapour provision device comprising a power cell and a vaporiser , where the vaporiser comprises a heating element and a heating element support , wherein one or more gaps are provided between the heating element and the heating element support, and wherein the heating element support is a flat planar substrate.