mhurhangee/patent-ind-claim-en huggingface dataset:
A modular wall system comprising a plurality of elongated wall panels (9; 10) disposed on one another, a plant bedding material tile , a seed/plant cup , a board (6; 7), and an irrigation pipe , wherein: the elongated wall panels (9; 10) comprise a vertical wall , a top flange and a bottom flange ; the fluid emitting irrigation pipe is disposed on and/or couples to at least one of the top and bottom flanges (2; 3) of an elongated wall panel (9; 10); the board (6; 7) comprises at least one opening configured to receive a seed/plant cup , and wherein the board (6; 7) is coupled to at least one of the flanges (2; 3) of the elongated wall panel (9; 10), thereby forming a wall panel interior; the plant bedding material tile is configured to be coupled to an interior vertical wall portion of the elongated wall panel (9; 10) and/or to an interior wall portion of the board (6; 7); the seed/plant cup is configured to be inserted from the outside through the at least one opening in the board (6; 7) to thereby be partially disposed inside a cup bedding material opening of the plant bedding material tile ; and wherein once irrigated by a fluid supply provided by the fluid emitting irrigation pipe , a seed/plant in the seed/plant cup disposed inside the plant bedding material tile is configured to grow roots into the plant bedding material tile and grow a canopy extending from an exterior of the board (6; 7). the elongated wall panels (9; 10) comprise a vertical wall , a top flange and a bottom flange ; the fluid emitting irrigation pipe is disposed on and/or couples to at least one of the top and bottom flanges (2; 3) of an elongated wall panel (9; 10); the board (6; 7) comprises at least one opening configured to receive a seed/plant cup , and wherein the board (6; 7) is coupled to at least one of the flanges (2; 3) of the elongated wall panel (9; 10), thereby forming a wall panel interior; the plant bedding material tile is configured to be coupled to an interior vertical wall portion of the elongated wall panel (9; 10) and/or to an interior wall portion of the board (6; 7); the seed/plant cup is configured to be inserted from the outside through the at least one opening in the board (6; 7) to thereby be partially disposed inside a cup bedding material opening of the plant bedding material tile ; and wherein once irrigated by a fluid supply provided by the fluid emitting irrigation pipe , a seed/plant in the seed/plant cup disposed inside the plant bedding material tile is configured to grow roots into the plant bedding material tile and grow a canopy extending from an exterior of the board (6; 7).
A bacterial strain, which is Cutibacterium acnes deposited under deposit Accession No. DSM 28251 with International Deposit Authority Leibniz-Institut DSMZ - Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH.
A data hub for providing a connection between at least first and second discrete domains, the domains being used to simulate or model the performance and interaction of a plurality of different entities, the data hub being connected independently to the first discrete domain having a first sensitivity, and to the second discrete domain having a second sensitivity, such that it is able to receive data from the first discrete domain and transmit data to the discrete second domain; wherein the data hub comprises at least a processor adapted to inspect packet data received from the first domain, packets in general containing information relating to different entities, and to run a set of user-defined rules comprising conditions represented as data operators, at least some of the user defined rules having a combination of conditions associated therewith comprising at least one condition that restricts application of the rule to data packets associated with a particular entity or to a particular group or class of such entities, wherein commands are applied to the data to obfuscate and create filtered packet data transmittable to the second discrete domain in real time.
A laminated glass structure, comprising: a substrate having a thickness from 2.5 mm to 50 mm and primary surfaces; a buffer layer having a thickness from 0.1 mm to 2.5 mm, an elastic modulus of at least 70 GPa and a coefficient of thermal expansion between 4 and 25 ppm ∗ °C -1 laminated to the substrate with a first adhesive ; and a flexible glass sheet having a thickness of no greater than 0.3 mm laminated to the buffer layer with a second adhesive ; and wherein the buffer layer comprises a metal alloy; or the substrate comprises a material selected from the group consisting of a polymer, a wood, a low pressure laminate (LPL), a high pressure laminate (HPL), a melamine-containing laminate, a particle-reinforced board, a fiber-reinforced board, and a medium density fiberboard (MDF). a substrate having a thickness from 2.5 mm to 50 mm and primary surfaces; a buffer layer having a thickness from 0.1 mm to 2.5 mm, an elastic modulus of at least 70 GPa and a coefficient of thermal expansion between 4 and 25 ppm ∗ °C -1 laminated to the substrate with a first adhesive ; and a flexible glass sheet having a thickness of no greater than 0.3 mm laminated to the buffer layer with a second adhesive ; and wherein the buffer layer comprises a metal alloy; or the substrate comprises a material selected from the group consisting of a polymer, a wood, a low pressure laminate (LPL), a high pressure laminate (HPL), a melamine-containing laminate, a particle-reinforced board, a fiber-reinforced board, and a medium density fiberboard (MDF).
A computer-implemented method, comprising: accessing a kernel source written in a shading language; selecting a compiler from a plurality of compilers based on the shading language; generating a kernel instruction set architecture and an associated runtime binding based on the kernel source and the selected compiler, wherein the associated runtime binding indicates a manner of passing values for arguments to the kernel instruction set architecture using identified registers, an identified memory address, a number of threads to dispatch, and state programming to execute the kernel instruction set architecture; and executing a user mode driver, UMD, to adapt state information of a graphics processing unit, GPU, to configure the GPU based on the runtime binding, wherein the state information comprises one or more of: resource binding mode, resource type information, single instruction multiple data, SIMD, mode, number of threads to dispatch and how to break a thread size, and/or variables. accessing a kernel source written in a shading language; selecting a compiler from a plurality of compilers based on the shading language; generating a kernel instruction set architecture and an associated runtime binding based on the kernel source and the selected compiler, wherein the associated runtime binding indicates a manner of passing values for arguments to the kernel instruction set architecture using identified registers, an identified memory address, a number of threads to dispatch, and state programming to execute the kernel instruction set architecture; and executing a user mode driver, UMD, to adapt state information of a graphics processing unit, GPU, to configure the GPU based on the runtime binding, wherein the state information comprises one or more of: resource binding mode, resource type information, single instruction multiple data, SIMD, mode, number of threads to dispatch and how to break a thread size, and/or variables.
Exercise apparatus, namely an apparatus for rehabilitative or sports muscle training, with an apparatus carrier (3; 4) and with a barbell , which is held on the apparatus carrier (3; 4) by means of cables (7; 8) or belts guided via cable pulleys (5; 6) and which is brought into operative connection with at least one means for forming a load acting as a compressive force or tensile force on a person exercising, characterized in that the apparatus carrier (3; 4) consists of a main carrier , movable in a horizontal plane along a crosspiece arranged above the person exercising, and of a functional carrier which is connected to the main carrier via a rotary bearing or a slewing ring and can be rotated about a vertical axis relative to the main carrier and on which the cable pulleys (5; 6) for the cables (7; 8) or belts holding the barbell are arranged.
A device for obtaining a downlink, DL, covariance matrix of a communication channel, the device comprising a processor being configured to: compute an angular power spectrum, APS, of an antenna array , in particular in the continuous angular domain, based on an uplink, UL, covariance matrix of the communication channel and an UL response of the antenna array ; compute the DL covariance matrix of the communication channel based on the APS and a DL response of the antenna array ; compute the APS by computing a solution to a feasibility problem including a determined constraint; and compute the solution to the feasibility problem by using a set-theoretic method. compute an angular power spectrum, APS, of an antenna array , in particular in the continuous angular domain, based on an uplink, UL, covariance matrix of the communication channel and an UL response of the antenna array ; compute the DL covariance matrix of the communication channel based on the APS and a DL response of the antenna array ; compute the APS by computing a solution to a feasibility problem including a determined constraint; and compute the solution to the feasibility problem by using a set-theoretic method.
Concrete tank comprising : - a bottom made of concrete, - a side wall extending from the bottom in a first direction (Z) to form a receptacle, the side wall being made of concrete and extending over a height of at least one meter from the bottom , the height being measured in the first direction (Z), the first direction (Z) being substantially perpendicular to the bottom , - a closing cover separated from the bottom by the side wall and defining an opening, - an RFID tag enclosed in a liquid-tight radome , the radome being mounted flush with the bottom or embedded in the bottom , the RFID tag having at least one antenna disposed at a depth of less than 100 mm relative to the surface of the bottom , the depth being measured along the first direction (Z); the bottom defining at least one trench and in which the RFID tag is outside the trench and is offset by a first distance from a side edge of the trench of less than 40 mm, the trench having a depth of at least 20 mm and having first and second opposite ends, or the bottom being flat or substantially flat perpendicular to the first direction (Z). - a bottom made of concrete, - a side wall extending from the bottom in a first direction (Z) to form a receptacle, the side wall being made of concrete and extending over a height of at least one meter from the bottom , the height being measured in the first direction (Z), the first direction (Z) being substantially perpendicular to the bottom , - a closing cover separated from the bottom by the side wall and defining an opening, - an RFID tag enclosed in a liquid-tight radome , the radome being mounted flush with the bottom or embedded in the bottom , the RFID tag having at least one antenna disposed at a depth of less than 100 mm relative to the surface of the bottom , the depth being measured along the first direction (Z); the bottom defining at least one trench and in which the RFID tag is outside the trench and is offset by a first distance from a side edge of the trench of less than 40 mm, the trench having a depth of at least 20 mm and having first and second opposite ends, or the bottom being flat or substantially flat perpendicular to the first direction (Z).
A non-transitory computer readable medium comprising instructions which, when carried out by a computing system, cause said computing system to perform a method comprising: performing a first protocol , wherein the first protocol is configured to form a plurality of groups , wherein each group of the plurality of groups comprises a set of randomly selected nodes (170 1 ) from a network ; performing a second protocol , wherein the second protocol is configured to randomly select a first group (135, γ 1 ) from the plurality of groups formed by the first protocol ; performing a third protocol , wherein the third protocol is configured to designate the first group (135, γ 1 ) to sign a first message by generating a first group signature. performing a first protocol , wherein the first protocol is configured to form a plurality of groups , wherein each group of the plurality of groups comprises a set of randomly selected nodes (170 1 ) from a network ; performing a second protocol , wherein the second protocol is configured to randomly select a first group (135, γ 1 ) from the plurality of groups formed by the first protocol ; performing a third protocol , wherein the third protocol is configured to designate the first group (135, γ 1 ) to sign a first message by generating a first group signature.
Tube section , having a length L, for constructing a tube suitable for underpressure applications, with an incircle having a diameter of at least 2 m, wherein the tube section comprises a plurality of longitudinal stringers , a plurality of circumferential sections and a plurality of thin-walled skin sections having a radius of curvature R and wherein the curvature extends along the entire length of the thin-walled skin sections, wherein the longitudinal stringers are connected to the inner surface of the circumferential sections , wherein the plurality of longitudinal stringers are mounted to the circumferential sections substantially equidistantly to form a skeletal framework for attaching the thin-walled skin sections ; wherein the long edges of the thin-walled skin sections are mounted fixedly and air-tightly to the longitudinal stringers , wherein the centre point M of the radius of curvature R of the curved thin-walled skin sections lies outside the tube section, and wherein, in use in an underpressure application, the thin walled sections between the stringers are loaded in tension. wherein the longitudinal stringers are connected to the inner surface of the circumferential sections , wherein the plurality of longitudinal stringers are mounted to the circumferential sections substantially equidistantly to form a skeletal framework for attaching the thin-walled skin sections ; wherein the long edges of the thin-walled skin sections are mounted fixedly and air-tightly to the longitudinal stringers , wherein the centre point M of the radius of curvature R of the curved thin-walled skin sections lies outside the tube section, and wherein, in use in an underpressure application, the thin walled sections between the stringers are loaded in tension.
An injection needle unit comprising: - a needle assembly comprising: ∘ an injection needle extending along a longitudinal axis and having a distal needle end configured for insertion into a subject and a proximal needle end configured for penetration of a reservoir septum, and ∘ a skirt surrounding the proximal needle end and defining a receiving space for reception of a needle mount of a drug delivery device, the skirt comprising a slot , - an outer cover at least partially surrounding the skirt , the outer cover being capable of undergoing relative motion with respect to the needle assembly from a first relative position to a second relative position, and - a block structure , characterised in that the block structure - is supported exteriorly of the skirt by the outer cover , - is biased towards the longitudinal axis and is capable of radial displacement through the slot from a latched position outside the receiving space to a released position within the receiving space for preventing attachment of the injection needle unit to the drug delivery device, - rests on an outer surface of the skirt in the latched position, and - is adapted to move from the latched position towards the released position in response to the outer cover and the needle assembly moving from the first relative position to the second relative position. - a needle assembly comprising: ∘ an injection needle extending along a longitudinal axis and having a distal needle end configured for insertion into a subject and a proximal needle end configured for penetration of a reservoir septum, and ∘ a skirt surrounding the proximal needle end and defining a receiving space for reception of a needle mount of a drug delivery device, the skirt comprising a slot , ∘ an injection needle extending along a longitudinal axis and having a distal needle end configured for insertion into a subject and a proximal needle end configured for penetration of a reservoir septum, and ∘ a skirt surrounding the proximal needle end and defining a receiving space for reception of a needle mount of a drug delivery device, the skirt comprising a slot , - an outer cover at least partially surrounding the skirt , the outer cover being capable of undergoing relative motion with respect to the needle assembly from a first relative position to a second relative position, and - a block structure , characterised in that the block structure - is supported exteriorly of the skirt by the outer cover , - is biased towards the longitudinal axis and is capable of radial displacement through the slot from a latched position outside the receiving space to a released position within the receiving space for preventing attachment of the injection needle unit to the drug delivery device, - rests on an outer surface of the skirt in the latched position, and - is adapted to move from the latched position towards the released position in response to the outer cover and the needle assembly moving from the first relative position to the second relative position.
A method of manufacturing a solid temperature management material, the method comprising: mixing (S3101) at least three compounds, wherein: a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive , a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, applying (S3102) a mixture of the first, second, and third compounds in a liquid form to a substrate , and curing (S3103) the mixture into the temperature management material such that the liquid reactive diluent monomer solvent cures into the second polymeric phase change material, the temperature management material comprising: the first polymeric phase change material, the additive , and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures. mixing (S3101) at least three compounds, wherein: a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive , a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, a first compound comprises a first polymeric phase change material with a first transition temperature, a second compound comprises an additive , a third compound comprises a molecule that, in its liquid form, is a reactive diluent monomer that acts as a solvent of the first and second compounds, and which is curable into a second polymeric phase change material with a second transition temperature, applying (S3102) a mixture of the first, second, and third compounds in a liquid form to a substrate , and curing (S3103) the mixture into the temperature management material such that the liquid reactive diluent monomer solvent cures into the second polymeric phase change material, the temperature management material comprising: the first polymeric phase change material, the additive , and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures. the first polymeric phase change material, the additive , and the second polymeric phase change material and, wherein the temperature management material exhibits two different transition temperatures.
A roof window having a roof window frame and sash frame and a covering member for weather proofing the roof window, the covering member comprises a hood for covering a top member of the frame and a side frame cover member for covering at least one side member of the frame and sash frame , the side frame cover member , the frame and sash frame defining a channel there between capable of communicating fluid, the roof window comprising a vent flap operable between a closed position for preventing the flow of air into or out of the building and a venting position allowing air to flow into or out of the building and into or out of the fluid communicating channel below the covering member, characterised in that the roof window comprises a vapour barrier means for preventing the flow of vapour along at least part of the fluid communicating channel and condensing on the underside of the side frame cover member when the vent flap is in the venting position, and wherein the vapour barrier means compressibly seals the fluid communicating channel , wherein the vapour barrier means comprises a compressible foam that allows the vapour barrier means to form a compressible seal when the sash frame is moved into a closed position against the vapour barrier means , and in that the vapour barrier means is disposed in the fluid communicating channel at a location proximal to a joint between the hood and the side frame cover member .
A protein comprising a polypeptide comprising the amino acid sequence of: wherein: Xaa 33 is D; Xaa 37 is A; Xaa 60 is E; Xaa 65 is Y or G; Xaa 86 is I or L; Xaa 87 is V; Xaa 89 is T or A; Xaa 91 is V; Xaa 93 is F or V; Xaa 94 is I; Xaa 110 is G; Xaa 114 is V or M; Xaa 120 is S; Xaa 128 is Y, For W; Xaa 132 is V; and Xaa 134 is R.
A molded article made of a light-diffusing resin composition in which the light-diffusing resin composition comprises a thermoplastic resin and transparent particles which are dispersed in the thermoplastic resin, the transparent particles having a volume-average particle size, measured as indicated in the description, of not smaller than 4.5 μm and not greater than 7 μm, the transparent particles having a coefficient of variation in particle size of 5 to 15%, measured as inidcated in the description, a difference between a refractive index of the thermoplastic resin and a refractive index of the transparent particles being 0.02 to 0.1, the molded article containing the transparent particles in an amount of 0.1 to 1 % by weight, and the molded article having a thickness of 1 to 3 mm.
An additional light system for warning bars with LED hole matrix display , wherein the hole matrix display is provided with a plurality of light exit openings on a light exit side, characterized in at least one printed circuit board with a number of LEDs which can be placed on at least one section of the light exit side of the hole matrix display , the printed circuit board having light exit openings which are arranged in such a way that they match light exit openings of the hole matrix display , and wherein the LEDs , in the intended assembly condition of the printed circuit board on the hole matrix display , are arranged on the side of the printed circuit board facing away from the light exit side of the hole matrix display between light exit openings .