mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing hydrogen from a petroleum reservoir , the method comprising: a. providing a well from surface to the reservoir ; b. locating in the well at least one hydrogen-permeable membrane consisting of a palladium-copper alloy; c. heating the reservoir to facilitate at least one of gasification, water-gas shift, and aquathermolysis reactions to occur between petroleum hydrocarbons and water within the reservoir to generate a gas stream comprising hydrogen; and d. allowing the gas stream to enter the well and engage the at least one hydrogen-permeable membrane , such that the at least one hydrogen-permeable membrane permits passage of only the hydrogen in the gas stream to the surface; and wherein the well comprises a well liner. a. providing a well from surface to the reservoir ; b. locating in the well at least one hydrogen-permeable membrane consisting of a palladium-copper alloy; c. heating the reservoir to facilitate at least one of gasification, water-gas shift, and aquathermolysis reactions to occur between petroleum hydrocarbons and water within the reservoir to generate a gas stream comprising hydrogen; and d. allowing the gas stream to enter the well and engage the at least one hydrogen-permeable membrane , such that the at least one hydrogen-permeable membrane permits passage of only the hydrogen in the gas stream to the surface; and wherein the well comprises a well liner.
A process for processing a paste containing a solid charge (C) with a view to extracting at least one part of said solid charge (C), said solid charge (C) consisting of oxidizing charges chosen from charges of ammonium perchlorate, alkali metal perchlorate, alkaline earth metal perchlorate, alkali metal nitrate, alkaline earth metal nitrate and their mixtures and / or explosive charges chosen from charges of CL 20, octogen, hexogen, tolite, pentrite and their mixtures; said process comprising, continuously: - mixing, in a static mixer , said paste with a liquid solvent , which is a solvent for said at least one part of said solid charge (C), with a view to dissolving, at least partially, said at least one part of said solid charge (C) in said solvent ; - recovering, after said mixing, a two-phase system comprising, on the one hand, a solution containing at least one fraction of said at least one part of said solid charge (C), dissolved in said solvent , and, on the other hand, a solid residue of said paste ; and then - separating said solution from said solid residue of said paste . - mixing, in a static mixer , said paste with a liquid solvent , which is a solvent for said at least one part of said solid charge (C), with a view to dissolving, at least partially, said at least one part of said solid charge (C) in said solvent ; - recovering, after said mixing, a two-phase system comprising, on the one hand, a solution containing at least one fraction of said at least one part of said solid charge (C), dissolved in said solvent , and, on the other hand, a solid residue of said paste ; and then - separating said solution from said solid residue of said paste .
Aqueous binder composition for fibre bonding, obtainable by free-radically initiated polymerization of vinyl acetate and ethylene, in the presence of polyvinyl alcohol in aqueous medium, characterized in that a) 60 to 94% by weight vinyl acetate, b) 5 to 30% by weight ethylene, c) 0.4 to 5% by weight acrylamide and/or methacrylamide, d) 0.4 to 5% by weight acrylic acid and/or methacrylic acid, e) 0.2 to 2% by weight maleic anhydride and/or maleic acid,are copolymerized in the presence of a polyvinyl alcohol having a degree of hydrolysis of 80 to 99 mol%, wherein optionally the comonomers c) and e) are wholly or partly replaced by maleamic acid, wherein the figures in % by weight refer in each case to the total weight of the comonomers and in each case add up to 100% by weight. a) 60 to 94% by weight vinyl acetate, b) 5 to 30% by weight ethylene, c) 0.4 to 5% by weight acrylamide and/or methacrylamide, d) 0.4 to 5% by weight acrylic acid and/or methacrylic acid, e) 0.2 to 2% by weight maleic anhydride and/or maleic acid,are copolymerized in the presence of a polyvinyl alcohol having a degree of hydrolysis of 80 to 99 mol%,
Cushioned remote control unit for a vehicle , the remote control unit comprising a carrier body and an electronic circuit for generating at least one remote control signal , wherein the electronic circuit is integrated into the carrier body that comprises a cushion material that covers at least a part of the electronic circuit , wherein the carrier body is designed as a plush toy or a plush animal or a pillow, wherein the electronic circuit comprises a sensor unit (S) that is designed to sense and signal an acceleration and/or spatial orientation of the remote control unit , wherein the electronic circuit is designed to trigger at least one of the at least one remote control signal in dependence on a sensor signal of the sensor unit (S), characterized in that the carrier body comprises a salient part and the electronic circuit comprises an input unit for receiving a manual user input and the input unit is arranged in the salient part , wherein in the case of the carrier body being designed as a pillow, the salient part is a pillow corner, and in the case of the carrier body being designed as a plush toy or plush animal, the salient part is an ear or an arm or a leg of the plush toy or plush animal, and wherein by squeezing or touching or pressing the salient part , a specific remote control signal is triggered by the user, and wherein a display is provided in the remote control unit on the basis of light emitting diodes, LEDs, and the electronic circuit controls the LEDs individually in order to display a specific display content , wherein the LEDs are positioned or attached to a flexible carrier that is a foil or a flexible printed circuit board, wherein the display is situated in the respective salient part .
A tire comprising a tread surface, the tread surface including: a circumferential groove extending in a tire circumferential direction (U); a lug groove extending in a direction intersecting the circumferential groove ; and a plurality of land parts partitioned by the circumferential groove and the lug groove , wherein a width-direction groove extending in a tire widthwise direction (Y) is formed on a land part of the plurality of land parts , and an in-groove sipe is arranged along one side edge of a groove bottom of the width-direction groove , characterized in that the width-direction groove has one end opening at a tread end (T) and another end terminating without opening to the circumferential groove . a circumferential groove extending in a tire circumferential direction (U); a lug groove extending in a direction intersecting the circumferential groove ; and a plurality of land parts partitioned by the circumferential groove and the lug groove ,
Method for providing static and dynamic position information of a designated point of a measuring device , the measuring device comprising • a surface and • a structure comprising the designated point and being arranged moveable relatively to the surface , said method comprising the following steps: • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, characterised by • the model comprising at least two cells (41,43-46,51) for modelling the structure , wherein ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and • setting an actual elongation of the at least one variable cell (43-46,51) in order to model a positional change, particularly in linear extension direction, of the designated point, • wherein for the at least one of the variable cell (43-46,51), a mass of said cell (43-46,51) is changed when the elongation is changed. • a surface and • a structure comprising the designated point and being arranged moveable relatively to the surface , said method comprising the following steps: • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, characterised by • defining a model for representing an actual position of the designated point of the structure relative to the surface and • deriving the actual position of the designated point by a calculation based on the defined model, • the model comprising at least two cells (41,43-46,51) for modelling the structure , wherein ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and ∘ the at least two cells (41,43-46,51) for modelling the structure are linearly arranged in a linear extension direction, ∘ at least one of the cells (41,43-46,51) for modelling the structure is a variable cell (43-46,51) of a set of at least one variable cell (43-46,51) and ∘ the at least one variable cell (43-46,51) having variable elongation as to the extension direction, and • setting an actual elongation of the at least one variable cell (43-46,51) in order to model a positional change, particularly in linear extension direction, of the designated point, • wherein for the at least one of the variable cell (43-46,51), a mass of said cell (43-46,51) is changed when the elongation is changed.
A communication method, comprising: receiving configuration information from a first device, wherein the configuration information comprises first information, second information, and third information, the first information is indication information of K reference signals, the second information is indication information of K first spatial filtering parameters corresponding to the K reference signals, the third information is indication information of a channel sparse basis matrix of channels between the first device and a second device, and K is an integer greater than 1; receiving the K reference signals from the first device; and sending channel state indication information to the first device, wherein the channel state indication information is determined based on K received measurement values of the K reference signals, the K first spatial filtering parameters, and the channel sparse basis matrix. receiving configuration information from a first device, wherein the configuration information comprises first information, second information, and third information, the first information is indication information of K reference signals, the second information is indication information of K first spatial filtering parameters corresponding to the K reference signals, the third information is indication information of a channel sparse basis matrix of channels between the first device and a second device, and K is an integer greater than 1; receiving the K reference signals from the first device; and sending channel state indication information to the first device, wherein the channel state indication information is determined based on K received measurement values of the K reference signals, the K first spatial filtering parameters, and the channel sparse basis matrix.
Connection arrangement , comprising two connecting elements having a respective connecting flange on which a plurality of coupling elements are arranged along a peripheral direction and which has a substantially round external profile; and a coupling belt on which a plurality of opposing coupling elements are arranged which are configured to form a positive-locking connection with the coupling elements of the two connecting elements for the mutual rotation-proof fixing of the two connecting elements , wherein the connecting flanges of the connecting elements are oriented coaxially to one another; wherein the coupling belt is placed around the external profiles of the connecting flanges ; and wherein the coupling elements of the two connecting elements are connected positively to the opposing coupling elements of the coupling belt ; characterized by further comprising a joint-connecting rod which is provided with an axial external thread ; wherein one of the connecting elements is configured as a connecting strut and the other connecting element is configured as a joint, a joint housing, a joint connection, or a connection adapter for attaching the connecting strut; wherein the connecting element configured as a connecting strut is provided with an axial threaded hole which is configured to receive the axial external thread of the joint-connecting rod ; wherein the other connecting element is configured as an annular connection adapter which is configured with an internal contour which corresponds to the external contour of the joint-connecting rod , for attachment onto the joint-connecting rod ; wherein the connecting element , configured as an annular connection adapter, is attached onto the joint-connecting rod ; and wherein the joint-connecting rod engages in the axial threaded hole in the connecting element , configured as a connecting strut, via the axial external thread .
A lubricating assembly comprising: an oil tube (206; 306), a fitting (212; 312) attached to the oil tube (206; 306); and a heat shield (202; 302) comprising: a base portion (204; 304), wherein the base portion (204; 304) bounds a first void; a top portion (203; 303), wherein the top portion (203; 303) bounds a second void; and a tapered portion , wherein the tapered portion extends between the base portion (204; 304) and the top portion (203; 303), the top portion (203; 303) having a smaller cross-sectional area than the base portion (204; 304); wherein the top portion (203; 303) is attached to the oil tube (206; 306) and the base portion (204; 304) at least partially encases the oil tube fitting (212; 312). an oil tube (206; 306), a fitting (212; 312) attached to the oil tube (206; 306); and a heat shield (202; 302) comprising: a base portion (204; 304), wherein the base portion (204; 304) bounds a first void; a top portion (203; 303), wherein the top portion (203; 303) bounds a second void; and a tapered portion , wherein the tapered portion extends between the base portion (204; 304) and the top portion (203; 303), the top portion (203; 303) having a smaller cross-sectional area than the base portion (204; 304); wherein the top portion (203; 303) is attached to the oil tube (206; 306) and the base portion (204; 304) at least partially encases the oil tube fitting (212; 312). a base portion (204; 304), wherein the base portion (204; 304) bounds a first void; a top portion (203; 303), wherein the top portion (203; 303) bounds a second void; and a tapered portion , wherein the tapered portion extends between the base portion (204; 304) and the top portion (203; 303), the top portion (203; 303) having a smaller cross-sectional area than the base portion (204; 304); wherein the top portion (203; 303) is attached to the oil tube (206; 306) and the base portion (204; 304) at least partially encases the oil tube fitting (212; 312).
A process for the catalysis of a predetermined chemical reaction in the fluid or fluid mixture comprising the step of passing at least a part of the fluid or fluid mixture comprising the one or more reactants from a first compartment for receiving the fluid or fluid mixture comprising the one or more reactants to a second compartment for receiving a fluid comprising one or more products across a membrane comprising, or consisting of, a material comprising a continuous or discontinuous material matrix having void cells formed therein, wherein at least an inner surface of said void cells has nanoparticles of a polymerized organosilicon compound arranged thereon, said polymerized organosilicon being obtained through the polymerization of an organosilicon compound of formula I and optionally at least an organosilicon compound of formula II, R a Si(R 1 ) n (X 1 ) 3-n I R b Si(R 2 ) m (X 2 ) 3-m II wherein R a is a straight-chain or branched C(1-24) alkyl group, R b is an aromatic group, such as an optionally substituted carbocyclic and heterocyclic group comprising five-, six- or ten-membered ring systems, which is linked to the Si atom by a single covalent bond or a spacer unit, such as a straight-chain or branched alkyl residue having 1 to 8 carbon atoms, R 1 and R 2 are independently of each other a straight-chain or branched C(l-6) alkyl group, X 1 and X 2 are independently of each other a hydrolysable group, such as a halogen or an alkoxy group, and n, m are independently of each other 0 or 1, and wherein during the polymerization of the organosilicon compound, the molar ratio between water and silane is in the range of from 1:100 to 15:1, preferably in the range of 1:10 to 10:1 and/or the relative humidity is in the range of 3 to 85%. R a is a straight-chain or branched C(1-24) alkyl group, R b is an aromatic group, such as an optionally substituted carbocyclic and heterocyclic group comprising five-, six- or ten-membered ring systems, which is linked to the Si atom by a single covalent bond or a spacer unit, such as a straight-chain or branched alkyl residue having 1 to 8 carbon atoms, R 1 and R 2 are independently of each other a straight-chain or branched C(l-6) alkyl group, X 1 and X 2 are independently of each other a hydrolysable group, such as a halogen or an alkoxy group, and n, m are independently of each other 0 or 1, and wherein during the polymerization of the organosilicon compound, the molar ratio between water and silane is in the range of from 1:100 to 15:1, preferably in the range of 1:10 to 10:1 and/or the relative humidity is in the range of 3 to 85%.
A method of estimating processor load, the method comprising, at a device for transmitting a media stream comprising an encoder and a processor capable of executing instructions for the encoder: encoding a first media frame associated with a first timestamp and a second media frame associated with a second timestamp at the encoder; determining a first time period between the first timestamp associated with the first media frame and the second timestamp associated with the second media frame; determining a second time period between a first completion time representing completion of the encoding of the first media frame and a second completion time representing completion of the encoding of the second media frame; and forming a measure of processor load in dependence on a difference between the first and second time periods. encoding a first media frame associated with a first timestamp and a second media frame associated with a second timestamp at the encoder; determining a first time period between the first timestamp associated with the first media frame and the second timestamp associated with the second media frame; determining a second time period between a first completion time representing completion of the encoding of the first media frame and a second completion time representing completion of the encoding of the second media frame; and forming a measure of processor load in dependence on a difference between the first and second time periods.
Plane plate for a pressing tool of a press , wherein the plane plate for activating a punch of a press by way of at least one lifting cylinder is displaceable along an axial direction ; wherein the plane plate has a link to the at least one lifting cylinder , at least one at least partially cylindrical guiding face which for contacting a guide column is parallel with the axial direction , and a centrally disposed receptacle for contacting the punch or a punch holder of the press ; wherein the plane plate at least in a first cross section , which between the receptacle and the guiding face runs parallel with the axial direction and along a radial direction that runs so as to be perpendicular to the axial direction , has at least a first region in which a wall thickness of the plane plate is continuously variable; characterized in that the plane plate has an upper side pointing in a first axial direction , and a lower side pointing in a second axial direction that is opposite to the first axial direction ; wherein the upper side and the lower side in the first region of the first cross section run at a first angle of at least 10 angular degrees and at a first angle of at most 80 angular degrees, in relation to the radial direction .
A base for a tank for pressurized gas, such as hydrogen, substantially rotationally symmetrical about an axis (X), comprising: a pipe that is substantially cylindrical around said axis (X), passing through the base to connect the exterior of the tank to the interior of the tank; a substantially tubular notch around said axis (X), arranged inside the tank, suitable for receiving a sealed enclosure ; a substantially tubular sleeve around said axis (X), arranged inside the tank, with an inner diameter that is substantially equal to the diameter of the pipe and with an outer diameter that is substantially equal to the inner diameter of the notch , with an axial extension that is at least equal to that of the notch ; an O-ring and a groove with an axis (X), suitable for receiving the O-ring , arranged within a lateral wall of the notch ; and wherein the base further comprises a body and a ring that is substantially tubular with an axis (X), interfaced by a surface of revolution about the axis (X) passing through the groove , characterized in that the ring has a threaded outer cylindrical face and the body has a corresponding tapped inner cylindrical face to enable the assembly of the ring and the body by screwing.
A fiber for tribological applications comprising at least one solid lubricant or being surface-treated with at least one solid lubricant, said fiber being a metal fiber, a ceramic fiber, a natural fiber, a polymeric fiber, a cellulose fiber, an aramid fiber, a plastic fiber, a glass fiber, a nanofiber, or a carbon fiber, and the solid lubricant being selected from the group consisting of SnS, SnS2, Bi2S3, ZnS, WS2, CuFeS2, CuS, Cu2S, MnS, Sb2S3, TiS2, sulfides of Cr/Co/Ni, Sn2S3, MoS3, WS3, Fe1-xS, MnS2, Sb2S5, ZrS2, CaS, MgS, sulfides of La, Ce, multi-phased metal sulfides of various metals, BN, PTFE, phosphates, oxides, or mixtures thereof, characterised in that said fiber is sulfidized. said fiber being a metal fiber, a ceramic fiber, a natural fiber, a polymeric fiber, a cellulose fiber, an aramid fiber, a plastic fiber, a glass fiber, a nanofiber, or a carbon fiber, and the solid lubricant being selected from the group consisting of SnS, SnS2, Bi2S3, ZnS, WS2, CuFeS2, CuS, Cu2S, MnS, Sb2S3, TiS2, sulfides of Cr/Co/Ni, Sn2S3, MoS3, WS3, Fe1-xS, MnS2, Sb2S5, ZrS2, CaS, MgS, sulfides of La, Ce, multi-phased metal sulfides of various metals, BN, PTFE, phosphates, oxides, or mixtures thereof, characterised in that said fiber is sulfidized.