mhurhangee/patent-ind-claim-en huggingface dataset:
A driverless transport vehicle for transporting load carriers , in particular frames, under which the driverless transport vehicle can drive, comprising a frame , with an at least substantially rectangular cross-section with a front side , a rear side opposite the front side , a right-hand long side and a left-hand long side opposite the right-hand long side , wherein the front side and the rear side run in a transverse direction (Y) and the long sides run in a longitudinal direction (X), a lifting device for raising a driven-under load carrier relative to the frame and at least one laser scanner for identifying obstacles, wherein a first laser scanner is arranged at the front side , a second laser scanner is arranged at the rear side , a third laser scanner is arranged at the right-hand long side and a fourth laser scanner is arranged at the left-hand long side , wherein all four laser scanners are used for the navigation of the transport vehicle , characterised in that the lifting device has a lifting plate for receiving the driven-under load carrier , which lifting plate is movable in a vertical direction (Z) relative to the frame , and in that the third laser scanner is arranged in a central region of the right-hand long side , and in that the fourth laser scanner is arranged in a central region of the left-hand long side .
A vaccine formulation for use in conjunctival immunization of a subject, comprising a subunit vaccine antigen in an amount to provoke a protective immune response, an adjuvant which is chitosan and an adjuvant which is inactivated whole cell Bordetella pertussis.
An electronic device comprising: a housing including a front plate, a rear plate facing away from the front plate, and a side member attached to the front plate or integrally formed with the rear plate, and surrounding a space between the front plate and the rear plate; an antenna device disposed inside the housing and including a first layer , a second layer , a third layer , and a fourth layer formed in a stacked structure, wherein the first layer includes a ground, the second layer includes at least one antenna element and a dielectric disposed adjacent to the at least one antenna element , the third layer includes a first area in which a first periodic structure including a plurality of first conductive cells is disposed and a second area surrounded by the first area, and the fourth layer includes a third area in which a second periodic structure including a plurality of second conductive cells is disposed and a fourth area surrounded by the third area; and a wireless communication circuit electrically coupled to the at least one antenna element, wherein in the entire area of the third layer except for the second area , the plurality of first conductive cells are arranged apart from each other at an equal interval, wherein the at least one antenna element is disposed in an area corresponding to the second area and the fourth area , wherein each of the first conductive cells and/or the plurality of second conductive cells is formed into a meander-type pattern. a housing including a front plate, a rear plate facing away from the front plate, and a side member attached to the front plate or integrally formed with the rear plate, and surrounding a space between the front plate and the rear plate; an antenna device disposed inside the housing and including a first layer , a second layer , a third layer , and a fourth layer formed in a stacked structure, wherein the first layer includes a ground, the second layer includes at least one antenna element and a dielectric disposed adjacent to the at least one antenna element , the third layer includes a first area in which a first periodic structure including a plurality of first conductive cells is disposed and a second area surrounded by the first area, and the fourth layer includes a third area in which a second periodic structure including a plurality of second conductive cells is disposed and a fourth area surrounded by the third area; and a wireless communication circuit electrically coupled to the at least one antenna element, wherein in the entire area of the third layer except for the second area , the plurality of first conductive cells are arranged apart from each other at an equal interval, wherein the at least one antenna element is disposed in an area corresponding to the second area and the fourth area , wherein each of the first conductive cells and/or the plurality of second conductive cells is formed into a meander-type pattern.
Non-woven fabric having an inner side and an outer side, wherein the inner side of the non-woven fabric comprises an embossing pattern having a surface roughness Ra of from 25 to 60 micrometers, preferably from 25 to 50 micrometers, advantageously from 25 to 40 micrometers, obtained by an optical measurement method based on enhanced white light vertical scanning interferometry as disclosed in the description.
A sealing mechanism, for use in a ventilation assembly of an air-conditioning apparatus, comprising: a fixed portion having an opening and a limiting rail ; and a moving portion connected with the limiting rail and movable along the limiting rail to close or open the opening, wherein at least one of the fixed portion and the moving portion is provided with a first sealing protrusion , and the first sealing protrusion is arranged between the fixed portion and the moving portion , wherein both the fixed portion and the moving portion have a rectangle or square shape, characterized in that two long edges of the fixed portion both form a crimping structure, the limiting rail is formed in the crimping structure, and two edges of the moving portion are arranged in the two limiting rails , respectively. a fixed portion having an opening and a limiting rail ; and a moving portion connected with the limiting rail and movable along the limiting rail to close or open the opening, wherein at least one of the fixed portion and the moving portion is provided with a first sealing protrusion , and the first sealing protrusion is arranged between the fixed portion and the moving portion , wherein both the fixed portion and the moving portion have a rectangle or square shape, characterized in that two long edges of the fixed portion both form a crimping structure, the limiting rail is formed in the crimping structure, and two edges of the moving portion are arranged in the two limiting rails , respectively.
A bipolar plate disposed between a positive electrode and a negative electrode of a redox flow battery , the bipolar plate comprising: in a surface of the bipolar plate facing at least one of the positive electrode and the negative electrode , at least one groove through which an electrolyte flows, wherein the groove has a pair of sidewalls facing each other in a cross section orthogonal to a direction in which the electrolyte flows, the groove has a narrow portion in which a distance between the sidewalls decreases in a depth direction of the groove , the narrow portion being provided in at least a part of the groove in the depth direction, the groove has a bottom wall , the bottom wall has a flat surface parallel to the surface of the bipolar plate , and a corner between at least one of the sidewalls and the bottom wall is formed to have a curved surface, wherein the groove has an opening and the width w of the opening is 0.5 mm or more and 10 mm or less, an angle formed by at least one of the sidewalls and the bottom wall is 91° or more and 120° or less, a depth h from the opening to the bottom wall in the depth direction of the groove is 0.5 mm or more and 10 mm or less, and a radius of curvature r of the corner is 0.1 mm or more and 10 mm or less. in a surface of the bipolar plate facing at least one of the positive electrode and the negative electrode , at least one groove through which an electrolyte flows, wherein the groove has a pair of sidewalls facing each other in a cross section orthogonal to a direction in which the electrolyte flows, the groove has a narrow portion in which a distance between the sidewalls decreases in a depth direction of the groove , the narrow portion being provided in at least a part of the groove in the depth direction, the groove has a bottom wall , the bottom wall has a flat surface parallel to the surface of the bipolar plate , and a corner between at least one of the sidewalls and the bottom wall is formed to have a curved surface, wherein the groove has an opening and the width w of the opening is 0.5 mm or more and 10 mm or less, an angle formed by at least one of the sidewalls and the bottom wall is 91° or more and 120° or less, a depth h from the opening to the bottom wall in the depth direction of the groove is 0.5 mm or more and 10 mm or less, and a radius of curvature r of the corner is 0.1 mm or more and 10 mm or less.
A power generating apparatus for extracting energy from flowing water, comprising: a buoyancy vessel , and a turbine assembly coupled to the buoyancy vessel; the turbine assembly comprising a turbine rotor mounted to a nacelle , and a support structure ; the support structure being coupled at its inboard end to the buoyancy vessel and at its outboard end to the nacelle; the turbine assembly being pivotally moveable between a first position and a second position; wherein, when the power generating apparatus is floating on a body of water; in the first position the turbine assembly extends below the buoyancy vessel and the nacelle is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface. a buoyancy vessel , and a turbine assembly coupled to the buoyancy vessel; the turbine assembly comprising a turbine rotor mounted to a nacelle , and a support structure ; the support structure being coupled at its inboard end to the buoyancy vessel and at its outboard end to the nacelle; the turbine assembly being pivotally moveable between a first position and a second position; wherein, when the power generating apparatus is floating on a body of water; in the first position the turbine assembly extends below the buoyancy vessel and the nacelle is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface. in the first position the turbine assembly extends below the buoyancy vessel and the nacelle is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface.
Temperature control system for influencing a temperature in at least one room of a building, the temperature control system comprising at least two heat exchangers (4-6), each heat exchanger (4-6) having a control valve (20-22), a supply port and a return port, the ports being connected to a fluid supply system supplying a heat carrying fluid, a sensor arrangement (12-19; 23-25) detecting at least one physical characteristic of the heat carrying fluid at each heat exchanger (4-6) and at least an additional physical characteristic of the system, the system further comprising processing means (23-25) receiving data from the sensor arrangement (12-19, 23-25), wherein the processing means comprise diagnostic means detecting a kind of a malfunction of the temperature control system , characterized in that the processing means detect a wrong size of a heat exchanger (4-6) when at least one of the following conditions are fulfilled: a) a difference between an inlet temperature and an outlet temperature of the heat exchanger (4-6) is smaller than a predetermined value and the average room temperature does not match a desired room temperature, b) the outlet temperature differs more than a predetermined value from the average room temperature, c) a difference between an inlet temperature and an outlet temperature of the heat exchanger (4-6) is smaller than a predetermined value over more than a predetermined time and a desired room temperature is not reached after the predetermined time and a command has given to fully open the control valve (20-22) and the conditions are fulfilled in a predetermined number of other rooms. a) a difference between an inlet temperature and an outlet temperature of the heat exchanger (4-6) is smaller than a predetermined value and the average room temperature does not match a desired room temperature, b) the outlet temperature differs more than a predetermined value from the average room temperature, c) a difference between an inlet temperature and an outlet temperature of the heat exchanger (4-6) is smaller than a predetermined value over more than a predetermined time and a desired room temperature is not reached after the predetermined time and a command has given to fully open the control valve (20-22) and the conditions are fulfilled in a predetermined number of other rooms.
A method for wireless communication by a user equipment, UE, comprising: receiving , by the UE, a first control message within a control region of a first transmission time interval, TTI, that has a first duration; identifying , by the UE, a data region of the first TTI based at least in part on an indication received in the first control message; receiving , by the UE, a second control message within a control region of a second TTI that has a second duration that is less than the first duration, wherein the first TTI and the second TTI at least partially overlap in time; characterized by identifying, by the UE, a rate matching information field in a downlink grant of the control region of the second TTI that indicates the location of one or more uplink grants in the control region of the second TTI and receiving , by the UE, data in the control region of the second TTI that is rate matched around the one or more grants in the control region of the second TTI based at least in part on the rate matching information field and a downlink grant of resources received in the second control message, wherein the data region of the first TTI is frequency division multiplexed with the data and control regions of the second TTI. receiving , by the UE, a first control message within a control region of a first transmission time interval, TTI, that has a first duration; identifying , by the UE, a data region of the first TTI based at least in part on an indication received in the first control message; receiving , by the UE, a second control message within a control region of a second TTI that has a second duration that is less than the first duration, wherein the first TTI and the second TTI at least partially overlap in time; characterized by identifying, by the UE, a rate matching information field in a downlink grant of the control region of the second TTI that indicates the location of one or more uplink grants in the control region of the second TTI and receiving , by the UE, data in the control region of the second TTI that is rate matched around the one or more grants in the control region of the second TTI based at least in part on the rate matching information field and a downlink grant of resources received in the second control message, wherein the data region of the first TTI is frequency division multiplexed with the data and control regions of the second TTI.
A seal for a gas turbine engine, comprising: a plurality of seal arc segments , each of the seal arc segments including radially inner and outer sides and sloped first and second circumferential sides , the seal arc segments being circumferentially arranged about an axis (A) such that the sloped first and second circumferential sides define gaps circumferentially between adjacent ones of the seal arc segments , each of the gaps extending from the radially inner sides along a respective central gap axis (A1) that slopes with respect to a radial direction (R) from the axis (A), each of the seal arc segments including an internal cooling passage that opens at one of the sloped first and second circumferential sides ; wherein a seal is arranged between adjacent seal arc segments radially outboard of the internal cooling passage to restrict escape of gas flow; characterized in that : the cooling passage extends along a central axis (A2) that is oriented to jet cooling air (CA) against the other of the sloped first and second circumferential sides of an adjacent seal arc segment , wherein a slope of the other of the sloped first and second circumferential sides is configured to deflect the cooling air (CA) radially outwards in the gap. a plurality of seal arc segments , each of the seal arc segments including radially inner and outer sides and sloped first and second circumferential sides , the seal arc segments being circumferentially arranged about an axis (A) such that the sloped first and second circumferential sides define gaps circumferentially between adjacent ones of the seal arc segments , each of the gaps extending from the radially inner sides along a respective central gap axis (A1) that slopes with respect to a radial direction (R) from the axis (A), each of the seal arc segments including an internal cooling passage that opens at one of the sloped first and second circumferential sides ; wherein a seal is arranged between adjacent seal arc segments radially outboard of the internal cooling passage to restrict escape of gas flow; characterized in that : the cooling passage extends along a central axis (A2) that is oriented to jet cooling air (CA) against the other of the sloped first and second circumferential sides of an adjacent seal arc segment , wherein a slope of the other of the sloped first and second circumferential sides is configured to deflect the cooling air (CA) radially outwards in the gap.
Automatic controlled electric conduction heating equipment for production of high mechanical resistance parts comprising: a) a heating controller system ; b) a power controller system for supplying a power transformer with the energy required during heating; c) a data acquisition system ; d) support structure (6.1); e) electrodes (6.4); f) a mechanical fastening device for securing a part (P) to be heated and for carrying out electric contact of electrodes (6.4) with said part (P) comprising the following movable parts for fixing the part (P): a thermal expansion compensator assembly (6.2); fixing cylinders (6.3); and a mechanical device for fastening and closing electrodes (6.5) which are connected to an electric power assembly formed by the power controller system and the power transformer ; characterized in that said electrodes (6.4) are copper electrodes with internal cooling channels (6.4.1) and movable by the mechanical device during heating of the part (P); and the power controller system , the power transformer and the electrodes (6.4) are cooled through the internal cooling channels (6.4.1). a) a heating controller system ; b) a power controller system for supplying a power transformer with the energy required during heating; c) a data acquisition system ; d) support structure (6.1); e) electrodes (6.4); f) a mechanical fastening device for securing a part (P) to be heated and for carrying out electric contact of electrodes (6.4) with said part (P) comprising the following movable parts for fixing the part (P): a thermal expansion compensator assembly (6.2); fixing cylinders (6.3); and a mechanical device for fastening and closing electrodes (6.5) which are connected to an electric power assembly formed by the power controller system and the power transformer ;
A method of producing a 1,3 fatty diol comprising: (a) providing a recombinant microorganism in a fermentation broth, said microorganism being engineered to express a nucleic acid sequence encoding a polypeptide comprising an acyl-ACP reductase (EC 1.2.1.80 or EC 1.2.1.42) activity, the microorganism further expressing a nucleic acid sequence encoding a polypeptide comprising an alcohol dehydrogenase (EC 1.1.1.-) activity; and (b) isolating a 1,3 fatty diol from said fermentation broth; wherein said fermentation broth comprises a simple carbon source. (a) providing a recombinant microorganism in a fermentation broth, said microorganism being engineered to express a nucleic acid sequence encoding a polypeptide comprising an acyl-ACP reductase (EC 1.2.1.80 or EC 1.2.1.42) activity, the microorganism further expressing a nucleic acid sequence encoding a polypeptide comprising an alcohol dehydrogenase (EC 1.1.1.-) activity; and (b) isolating a 1,3 fatty diol from said fermentation broth;
A fuse assembly for igniting a charge, comprising a) a fuse housing ; b) a safety lever pivotally attached to the fuse housing , said safety lever having a handle portion and a cammed portion generally disposed about a first pivot point ; c) a spring loaded striker lever pivotally attached to the fuse housing , having a second pivot point provided towards a first end and having a second free end , the striker lever being adapted to receive the pull-wire of a pull-wire igniter; wherein in a first configuration, the free end of the spring loaded striker lever is in contact with the cammed portion of the safety lever holding the striker lever in position, such that rotation of the safety lever away from the fuse housing reduces contact between the free end and the cammed portion , allowing the spring loaded striker lever to rotate away from the fuse housing . a) a fuse housing ; b) a safety lever pivotally attached to the fuse housing , said safety lever having a handle portion and a cammed portion generally disposed about a first pivot point ; c) a spring loaded striker lever pivotally attached to the fuse housing , having a second pivot point provided towards a first end and having a second free end , the striker lever being adapted to receive the pull-wire of a pull-wire igniter; wherein in a first configuration, the free end of the spring loaded striker lever is in contact with the cammed portion of the safety lever holding the striker lever in position, such that rotation of the safety lever away from the fuse housing reduces contact between the free end and the cammed portion , allowing the spring loaded striker lever to rotate away from the fuse housing .