mhurhangee/ep-ind-claims huggingface dataset:
A vehicle structure, in particular a cooling vehicle structure, having at least one side wall, at least one door and at least one hinge system, wherein the hinge system is connected to the side wall and/or the door to open and close a cargo space, wherein the hinge system comprises at least one hinge element for opening and closing the door, wherein the hinge element has at least one adjusting device with at least one insert part and at least one fixing part, which engages in the insert part, wherein, to position the door, the fixing part is provided displaceably relative to the insert part, and the fixing part can be braced against the insert part in order to fix the door to the hinge element, wherein the insert part is arranged opposite a bearing region of the hinge element, wherein the insert part has at least one guide recess, which is elongate and in which the fixing part is arranged displaceably to guide the door during mounting, characterised in that the bearing region of the hinge element has a recess into which the fixing part engages during bracing, wherein at least one outer layer of the door or of the side wall is provided between the insert part and the bearing region, and the insert part is at least partially covered by the outer layer such that the guide recess is provided open towards the outside, wherein the insert part is embedded in the door or the side wall.
An apparatus comprising: a flexible substrate; and a winding conductive trace (300; 600; 700) formed over the flexible substrate, the winding conductive trace including a plurality of alternating crests (405A; 405B) and troughs (407A; 407B), each crest and each trough having a convex edge (408A; 408B; 603; 703) and a concave edge (412A; 412B) positioned opposite the convex edge; characterised in that the apparatus further comprises wherein a first portion of the winding conductive trace located between each alternating crest and trough is smaller in width than a second portion of the winding conductive trace between the convex edge (408A; 408B) and concave edge (412A; 412B) of each of the crests and troughs; wherein the second portion of the winding conductive trace (300; 600; 700) includes a cap (409A; 409B; 601; 701) comprising a metal trace, a width of the second portion including a width of the metal trace; and wherein the length of the cap (409A; 409B; 601; 701) in an x-axis direction, which is the horizontal direction of the winding conductive trace (300; 600; 700), decreases from the concave edge (412A; 412B) to the convex edge (408A; 408B). a flexible substrate; and a winding conductive trace (300; 600; 700) formed over the flexible substrate, the winding conductive trace including a plurality of alternating crests (405A; 405B) and troughs (407A; 407B), each crest and each trough having a convex edge (408A; 408B; 603; 703) and a concave edge (412A; 412B) positioned opposite the convex edge; characterised in that the apparatus further comprises wherein a first portion of the winding conductive trace located between each alternating crest and trough is smaller in width than a second portion of the winding conductive trace between the convex edge (408A; 408B) and concave edge (412A; 412B) of each of the crests and troughs; wherein the second portion of the winding conductive trace (300; 600; 700) includes a cap (409A; 409B; 601; 701) comprising a metal trace, a width of the second portion including a width of the metal trace; and wherein the length of the cap (409A; 409B; 601; 701) in an x-axis direction, which is the horizontal direction of the winding conductive trace (300; 600; 700), decreases from the concave edge (412A; 412B) to the convex edge (408A; 408B).
A valve comprising: a housing provided with a plurality of housing openings (151, 152, 153, 154); an actuating device comprising an actuator and an actuating shaft connected to the actuator, so that the actuator can actuate the actuating shaft to rotate; a plurality of groups (111, 112) of valve body elements (121, 122, 123, 124, 621, 622, 623, 624) disposed in the housing and capable of rotating in the housing; a plurality of sealing elements (171, 172, 173, 174), each of which is disposed between each of the plurality of housing openings (151, 152, 153, 154) and a corresponding one of the one or plurality of valve body elements (121, 122, 123, 124, 621, 622, 623, 624); and a plurality of engaging and disengaging structures (141, 142), the actuating shaft being configured to selectively engage with or disengage from at least one group of valve body elements (111, 112) in the plurality of groups of valve body elements through at least one of the plurality of engaging and disengaging structures; wherein the valve is provided with a plurality of fluid passages therein, and the actuated at least one group of valve body elements (111, 112) can connect or disconnect at least one of the plurality of fluid passages; characterized in that the actuating shaft is configured to selectively actuate a first group of valve body elements in the plurality of groups of valve body elements to rotate about a first rotation axis and a second group of valve body elements in the plurality of groups of valve body elements to rotate about a second rotation axis. a housing provided with a plurality of housing openings (151, 152, 153, 154); an actuating device comprising an actuator and an actuating shaft connected to the actuator, so that the actuator can actuate the actuating shaft to rotate; a plurality of groups (111, 112) of valve body elements (121, 122, 123, 124, 621, 622, 623, 624) disposed in the housing and capable of rotating in the housing; a plurality of sealing elements (171, 172, 173, 174), each of which is disposed between each of the plurality of housing openings (151, 152, 153, 154) and a corresponding one of the one or plurality of valve body elements (121, 122, 123, 124, 621, 622, 623, 624); and a plurality of engaging and disengaging structures (141, 142), the actuating shaft being configured to selectively engage with or disengage from at least one group of valve body elements (111, 112) in the plurality of groups of valve body elements through at least one of the plurality of engaging and disengaging structures; wherein the valve is provided with a plurality of fluid passages therein, and the actuated at least one group of valve body elements (111, 112) can connect or disconnect at least one of the plurality of fluid passages;
A heat exchanger comprising: - a plurality of adjacent rectangular frames, each rectangular frame defining an interior volume wherein a fluid can circulate, - a partition wall between each adjacent frame (2, 6), separating the interior volumes from one another, - a closing wall arranged on each rectangular end frame and intended to close the interior volume of said rectangular end frames, - a plurality of fluid inlets, each in fluid communication with an interior volume, and a plurality of fluid outlets, each in fluid communication with an interior volume, said fluid inlets and outlets being located on the rectangular frames, - at least one fluid distributor arranged to distribute fluid to at least some of the fluid inlets, - at least one fluid collector arranged to collect fluid leaving at least some of the fluid outlets, - at least one temperature gauge for measuring fluid temperature, - at least one pressure gauge for measuring fluid pressure, - at least one strain gauge (22, 26, 27) for measuring deformation on the heat exchanger, - a communication device capable of receiving measurements from the gauges (20, 21, 22, 26, 27) and sending them to a computer processing unit, heat exchanger wherein the rectangular frames define faces (16, 17), the heat exchanger defining a longitudinal axis and a transverse axis extending respectively along a length and a width of said heat exchanger, each collector and each distributor is attached to the faces (16, 17) and define an end junction between said collector and/or distributor on the one hand and the closure walls on the other hand, characterized in that at least one junction (strain) gauge is arranged on the closure wall, at a first separation distance of between 44 and 150 millimeters from the end junction, the first separation distance being measured along the longitudinal axis or the transverse axis. - a plurality of adjacent rectangular frames, each rectangular frame defining an interior volume wherein a fluid can circulate, - a partition wall between each adjacent frame (2, 6), separating the interior volumes from one another, - a closing wall arranged on each rectangular end frame and intended to close the interior volume of said rectangular end frames, - a plurality of fluid inlets, each in fluid communication with an interior volume, and a plurality of fluid outlets, each in fluid communication with an interior volume, said fluid inlets and outlets being located on the rectangular frames, - at least one fluid distributor arranged to distribute fluid to at least some of the fluid inlets, - at least one fluid collector arranged to collect fluid leaving at least some of the fluid outlets, - at least one temperature gauge for measuring fluid temperature, - at least one pressure gauge for measuring fluid pressure, - at least one strain gauge (22, 26, 27) for measuring deformation on the heat exchanger, - a communication device capable of receiving measurements from the gauges (20, 21, 22, 26, 27) and sending them to a computer processing unit,
Invasive capacitive level probe comprising a body and a head, said body comprising a flexible ringed non watertight tube formed by a metal strip rolled upon itself into a downward or upward spiral construction wherein said invasive capacitive level probe is characterised by that said metal strip, being machined in the shape of an 'S', is rolled upon itself so that the 'S'-shape top flap snaps into the 'S'-shape lower flap along its length and that said tube contains, within it, guiding elements intersected by an electrical wire.
A method for deduplication in a storage system, wherein the storage system comprises a controller and a storage device, and the method comprises: receiving, by the controller, a write request, wherein the first write request includes a to-be-written data block; obtaining, by the controller, a first fingerprint of the to-be-written data block; performing, by the controller, a deduplication operation on data blocks with the first fingerprint in response to a condition that a quantity of the blocks with the first fingerprint in the storage system exceeds a threshold, wherein the method further comprises: storing, by the controller, a unique data block with the first fingerprint to a second storage location after the deduplication operation; wherein the storage device includes a first storage location and the second storage location; storage performance of the second storage location is better than storage performance of the first storage location, wherein the data blocks with the first fingerprint are stored in the first storage location before the deduplication operation. receiving, by the controller, a write request, wherein the first write request includes a to-be-written data block; obtaining, by the controller, a first fingerprint of the to-be-written data block; performing, by the controller, a deduplication operation on data blocks with the first fingerprint in response to a condition that a quantity of the blocks with the first fingerprint in the storage system exceeds a threshold, wherein the method further comprises: storing, by the controller, a unique data block with the first fingerprint to a second storage location after the deduplication operation; wherein the storage device includes a first storage location and the second storage location; storage performance of the second storage location is better than storage performance of the first storage location, wherein the data blocks with the first fingerprint are stored in the first storage location before the deduplication operation. storing, by the controller, a unique data block with the first fingerprint to a second storage location after the deduplication operation; wherein the storage device includes a first storage location and the second storage location; storage performance of the second storage location is better than storage performance of the first storage location, wherein the data blocks with the first fingerprint are stored in the first storage location before the deduplication operation.
A vibration isolation system interposed between a platform and a base, the system comprising: a rotary actuator with a first rotor and a second rotor; a first drive link with a first end and a second end, wherein the first end of the first drive link is rotatably attached to the first rotor, and the second end of the first drive link is rotatably attached to the platform; and a second drive link with a first end and a second end, wherein the first end of the second drive link is rotatably attached to the second rotor, and the second end of the second drive link is rotatably attached to the base characterized in that the first rotor and the second rotor are free to rotate relative to both the base and the platform, and wherein the rotary actuator is configured to cause the platform to be displaced relative to the base. a rotary actuator with a first rotor and a second rotor; a first drive link with a first end and a second end, wherein the first end of the first drive link is rotatably attached to the first rotor, and the second end of the first drive link is rotatably attached to the platform; and a second drive link with a first end and a second end, wherein the first end of the second drive link is rotatably attached to the second rotor, and the second end of the second drive link is rotatably attached to the base characterized in that the first rotor and the second rotor are free to rotate relative to both the base and the platform, and wherein the rotary actuator is configured to cause the platform to be displaced relative to the base.
Gas valve unit for setting a gas volume flow supplied to a gas burner of a gas appliance, in particular a gas cooker, wherein the gas valve unit has a valve housing and an actuation pin, an operating segment of which projects from the valve housing and wherein a shutoff valve is configured in the valve housing, wherein at least two on-off valves are configured in the valve housing, which are disposed along an arc around the actuation pin, wherein it is possible to actuate the on-off valves with the aid of an actuation apparatus, which is coupled to the actuation pin by means of a coupling apparatus at an end of the actuation pin within the valve housing, by rotating the actuation pin, wherein it is possible to actuate the shutoff valve by axially displacing the actuation pin, wherein the shutoff valve has a moveable shutoff element, and wherein a deflection apparatus is provided, which converts an axial movement of the actuation pin to an axial movement of the shutoff element of the shutoff valve at right angles thereto.
An apparatus comprising: a gas turbine engine having a compressor; a compressor airfoil member disposed in the compressor and having a main blade portion having a first camber shape that is blended with a tip portion having a second camber shape, characterised in that the second camber shape is blended into the first camber shape starting at approximately 2/3 span of the compressor blade, wherein the second camber shape comprises a camber angle variation along a chord and a concave pressure side surface from a leading edge to an intermediate-chord location that results in a normalized camber angle of at least 0.4 in the first 10% of normalized chord; and wherein the normalized camber angle is defined as βʹ = β i − β β i − β e where β i is inlet metal angle, β e is exit metal angle, and β is a camber angle at a given chord location. a gas turbine engine having a compressor; a compressor airfoil member disposed in the compressor and having a main blade portion having a first camber shape that is blended with a tip portion having a second camber shape, characterised in that the second camber shape is blended into the first camber shape starting at approximately 2/3 span of the compressor blade, wherein the second camber shape comprises a camber angle variation along a chord and a concave pressure side surface from a leading edge to an intermediate-chord location that results in a normalized camber angle of at least 0.4 in the first 10% of normalized chord; and wherein the normalized camber angle is defined as βʹ = β i − β β i − β e where β i is inlet metal angle, β e is exit metal angle, and β is a camber angle at a given chord location.
A method of resistance spot welding a sheet set of two or more lapped steel sheets by welding the sheet set while clamping and pressing the sheet set between a pair of welding electrodes, the method sequentially comprising: a first welding step of applying an weld current Im (kA) and forming a nugget having a nugget diameter d (mm) that satisfies the following inequality; a cooling step, subsequent to the first welding step, of cooling the sheet set while continuing to press the sheet set; and a second welding step of performing two-step welding of applying weld currents that satisfy the following inequalities and, 3 × √t m ≤ d ≤ 6 × √t m where t m is the thickness (mm) of the thinnest one of the two or more steel sheets, Im < I 21 < Im × 2.0 I 22 < I 21 where I 21 and I 22 are respectively the weld currents (kA) of a pre-step and a post-step of the two-step welding. a first welding step of applying an weld current Im (kA) and forming a nugget having a nugget diameter d (mm) that satisfies the following inequality; a cooling step, subsequent to the first welding step, of cooling the sheet set while continuing to press the sheet set; and a second welding step of performing two-step welding of applying weld currents that satisfy the following inequalities and, 3 × √t m ≤ d ≤ 6 × √t m where t m is the thickness (mm) of the thinnest one of the two or more steel sheets, Im < I 21 < Im × 2.0 I 22 < I 21 where I 21 and I 22 are respectively the weld currents (kA) of a pre-step and a post-step of the two-step welding.
Shark-like chondroitin sulphate, free of tri-, tetra- and 2,4di- sulphated disaccharides, consisting of 60-99% of 6-sulphate, 0.5-30% of 2,6-disulphate, 0.1-5% of 4,6 disulphate, 0.1-5% of unsulphated chondroitin and 0.1-1% of 4-sulphate, all percentages being expressed with respect to the total disaccharide content of the shark-like chondroitin sulphate, the latter showing a number average molecular weight (Mn) of 40-85 kDa and a weight average molecular weight (Mw) of 50-95 kDa.
A modified conjugated diene-based polymer having a silyl group substituted with one or more alkoxy groups, and one or more nitrogen atoms on the chain ends of the conjugated diene-based polymer, the modified conjugated diene-based polymer being obtained by polymerizing a conjugated diene compound, or copolymerizing a conjugated diene compound with an aromatic vinyl compound, by using a polyfunctional anionic polymerization initiator prepared from a polyvinyl aromatic compound and an organolithium compound in a range of a molar ratio (the polyvinyl aromatic compound / the organolithium compound) of from 0.05 to 1.0, so as to obtain the conjugated diene-based polymer, and by reacting a living polymer end of the conjugated diene-based polymer with a compound having a silyl group substituted with two or more alkoxy groups, and one or more nitrogen atoms.
An antibody capable of binding to a human Eva1 protein, the antibody comprising: (a) a light chain variable region comprising, as CDRs 1-3, (i) amino acid sequences of SEQ ID NOs: 4 to 6 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 4 to 6 respectively, in each of which no more than one amino acid is substituted, deleted, or inserted, and (b) a heavy chain variable region comprising, as CDRs 1-3, (i) amino acid sequences of SEQ ID NOs: 10 to 12 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 10 to 12 respectively in each of which no more than one amino acid is substituted, deleted, or inserted. (a) a light chain variable region comprising, as CDRs 1-3, (i) amino acid sequences of SEQ ID NOs: 4 to 6 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 4 to 6 respectively, in each of which no more than one amino acid is substituted, deleted, or inserted, and (i) amino acid sequences of SEQ ID NOs: 4 to 6 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 4 to 6 respectively, in each of which no more than one amino acid is substituted, deleted, or inserted, and (b) a heavy chain variable region comprising, as CDRs 1-3, (i) amino acid sequences of SEQ ID NOs: 10 to 12 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 10 to 12 respectively in each of which no more than one amino acid is substituted, deleted, or inserted. (i) amino acid sequences of SEQ ID NOs: 10 to 12 respectively, or (ii) the amino acid sequences of SEQ ID NOs: 10 to 12 respectively in each of which no more than one amino acid is substituted, deleted, or inserted.
An air conditioner having an outdoor unit and a plurality of indoor units (a, b) connected by refrigerant pipes (D1, D2), wherein the plurality of indoor units (a, b) include at least one first indoor unit (a) having an expansion valve and a heat exchanger incorporated therein, and at least one second indoor unit (b) characterized in that said at least one second indoor unit (b) has a heat exchanger but no expansion valve incorporated therein, an expansion valve is provided in one of a plurality of refrigerant pipes (D1, D2) connecting the at least one second indoor unit (b) with the outdoor unit, and an on-off valve is provided in another refrigerant pipe, wherein the at least one second indoor unit (b) is operated on the condition of closing one of the expansion valve and the on-off valve provided in the refrigerant pipes (D1, D2) assigned to the inward flow flowing towards the indoor heat exchanger, while opening one of the expansion valve and the on-off valve provided in the other refrigerant pipe (D2, D1), and the refrigerant is collected from the at least one second indoor unit (b) into the outdoor unit via the open valve.
A method for producing an implant material in the form of a bone cement, wherein a polymerizable metal acrylate is dissolved in a monomer, and then a crosslinked polymer is produced.
An analyte detection device for sensing based on localized surface plasmon resonance, the device comprising: a plurality of detection conjugates, wherein the conjugates comprise composite metallic nanostructures coupled to binding partners that are antibodies capable of specifically binding to a first epitope of a target analyte, wherein the composite metallic nanostructures comprise a gold coating and a silver core; a surface containing a metallic nanolayer; and a plurality of capture molecules immobilized on the metallic nanolayer, wherein the capture molecules are antibodies capable of specifically binding to a second epitope of the target analyte. a plurality of detection conjugates, wherein the conjugates comprise composite metallic nanostructures coupled to binding partners that are antibodies capable of specifically binding to a first epitope of a target analyte, wherein the composite metallic nanostructures comprise a gold coating and a silver core; a surface containing a metallic nanolayer; and a plurality of capture molecules immobilized on the metallic nanolayer, wherein the capture molecules are antibodies capable of specifically binding to a second epitope of the target analyte.