mhurhangee/patent-ind-claim-en huggingface dataset:
A control method for an automatic transmission having a first control mode in which a transmission ratio of a continuously variable transmission is controlled in a stepless manner, and a second control mode in which the transmission ratio is controlled in a stepwise manner to perform an upshift after a vehicle speed has increased, characterized in that continuously downshifting (S109, S125) until the upshift is performed ((C), S127) when the second control mode is selected (S107) in response to a driver's acceleration request, and the continuous downshifting is executed during a period from when the driver's acceleration request occurs (A) until an engine rotational speed reaches ((C), S124: NO) an upshift determination rotational speed (Nup1).
A MEMS accelerometer comprising: a substrate, which defines a substrate plane; at least two proof masses , wherein both proof masses are configured to rotate out of parallel to the substrate plane and move parallel to the substrate plane and wherein the combined centre of mass of the at least two proof masses is at the centre of the accelerometer; at least one in-plane structure configured move parallel to the substrate plane, wherein the at least two proof masses are rotatably connected to the at least one in-plane structure such that movement of the at least two proof masses parallel to the substrate plane causes movement of the at least one in-plane structure parallel to the substrate plane; first sense circuitry (161-164) configured to sense movement of the at least two proof masses parallel to the substrate plane; and second sense circuitry (171-174, 181-184) configured to sense rotation of the at least two proof masses out of parallel to the substrate plane; characterized in that the at least two out-of-plane proof masses are located towards the exterior of the MEMS accelerometer relative to the at least one in-plane structure. a substrate, which defines a substrate plane; at least two proof masses , wherein both proof masses are configured to rotate out of parallel to the substrate plane and move parallel to the substrate plane and wherein the combined centre of mass of the at least two proof masses is at the centre of the accelerometer; at least one in-plane structure configured move parallel to the substrate plane, wherein the at least two proof masses are rotatably connected to the at least one in-plane structure such that movement of the at least two proof masses parallel to the substrate plane causes movement of the at least one in-plane structure parallel to the substrate plane; first sense circuitry (161-164) configured to sense movement of the at least two proof masses parallel to the substrate plane; and second sense circuitry (171-174, 181-184) configured to sense rotation of the at least two proof masses out of parallel to the substrate plane; characterized in that the at least two out-of-plane proof masses are located towards the exterior of the MEMS accelerometer relative to the at least one in-plane structure.
An ablation device, comprising: a feedline including an inner conductor having a distal end, an outer conductoi coaxially disposed around the inner conductor, and a dielectric material disposed between the inner conductor and the outer conductor; a first balun structure (B1) disposed around a portion of the outer conductor and comprising: a first dielectric layer coaxially disposed around the portion of the outer conductor; and a first conductive balun sleeve coaxially disposed around the first dielectric layer and having a distal end, characterized in that the first dielectric layer extends distally beyond the distal end of the first conductive balun sleeve . a feedline including an inner conductor having a distal end, an outer conductoi coaxially disposed around the inner conductor, and a dielectric material disposed between the inner conductor and the outer conductor; a first balun structure (B1) disposed around a portion of the outer conductor and comprising: a first dielectric layer coaxially disposed around the portion of the outer conductor; and a first conductive balun sleeve coaxially disposed around the first dielectric layer and having a distal end, a first dielectric layer coaxially disposed around the portion of the outer conductor; and a first conductive balun sleeve coaxially disposed around the first dielectric layer and having a distal end, characterized in that the first dielectric layer extends distally beyond the distal end of the first conductive balun sleeve .
A system for augmented reality viewing, the system comprising: a memory associated with a computing device, the memory including an augmented reality session component ; and a processor that executes the augmented reality session component to: generate a unique code corresponding to a user device ; broadcast information corresponding to the unique code from the user device , the information configured to be received by an augmented reality device ; display the unique code on the user device ; and join the user device to an augmented reality session of the augmented reality device using received identification information from the augmented reality device and based at least in part on the displayed unique code ; wherein the augmented reality device comprises a camera , and the processor further executes the augmented reality session component to activate the camera of the augmented reality device upon receiving the information broadcast from the user device , the camera configured to scan for the unique code. a memory associated with a computing device, the memory including an augmented reality session component ; and a processor that executes the augmented reality session component to: generate a unique code corresponding to a user device ; broadcast information corresponding to the unique code from the user device , the information configured to be received by an augmented reality device ; display the unique code on the user device ; and join the user device to an augmented reality session of the augmented reality device using received identification information from the augmented reality device and based at least in part on the displayed unique code ; wherein the augmented reality device comprises a camera , and the processor further executes the augmented reality session component to activate the camera of the augmented reality device upon receiving the information broadcast from the user device , the camera configured to scan for the unique code. generate a unique code corresponding to a user device ; broadcast information corresponding to the unique code from the user device , the information configured to be received by an augmented reality device ; display the unique code on the user device ; and join the user device to an augmented reality session of the augmented reality device using received identification information from the augmented reality device and based at least in part on the displayed unique code ; wherein the augmented reality device comprises a camera , and the processor further executes the augmented reality session component to activate the camera of the augmented reality device upon receiving the information broadcast from the user device , the camera configured to scan for the unique code.
Chassis component for a motor vehicle , on which at least one sensor for detecting a mechanical load (F) is arranged, characterized in that the at least one sensor is designed as a switch of an electric circuit , having at least one load introduction element and at least two switching elements , wherein the load introduction element has greater rigidity than the at least two switching elements , wherein overshooting of a load limit value by a bending load received by the at least one load introduction element via the chassis component causes a change in a switching position of the at least two switching elements .
Chipping rotor for producing chips, having a shaft support which has at least three, preferably six, circumferential and axially spaced radial webs on which knife holders are mounted, wherein at least one knife holder is mounted on two fixing webs in such a way that it freely spans a third web arranged between the two fixing webs , whereby a chip room with an axial length over three successive webs is formed underneath the knife holder , characterized in that the web located between the fixing webs is open in the direction of rotation and the opposite direction and forms an open chip room underneath the knife holder for receiving the chips and conveying them out of the chipping rotor.
A sludge separator for oil contaminated sludge masses, the sludge separator comprising: - a first cylindrical, inner tank comprising: - a sludge inlet , - a first evaporated gas outlet ; - a solid matter outlet , - a conveyor auger axially aligned inside said first, inner tank for transporting said oil contaminated sludge masses from said sludge inlet towards said solid matter outlet , said conveyor auger comprising an axially extending shaft , - a second cylindrical, outer tank enclosing said first, inner tank such that a cavity is formed around said first, inner tank , - a heating element arranged at least at a lower part of said second, outer tank , characterized in that - said cavity , in an operative state of said sludge separator, is filled with smelted Lead (Pb) so as for distributing heat evenly over the whole said first, inner tank's surface and in that said conveyor auger comprises a plurality of radially extending arms , and each arm is provided with a conveyor blade pair with a first and second conveyor blade arranged at outer ends of said arms for smearing the sludge masses peripherally around an inner surface of said inner tank , wherein the blades of the conveyor auger have a gap between their outer edge and the inner surface of the inner tank and are arranged in parallel pairs with a mutual gap, said gap for being partially filled with more or less wet sludge masses which will form a continuously exchanged wiper mass wiping along the inner surface of the inner tank , thus preventing steel to steel contact along the inner surface of the inner tank . - a first cylindrical, inner tank comprising: - a sludge inlet , - a first evaporated gas outlet ; - a solid matter outlet , - a sludge inlet , - a first evaporated gas outlet ; - a solid matter outlet , - a conveyor auger axially aligned inside said first, inner tank for transporting said oil contaminated sludge masses from said sludge inlet towards said solid matter outlet , said conveyor auger comprising an axially extending shaft , - a second cylindrical, outer tank enclosing said first, inner tank such that a cavity is formed around said first, inner tank , - a heating element arranged at least at a lower part of said second, outer tank , characterized in that - said cavity , in an operative state of said sludge separator, is filled with smelted Lead (Pb) so as for distributing heat evenly over the whole said first, inner tank's surface and in that said conveyor auger comprises a plurality of radially extending arms , and each arm is provided with a conveyor blade pair with a first and second conveyor blade arranged at outer ends of said arms for smearing the sludge masses peripherally around an inner surface of said inner tank , wherein the blades of the conveyor auger have a gap between their outer edge and the inner surface of the inner tank and are arranged in parallel pairs with a mutual gap, said gap for being partially filled with more or less wet sludge masses which will form a continuously exchanged wiper mass wiping along the inner surface of the inner tank , thus preventing steel to steel contact along the inner surface of the inner tank .
A method for detecting the presence of a duplication of exon 3 of the RHD gene in a DNA sample comprising contacting a probe or a set of primers specific to the duplication of exon 3 of the RHD gene with the DNA sample and detecting a hybridization of the probe or an amplification product of the set of primers, the detection of said hybridization or said amplification product being respectively indicative of the presence of the duplication of exon 3 of the RHD gene in the DNA sample, wherein the probe specific to the duplication of exon 3 of the RHD gene is a probe that specifically hybridizes to a portion of the RHD gene specific to the duplication of exon 3, the probe comprising at least 5, 6, 7, 8, 9 or 10 nucleotides upstream and at least 5, 6, 7, 8, 9 or 10 nucleotides downstream of the breakpoint of SEQ ID NO: 31, of the breakpoint of a sequence having at least 90, 95 or 99 % of identity with SEQ ID NO: 31, or of the breakpoint of complementary sequences thereof and; wherein the set of primers specific to the duplication of exon 3 of the RHD gene is a set of primers that produces an amplification product only when the duplication of exon 3 is present.
Rheology modifier obtainable by polymerizing (i) at least one ethylenically unsaturated carboxylic acid; (ii) at least one nonionic ethylenically unsaturated surfactant monomer, (iii) at least one C 1 -C 2 -alkyl methacrylate, and/or (iv) at least one C 2 -C 4 -alkyl acrylate, where the alkyl chain length averaged over the number of alkyl groups of the alkyl acrylate is 2.1 to 4.0; in the presence of hydrocarbon comprising at least one XH-group, wherein X is selected from the group consisting of O, P, N and S. (i) at least one ethylenically unsaturated carboxylic acid; (ii) at least one nonionic ethylenically unsaturated surfactant monomer, (iii) at least one C 1 -C 2 -alkyl methacrylate, and/or (iv) at least one C 2 -C 4 -alkyl acrylate, where the alkyl chain length averaged over the number of alkyl groups of the alkyl acrylate is 2.1 to 4.0;
A white light emitting apparatus, comprising: a first light emitting diode-phosphor combination to generate a base light, the base light being white; and a second light emitting diode-phosphor combination to generate a Color Rendering Index adjusting light, characterized by a housing comprising a single cavity for both the first light emitting diode-phosphor combination and the second light emitting diode-phosphor combination , and in that the first light emitting diode-phosphor combination comprises at least one blue light emitting diode having a peak wavelength of 400 to 470 nm and one or more phosphors having a peak wavelength of 500 to 600 nm, the second light emitting diode-phosphor combination comprises at least one ultra violet (UV) light emitting diode having a peak wavelength of 250 to 400 nm and one or more phosphors having a peak wavelength greater than 600 nm, wherein the base light and the Color Rendering Index adjusting light together make a white light having a color temperature of 2500 to 4500K. a first light emitting diode-phosphor combination to generate a base light, the base light being white; and a second light emitting diode-phosphor combination to generate a Color Rendering Index adjusting light, characterized by a housing comprising a single cavity for both the first light emitting diode-phosphor combination and the second light emitting diode-phosphor combination , and in that the first light emitting diode-phosphor combination comprises at least one blue light emitting diode having a peak wavelength of 400 to 470 nm and one or more phosphors having a peak wavelength of 500 to 600 nm, the second light emitting diode-phosphor combination comprises at least one ultra violet (UV) light emitting diode having a peak wavelength of 250 to 400 nm and one or more phosphors having a peak wavelength greater than 600 nm, wherein the base light and the Color Rendering Index adjusting light together make a white light having a color temperature of 2500 to 4500K.
A process of ring formation across a carbon-carbon multiple bond, the process comprising the steps of reacting a N-alkyl-N-nitroso compound with a substrate bearing a carbon-carbon multiple bond in the presence of an aqueous base and a transition metal catalyst, wherein the N-alkyl-N-nitroso compound is generated in-situ, and the N-alkyl-N-nitroso compound is added to the substrate without being first isolated.
A method for calculating binding free energy between a first substance and a second substance, the method comprising: increasing (S1), in a plurality of steps, a distance restraint potential between the first substance and the second substance from 0 to a maximum level, thereby obtaining multiple potential energy data by calculating potential energy data of a binding structure between the first substance and the second substance at each of the plurality of steps; selecting (S2), from the multiple potential energy data, first potential energy data within a restrained space, the restrained space corresponding to a state where the distance restraint potential is at the maximum level; and calculating (S3) the binding free energy between the first substance and the second substance using the first potential energy data selected, wherein the method is a method for calculating the binding free energy between the first substance and the second substance using a computer. increasing (S1), in a plurality of steps, a distance restraint potential between the first substance and the second substance from 0 to a maximum level, thereby obtaining multiple potential energy data by calculating potential energy data of a binding structure between the first substance and the second substance at each of the plurality of steps; selecting (S2), from the multiple potential energy data, first potential energy data within a restrained space, the restrained space corresponding to a state where the distance restraint potential is at the maximum level; and calculating (S3) the binding free energy between the first substance and the second substance using the first potential energy data selected, wherein the method is a method for calculating the binding free energy between the first substance and the second substance using a computer.
An aircraft including at least one passenger room , with the room being defined by a perimeter wall that encloses a passenger space , the perimeter wall including a section of a side of the aircraft and an internal wall with an opening to allow access to and from the room, with the room including a passenger chair and a bed that are separate units that can be used at the same time without one unit interfering with the other unit and vice versa, characterized in that the room includes a storage cassette for storing the bed in a stowed position that has a minimal footprint in the passenger space, with the bed being moveable between the stowed position in the cassette and an operative position in which the bed defines a sleeping platform within the passenger space, with the stowed position being a vertical orientation along a longer edge of the bed, with the operative position being a position in which the bed extends lengthwise inwardly from the side of the aircraft into the passenger space, and with the storage cassette and the bed being positioned against a section of the perimeter wall that extends inwardly from the side of the aircraft.
A method for holding an ex vivo organ for at least one of perfusion, storage and transport of the organ, comprising: - placing the organ on an organ chair constructed specifically to correspond to a type of the organ and further configured with a venous outflow sampler into which the organ chair funnels venous outflow; and then - placing the organ chair within a portable cassette , wherein the cassette is configured to be removably received by a perfusion machine and by an organ transporter and the organ is not returned to the donor. - placing the organ on an organ chair constructed specifically to correspond to a type of the organ and further configured with a venous outflow sampler into which the organ chair funnels venous outflow; and then - placing the organ chair within a portable cassette ,
A fastener comprising: a housing body having a housing head portion and a shank portion extending from the housing head portion , the shank portion forming at least two longitudinal slots ; a threaded screw inserted into the housing body , the threaded screw having a head portion rotatably confined within the housing head portion ; a drive nut rotationally coupled to the threaded screw and rotationally constrained relative to the housing body ; and a collet body operatively linked to the driven nut , the collet body comprising a collet body base having a central axis and at least a pair of collet body legs converging towards the central axis, each collet body leg having a toe extending radially outward by the threaded screw when the threaded screw threadably engages the drive nut and rotates to cause the drive nut moving longitudinally toward the housing head portion , the radially extended toe suitable for compressing work pieces against the housing head portion for fastening, characterized in that the threaded screw comprises a screw tip with a reduced diameter in reference to the thread screw . a housing body having a housing head portion and a shank portion extending from the housing head portion , the shank portion forming at least two longitudinal slots ; a threaded screw inserted into the housing body , the threaded screw having a head portion rotatably confined within the housing head portion ; a drive nut rotationally coupled to the threaded screw and rotationally constrained relative to the housing body ; and a collet body operatively linked to the driven nut , the collet body comprising a collet body base having a central axis and at least a pair of collet body legs converging towards the central axis, each collet body leg having a toe extending radially outward by the threaded screw when the threaded screw threadably engages the drive nut and rotates to cause the drive nut moving longitudinally toward the housing head portion , the radially extended toe suitable for compressing work pieces against the housing head portion for fastening, characterized in that the threaded screw comprises a screw tip with a reduced diameter in reference to the thread screw .
A system for treating a tissue site, comprising: a manifold adapted to be placed adjacent to the tissue site; a sealing member adapted to cover the tissue site and the manifold to provide a fluid seal at the tissue site; a pouch adapted to be positioned between the manifold and the sealing member, the pouch comprising: an upstream layer having a hydrophilic side and a hydrophobic side, a downstream layer having a hydrophilic side and a hydrophobic side, and an absorbent member enclosed between the upstream layer and the downstream layer, the hydrophilic side of the upstream layer positioned facing the absorbent member and the hydrophilic side of the downstream layer positioned facing the absorbent member; and a reduced-pressure source adapted to be positioned in fluid communication with the manifold through the sealing member. a manifold adapted to be placed adjacent to the tissue site; a sealing member adapted to cover the tissue site and the manifold to provide a fluid seal at the tissue site; a pouch adapted to be positioned between the manifold and the sealing member, the pouch comprising: an upstream layer having a hydrophilic side and a hydrophobic side, a downstream layer having a hydrophilic side and a hydrophobic side, and an absorbent member enclosed between the upstream layer and the downstream layer, the hydrophilic side of the upstream layer positioned facing the absorbent member and the hydrophilic side of the downstream layer positioned facing the absorbent member; and a reduced-pressure source adapted to be positioned in fluid communication with the manifold through the sealing member. an upstream layer having a hydrophilic side and a hydrophobic side, a downstream layer having a hydrophilic side and a hydrophobic side, and an absorbent member enclosed between the upstream layer and the downstream layer, the hydrophilic side of the upstream layer positioned facing the absorbent member and the hydrophilic side of the downstream layer positioned facing the absorbent member; and a reduced-pressure source adapted to be positioned in fluid communication with the manifold through the sealing member.