mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a package assembly comprising a plurality of chiplets (3602; 3604; 3608) and a plurality of interconnect structures, the plurality of chiplets (3602; 3604; 3608) including: a first chiplet comprising a first base chiplet (3604; 2810) coupled to a bridge interconnect and an interconnect structure, the first base chiplet (3604; 2810) including: an interconnect fabric, and a first plurality of level 3 cache banks (2809A-2809N) to cache data read from and transmitted to a memory; a second chiplet comprising a second base chiplet, the second chiplet coupled to the first chiplet (3604; 2810) over the bridge interconnect; and a third chiplet including a second plurality of level 3 cache banks, the third chiplet stacked on the first base chiplet (3604; 2810) in a 3D arrangement and coupled to the first base chiplet (3604; 2810) over the interconnect structure, wherein the first plurality of level 3 cache banks (2809A-2809N) is configured to work in concert with the second plurality of level 3 cache banks. a first chiplet comprising a first base chiplet (3604; 2810) coupled to a bridge interconnect and an interconnect structure, the first base chiplet (3604; 2810) including: an interconnect fabric, and a first plurality of level 3 cache banks (2809A-2809N) to cache data read from and transmitted to a memory; an interconnect fabric, and a first plurality of level 3 cache banks (2809A-2809N) to cache data read from and transmitted to a memory; a second chiplet comprising a second base chiplet, the second chiplet coupled to the first chiplet (3604; 2810) over the bridge interconnect; and a third chiplet including a second plurality of level 3 cache banks, the third chiplet stacked on the first base chiplet (3604; 2810) in a 3D arrangement and coupled to the first base chiplet (3604; 2810) over the interconnect structure, wherein the first plurality of level 3 cache banks (2809A-2809N) is configured to work in concert with the second plurality of level 3 cache banks.
An actuator (10, 10', 10") connected to a structural ground (12, 12', 12") of a forced oscillation technique device (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000), comprising: an electrical power source [16, 16',16"]; a control device (17, 17', 17") connected to the electrical power source (16, 16', 16"); a first portion (14a, 14a', 14a") including piezoelectric material connected to the electrical power source, and a second portion (14b, 14b', 14b") including non-piezoelectric, passive material connected to the first portion (14a, 14a', 14a"), wherein the second portion (14b, 14b', 14b") includes a ring member (24, 24', 24"), characterized in that the first portion (14a, 14a', 14a") includes at least one plate-shaped member (18, 18', 18"), wherein the ring member (24,24',24") is connected to and circumscribes a mesh screen (26,26',26"). an electrical power source [16, 16',16"]; a control device (17, 17', 17") connected to the electrical power source (16, 16', 16"); a first portion (14a, 14a', 14a") including piezoelectric material connected to the electrical power source, and a second portion (14b, 14b', 14b") including non-piezoelectric, passive material connected to the first portion (14a, 14a', 14a"),
A multi-die carrier assembly (200, 256, 400, 500, 600, 700) for punch forming operations, comprising: a die carrier (208, 526, 610, 710) configured to retain a plurality of forming dies (202, 204, 206, 258a, 268a-268d, 502, 504, 506, 602, 702); a die selector (210, 520, 616, 716), coupled with the die carrier, configured to select one of the plurality of forming dies for operation on a workpiece by retaining or elevating the selected forming die at an operational height; and a mechanical rotator configured to rotate the die carrier (208, 526, 610, 710) with respect to the die selector (210, 520, 616, 716); and wherein the die carrier (208, 526, 610, 710) and the die selector (210, 520, 612, 716) define complementary mating surfaces that form a slidable interface configured to accommodate relative motion between the die carrier and the die selector; characterized in that the die selector (210, 520, 616, 716) defines a cam or a ramp (230, 246, 272, 516) configured to slide beneath each of the plurality of forming dies upon the relative rotation between the die carrier and the die selector. a die carrier (208, 526, 610, 710) configured to retain a plurality of forming dies (202, 204, 206, 258a, 268a-268d, 502, 504, 506, 602, 702); a die selector (210, 520, 616, 716), coupled with the die carrier, configured to select one of the plurality of forming dies for operation on a workpiece by retaining or elevating the selected forming die at an operational height; and a mechanical rotator configured to rotate the die carrier (208, 526, 610, 710) with respect to the die selector (210, 520, 616, 716); and wherein the die carrier (208, 526, 610, 710) and the die selector (210, 520, 612, 716) define complementary mating surfaces that form a slidable interface configured to accommodate relative motion between the die carrier and the die selector; characterized in that the die selector (210, 520, 616, 716) defines a cam or a ramp (230, 246, 272, 516) configured to slide beneath each of the plurality of forming dies upon the relative rotation between the die carrier and the die selector.
An exhaust device including an exhaust pipe mountable on an engine, and a muffler coupled downstream of the exhaust pipe, the exhaust device comprising: a catalyst provided in the muffler to clean exhaust gas, a pipe portion which is disposed on the downstream side of the catalyst and directly coupled to the catalyst; and an oxygen sensor mounted on the pipe portion; characterised in that a wire that extends from the oxygen sensor is provided on the surface of a muffler cover. a catalyst provided in the muffler to clean exhaust gas, a pipe portion which is disposed on the downstream side of the catalyst and directly coupled to the catalyst; and an oxygen sensor mounted on the pipe portion; characterised in that a wire that extends from the oxygen sensor is provided on the surface of a muffler cover.
A vehicle light for forming an irradiation pattern on a road surface around the vehicle comprising: a light source; a light condensing lens that condenses a light emitted from the light source; a filter that has an irradiation slit for allowing the light, which is condensed by the light condensing lens, to partially pass through; and a projection lens that forms the light having passed through the filter, into an irradiation pattern (Pi), wherein the irradiation slit has a farthest location that corresponds to a farthest portion projected at a farthest position in the irradiation pattern (Pi) and a nearest location that corresponds to a nearest portion projected at a nearest position in the irradiation pattern (Pi), characterized in that the light condensing lens, on the filter, makes the farthest location brightest and the nearest location darkest in an upper-lower direction, and diffuses the light emitted from the light source more in a width direction, which is orthogonal to an optical axis direction and to the upper-lower direction, than in the upper-lower direction, and in the projection lens, a focal plane (Fp) relative to parallel rays of light from a radial position (d) that is defined as a predetermined interval in a radial direction from the optical axis (La) in the filter has a curvature radius r that decreases as the radial position d increases, and the focal plane (Fp) has a curvature center (Cc) set on an opposite side to the filter regardless of the radial position (d). a light source; a light condensing lens that condenses a light emitted from the light source; a filter that has an irradiation slit for allowing the light, which is condensed by the light condensing lens, to partially pass through; and a projection lens that forms the light having passed through the filter, into an irradiation pattern (Pi), wherein the irradiation slit has a farthest location that corresponds to a farthest portion projected at a farthest position in the irradiation pattern (Pi) and a nearest location that corresponds to a nearest portion projected at a nearest position in the irradiation pattern (Pi), characterized in that the light condensing lens, on the filter, makes the farthest location brightest and the nearest location darkest in an upper-lower direction, and diffuses the light emitted from the light source more in a width direction, which is orthogonal to an optical axis direction and to the upper-lower direction, than in the upper-lower direction, and in the projection lens, a focal plane (Fp) relative to parallel rays of light from a radial position (d) that is defined as a predetermined interval in a radial direction from the optical axis (La) in the filter has a curvature radius r that decreases as the radial position d increases, and the focal plane (Fp) has a curvature center (Cc) set on an opposite side to the filter regardless of the radial position (d).
A light emitting arrangement comprising at least two LEDs as well as a reflector associated with the LEDs, wherein optical means are associated in each case with the LEDs, which means are designed to focus the light of the associated LED in each case on a common spot characterized in that the LEDs are arranged on a circuit board, wherein the reflector is cup-shaped and is also arranged on the circuit board, wherein the light emitted from the LEDs is emitted via the reflector.
A white balance processing method, comprising: processing an image to obtain a color of a light source contained in a scene corresponding to the image; determining whether the color of the light source is identical to a natural color of an object contained in the scene; in response to determining that the color of the light source is identical to the natural color of the object contained in the scene, determining a type of the scene and performing a white balance processing on the image according to the type of the scene; and in response to determining that the color of the light source is different from the natural color of the object contained in the scene, determining color temperature of the light source contained in the scene according to the color of the light source and performing the white balance processing on the image according to the color temperature of the light source. processing an image to obtain a color of a light source contained in a scene corresponding to the image; determining whether the color of the light source is identical to a natural color of an object contained in the scene; in response to determining that the color of the light source is identical to the natural color of the object contained in the scene, determining a type of the scene and performing a white balance processing on the image according to the type of the scene; and in response to determining that the color of the light source is different from the natural color of the object contained in the scene, determining color temperature of the light source contained in the scene according to the color of the light source and performing the white balance processing on the image according to the color temperature of the light source.
An arrangement in a moving vehicle or machine, comprising at least three frame parts (2, 3, 4), wherein the vehicle or machine is a forest work unit and that the arrangement comprises at least two rotational planes (A, B), each of which rotational planes (A, B) is arranged to be formed on an interface which separates, in each particular case, two frame parts positioned substantially successively in the longitudinal direction of the frame of the vehicle or machine from each other, and said frame parts being arranged, in relation to each of the rotational planes (A, B), at least rotationally substantially around a longitudinal axis of the vehicle or machine or an axis in the vicinity thereof and substantially parallel thereto, characterized in that the mutual rotation of the successive frame parts separated by at least one of the rotational planes (A, B) around said axis is actively controllable such that a frame part positioned between two other frame parts and separated by rotational planes is guided into a substantially horizontal position substantially continuously or when desired in relation to the rotation around the longitudinal axis of the vehicle or machine and that the arrangement comprises at least one rotation control actuator for controlling the rotation taking place in relation to the at least one rotational plane (A, B).
An internal combustion engine including a fuel reformation cylinder for reforming a fuel and an output cylinder for yielding an engine power by combusting fuel or reformed fuel, wherein at least a part of a surface constituting a volume-variable reaction chamber of the fuel reformation cylinder is made of a highly heat-insulative material, wherein the surface constituting the reaction chamber includes an inner circumferential surface of the fuel reformation cylinder and a top surface of a piston housed in the fuel reformation cylinder in a cylinder block, and a blast surface covering the fuel reformation cylinder in a cylinder head, wherein at least one of these surfaces is made of the highly heat-insulative material, wherein the fuel reformation cylinder has a cylinder liner fitted into a cylinder hole of the cylinder block, wherein the reaction chamber is a space surrounded by the inner circumferential surface of the cylinder liner, the top surface of the piston housed in the cylinder liner, and the blast surface covering an opening of the cylinder liner on the top side in the cylinder head, characterized in that the highly heat-insulative material is arranged in a predetermined area of the inner circumferential surface of the cylinder liner ranging from the top side edge to a predetermined position on the bottom side, and wherein the highly heat-insulative material protrudes radially inward from the inner circumferential surface of the cylinder liner, wherein said output cylinder is different from said fuel reformation cylinder. at least a part of a surface constituting a volume-variable reaction chamber of the fuel reformation cylinder is made of a highly heat-insulative material, wherein the surface constituting the reaction chamber includes an inner circumferential surface of the fuel reformation cylinder and a top surface of a piston housed in the fuel reformation cylinder in a cylinder block, and a blast surface covering the fuel reformation cylinder in a cylinder head, wherein at least one of these surfaces is made of the highly heat-insulative material, wherein the fuel reformation cylinder has a cylinder liner fitted into a cylinder hole of the cylinder block, wherein the reaction chamber is a space surrounded by the inner circumferential surface of the cylinder liner, the top surface of the piston housed in the cylinder liner, and the blast surface covering an opening of the cylinder liner on the top side in the cylinder head, characterized in that the highly heat-insulative material is arranged in a predetermined area of the inner circumferential surface of the cylinder liner ranging from the top side edge to a predetermined position on the bottom side, and wherein the highly heat-insulative material protrudes radially inward from the inner circumferential surface of the cylinder liner, wherein said output cylinder is different from said fuel reformation cylinder.
A system for measuring skin condition, comprising a microneedle patch with physiologically active substances and an electronic device mounted on the microneedle patch, wherein the physiologically active substance is a compound or a molecule that induces a biological reaction, wherein the electronic device comprising: an irradiation unit; a detection unit; an output unit or a communicator; and a controller configured to: control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light, control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit, generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device. an irradiation unit; a detection unit; an output unit or a communicator; and a controller configured to: control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light, control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit, generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device. control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light, control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit, generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device.
A process for producing a compound represented by formula: wherein Y is a dimethylcarbamoyl group, and R 1 represents a C2-C7 alkoxycarbonyl group, which comprises treating a compound represented by formula: wherein Y has the same meaning as defined above, in a solvent with aqueous ammonia or a solution of ammonia in C1-C4 alcohol and, subsequently, with a di(C1-C6 alkyl) dicarbonate.
A composition for topical use, characterized in that it comprises: - hyaluronic acid of molecular weight of 1000 - 2200 kDa: 0.1% - 1% w/v, or a salt thereof, - hyaluronic acid of molecular weight of 100 - 1000 kDa: 0.05% - 1.5 % w/v, or a salt thereof, - hyaluronic acid of molecular weight lower than 100 kDa: 0.05% - 1.5 % w/v, or a salt thereof, - a water-soluble ester of a natural oil: 5% - 15% w/v - water up to the desired volume, wherein the % w/v values are based on the total volume of the composition.
A self-sealing implant comprising: at least one staple and a buttress, wherein the staple comprises a first reactive component and the buttress comprises a second, complementary reactive component. at least one staple and a buttress, wherein the staple comprises a first reactive component and the buttress comprises a second, complementary reactive component.
A casing joint assembly (300, 400), comprising: a casing joint having an upper end and a lower end; an upper casing section; an upper coupling joint (302a, 402a) for galvanically isolating the casing joint from the upper casing section, the upper coupling joint having a first portion configured to be coupled to the upper casing section and a second portion coupled to the casing joint at the upper end; a joint interface (314, 414) securing the first portion to the second portion, wherein the first portion is made of a first material and the second portion is made of a second material dissimilar to the first material; and an inner coating applied on an inner radial surface of the upper coupling joint and extending axially across at least the joint interface,wherein the first portion is threadably attached to the upper casing section and the second portion is threadably attached to the upper end of the casing joint, characterised in that, the joint interface is formed by at least one of explosively welding and friction stir welding the first portion to the second portion or the joint interface is a threaded interface where the first portion is threadably attached to the second portion, and further characterised in that, the casing joint is made of a third material and the upper casing section is made of a fourth material which is corrosive-resistant and the third material is softer than and dissimilar to the fourth material. a casing joint having an upper end and a lower end; an upper casing section; an upper coupling joint (302a, 402a) for galvanically isolating the casing joint from the upper casing section, the upper coupling joint having a first portion configured to be coupled to the upper casing section and a second portion coupled to the casing joint at the upper end; a joint interface (314, 414) securing the first portion to the second portion, wherein the first portion is made of a first material and the second portion is made of a second material dissimilar to the first material; and an inner coating applied on an inner radial surface of the upper coupling joint and extending axially across at least the joint interface,wherein the first portion is threadably attached to the upper casing section and the second portion is threadably attached to the upper end of the casing joint, characterised in that, the joint interface is formed by at least one of explosively welding and friction stir welding the first portion to the second portion or the joint interface is a threaded interface where the first portion is threadably attached to the second portion, and further characterised in that, the casing joint is made of a third material and the upper casing section is made of a fourth material which is corrosive-resistant and the third material is softer than and dissimilar to the fourth material.
An electric leakage detecting apparatus for detecting electric leakage at first and second wires (93a, 93b), the first wire connecting a first end of a power source to a first end of a load, the second wire connecting a second end of the power source to a second end of the load, the apparatus comprising: a first holder for holding the first wire; a second holder for holding the second wire; a first magnetic element for conducting a first driving current, the first magnetic element being placed on or embedded in the first holder; a second magnetic element for conducting a second driving current, the second magnetic element being placed on or embedded in the second holder; a first detector arranged to detect a difference between a magneto-resistance effect of the first magnetic element and a magneto-resistance effect of the second magnetic element. a first holder for holding the first wire; a second holder for holding the second wire; a first magnetic element for conducting a first driving current, the first magnetic element being placed on or embedded in the first holder; a second magnetic element for conducting a second driving current, the second magnetic element being placed on or embedded in the second holder; a first detector arranged to detect a difference between a magneto-resistance effect of the first magnetic element and a magneto-resistance effect of the second magnetic element.