mhurhangee/ep-ind-claims huggingface dataset:
A control system for a vehicle having a first wheel arranged to be driven by a first drive source and a second wheel arranged to be driven by a second drive source, wherein the first wheel and the second wheel are transversely located on the vehicle relative to each other, the control system comprising a controller and a monitoring device, wherein the monitoring device is arranged to monitor the power differential between the power being applied to the first wheel by the first drive source and the power being applied to the second wheel by the second drive source, wherein upon a determination that the power differential between the power being applied to the first wheel and the second wheel is greater than a predetermined value, the controller is arranged to reduce the power differential, wherein the monitoring device is arranged to monitor the mechanical power generated by the first drive source and the second drive source and electrical power generated by the first drive source and the second drive source to allow the control system to identify a hazard induced yaw condition based upon both a mechanical power differential and an electrical power differential.
A body support structure comprising: a molded polymeric support grid (12, 14) having a three-dimensional molded contour, said support grid (12, 14) comprising a body support region (34, 36, 38, 40, 42) having a plurality of through openings (20, 22) separated by a plurality of lands (24, 26), wherein said polymeric support grid (12, 14) has an outer peripheral edge, and wherein a ratio of a surface area of the lands (24, 26) relative to an area defined by said outer peripheral edge is less than or equal to 0.74; and a fabric layer (16, 18) directly bonded to said plurality of lands (24, 26) and covering said plurality of openings (20, 22), wherein said fabric layer (16, 18) maintains the shape of said through openings (20, 22) when said body support structure is loaded, wherein said support grid (12, 14) and said fabric layer (16, 18) are self-supporting. a molded polymeric support grid (12, 14) having a three-dimensional molded contour, said support grid (12, 14) comprising a body support region (34, 36, 38, 40, 42) having a plurality of through openings (20, 22) separated by a plurality of lands (24, 26), wherein said polymeric support grid (12, 14) has an outer peripheral edge, and wherein a ratio of a surface area of the lands (24, 26) relative to an area defined by said outer peripheral edge is less than or equal to 0.74; and a fabric layer (16, 18) directly bonded to said plurality of lands (24, 26) and covering said plurality of openings (20, 22), wherein said fabric layer (16, 18) maintains the shape of said through openings (20, 22) when said body support structure is loaded, wherein said support grid (12, 14) and said fabric layer (16, 18) are self-supporting.
A method for producing a conductive element precursor, the method comprising the following steps: growing a plurality of carbon nanotubes on a metallic substrate; applying a shear force to the plurality of carbon nanotubes on the metallic substrate in a first direction; and coating carbon nanotubes of the plurality of carbon nanotubes on the metallic substrate with a metallic material. growing a plurality of carbon nanotubes on a metallic substrate; applying a shear force to the plurality of carbon nanotubes on the metallic substrate in a first direction; and coating carbon nanotubes of the plurality of carbon nanotubes on the metallic substrate with a metallic material.
A reinforced resin composition comprising: a polycarbonate in an amount ranging from 75 to 99 percent by weight of the resin composition; a functionalizing agent; and an inorganic filler functionalized with the functionalizing agent, the functionalized inorganic filler being present in an amount ranging from 1 to 25 percent by weight of the resin composition, wherein the reinforced resin exhibits a melt flow index of 25 grams or less, when measured at a load of 1.2 kg, after allowing the resin to remain at a temperature of 300°C for 10 minutes, wherein the functionalizing agent comprises at least one organo-modified silane chosen from a methacrylate-silane (MEMO-silane), a vinyl silane, a phenyl silane, an epoxy silane, and combinations thereof, optionally wherein the functionalizing agent further comprises at least one of modified styrene acrylic polymer, monomeric carbodimide, and polymeric carbodimide; or wherein the functionalizing agent comprises at least one of modified styrene acrylic polymer, monomeric carbodimide, and polymeric carbodimide. a polycarbonate in an amount ranging from 75 to 99 percent by weight of the resin composition; a functionalizing agent; and an inorganic filler functionalized with the functionalizing agent, the functionalized inorganic filler being present in an amount ranging from 1 to 25 percent by weight of the resin composition, wherein the reinforced resin exhibits a melt flow index of 25 grams or less, when measured at a load of 1.2 kg, after allowing the resin to remain at a temperature of 300°C for 10 minutes, wherein the functionalizing agent comprises at least one organo-modified silane chosen from a methacrylate-silane (MEMO-silane), a vinyl silane, a phenyl silane, an epoxy silane, and combinations thereof, optionally wherein the functionalizing agent further comprises at least one of modified styrene acrylic polymer, monomeric carbodimide, and polymeric carbodimide; or wherein the functionalizing agent comprises at least one of modified styrene acrylic polymer, monomeric carbodimide, and polymeric carbodimide.
A lead (5, 5', 5", 45, 60, 60') for an electronic device which resists the induction of a current from an electromagnetic field external to said lead, comprising: one or more pairs of adjacent segments of electrical wire (25, 25; 25', 25'), each of said pairs (25, 25; 25', 25') including a first segment of electrical wire (25; 25') and a second segment (25; 25') of electrical wire; and one or more shielded RF chokes (30, 30', 30", 47), each of said shielded RF chokes being provided between the first segment of electrical wire (25; 25') and the second segment of electrical wire (25; 25') of a respective one of said one or more pairs of adjacent segments (25, 25; 25', 25') and having a first end operatively coupled to the first segment of electrical wire (25; 25') and a second end operatively coupled to the second segment of electrical wire (25; 25') of the respective one of said one or more pairs of adjacent segments (25, 25; 25', 25'), wherein each of the one or more shielded RF chokes (30, 30', 30", 47) comprises either a) an inductor covered by at least one layer of conductive shielding material (35, 35A, 35B) or b) a toroidal inductor including a torus-shaped coil wrapped around a doughnut-shaped core. one or more pairs of adjacent segments of electrical wire (25, 25; 25', 25'), each of said pairs (25, 25; 25', 25') including a first segment of electrical wire (25; 25') and a second segment (25; 25') of electrical wire; and one or more shielded RF chokes (30, 30', 30", 47), each of said shielded RF chokes being provided between the first segment of electrical wire (25; 25') and the second segment of electrical wire (25; 25') of a respective one of said one or more pairs of adjacent segments (25, 25; 25', 25') and having a first end operatively coupled to the first segment of electrical wire (25; 25') and a second end operatively coupled to the second segment of electrical wire (25; 25') of the respective one of said one or more pairs of adjacent segments (25, 25; 25', 25'), wherein each of the one or more shielded RF chokes (30, 30', 30", 47) comprises either a) an inductor covered by at least one layer of conductive shielding material (35, 35A, 35B) or b) a toroidal inductor including a torus-shaped coil wrapped around a doughnut-shaped core.
A rectifier unit, including: at least one spacer, and at least one rectifier; said spacer having an annular concave portion at one end face, which annular concave portion is adapted to accept said rectifier that is adapted to rectify fluid flowing through a flow channel in a flowmeter, a protruding annular convex portion at the other end face, which protruding annular convex portion is of a size adapted to fit in said annular concave portion, and fixing means on an outer surface, said fixing means being adapted to fix said spacer to a tube of said flow channel through engagement, wherein said rectifier unit is formed such that, by integrating said spacer and said rectifier, plural integrated units of spacers and rectifiers can be provided alternately in series, in an axial direction, to form a tubular unit. at least one spacer, and at least one rectifier; an annular concave portion at one end face, which annular concave portion is adapted to accept said rectifier that is adapted to rectify fluid flowing through a flow channel in a flowmeter, a protruding annular convex portion at the other end face, which protruding annular convex portion is of a size adapted to fit in said annular concave portion, and fixing means on an outer surface, said fixing means being adapted to fix said spacer to a tube of said flow channel through engagement,
An electronic device comprising: a memory; a communication unit comprising communication circuitry; and a processor functionally connected to the communication unit, wherein the processor is configured to: receive (517, 817) first virtual biometric information transmitted from an external device; store (519, 819) the first virtual biometric information in the memory; and set a right to unlock or implement a specific function on the electronic device corresponding to the first virtual biometric information stored in the memory; and the electronic device being characterized in that the processor is further configured to: transmit (1115, 1415) a request for second virtual biometric information to the external device; receive (1117, 1417) the second virtual biometric information from the external device; and perform (1119, 1419) authentication based on the first virtual biometric information and the second virtual biometric information. a memory; a communication unit comprising communication circuitry; and a processor functionally connected to the communication unit, wherein the processor is configured to: receive (517, 817) first virtual biometric information transmitted from an external device; store (519, 819) the first virtual biometric information in the memory; and set a right to unlock or implement a specific function on the electronic device corresponding to the first virtual biometric information stored in the memory; and the electronic device being characterized in that the processor is further configured to: transmit (1115, 1415) a request for second virtual biometric information to the external device; receive (1117, 1417) the second virtual biometric information from the external device; and perform (1119, 1419) authentication based on the first virtual biometric information and the second virtual biometric information. receive (517, 817) first virtual biometric information transmitted from an external device; store (519, 819) the first virtual biometric information in the memory; and set a right to unlock or implement a specific function on the electronic device corresponding to the first virtual biometric information stored in the memory; and the electronic device being characterized in that the processor is further configured to: transmit (1115, 1415) a request for second virtual biometric information to the external device; receive (1117, 1417) the second virtual biometric information from the external device; and perform (1119, 1419) authentication based on the first virtual biometric information and the second virtual biometric information. transmit (1115, 1415) a request for second virtual biometric information to the external device; receive (1117, 1417) the second virtual biometric information from the external device; and perform (1119, 1419) authentication based on the first virtual biometric information and the second virtual biometric information.
A headrest for a seat, in particular for a vehicle seat, comprising a head support part, which can be supported on a vehicle seat by a mounting assembly, wherein the mounting assembly comprises a linkage comprising a first holding element, assigned to the head support part, and a second holding element, fixed to the seat part, wherein the first holding element and the second holding element are connected to one another by means of links (19a, 19b, 20a, 20b) in such a way that at least one four-pivot linkage (27a, 27b) is formed by means of which the head support part can be adjusted relative to the vehicle seat between a front position moved forward toward the head of a seat occupant, and a rear position moved backward, characterized in that the head support part can be moved relative to the vehicle seat between an upper position and a lower position by a height-adjusting device, whereby the height-adjusting device comprises at least one support rod (12a, 12b) connected to the head support part, and at least one link, which is assigned to the first holding element, for storing and guiding the support bar (12a, 12b).
Aerosol-generating system comprising: - a capsule comprising a shell comprising a base and at least one side wall extending from the base, the capsule further comprising a lid sealed on the at least one side wall for forming a sealed capsule, the shell containing an aerosol-forming substrate and the shell comprising susceptor material for heating the aerosol-forming substrate within the shell; - a power source connected to a load network, the load network comprising an inductor for being inductively coupled to the susceptor material of the shell, further comprising a thermal insulation layer at least partially surrounding the susceptor material of the shell. - a capsule comprising a shell comprising a base and at least one side wall extending from the base, the capsule further comprising a lid sealed on the at least one side wall for forming a sealed capsule, the shell containing an aerosol-forming substrate and the shell comprising susceptor material for heating the aerosol-forming substrate within the shell; - a power source connected to a load network, the load network comprising an inductor for being inductively coupled to the susceptor material of the shell, further comprising a thermal insulation layer at least partially surrounding the susceptor material of the shell.
An isoprene synthase-expressing microorganism that exhibits improved expression of pyrophosphate phosphatase, wherein an expression unit comprising a polynucleotide encoding the isoprene synthase is introduced into the isoprene synthase-expressing microorganism, and the expression of pyrophosphate phosphatase is improved by modifying a promoter region of a pyrophosphate phosphatase gene inherent to the isoprene synthase-expressing microorganism, or by transforming the isoprene synthase-expressing microorganism with a pyrophosphate phosphatase expression vector to introduce an expression unit comprising a polynucleotide encoding pyrophosphate phosphatase into the isoprene synthase-expressing microorganism.
A light-guided high brake lamp for a vehicle with bidirectional light comprising a mask and a housing, said mask being fixedly covered on said housing, a containing chamber provided between said mask and said housing, a light guide; wherein at least two light sources (31, 32) and a circuit board assembly are provided in said containing chamber, said at least two light sources (31,32) being located at two ends of the light guide to form opposing beams illuminating the light guide; characterised in that the inside of the housing is provided with a slot for securing the light sources (31, 32) and the circuit board assembly; wherein the light guide and the housing are assembled by a snap fastener.
A method for displaying an image, the method comprising the steps of: providing an illumination from an array of light-emitting elements (51, 52) each having a controllable light output; and illuminating a spatial light modulator (20, 36) comprising a plurality of controllable elements (21A, 21B, 42, 43R, 43G, 43B) each having a controllable transmissivity with the illumination; characterized by: detecting a failure of one of the light emitting elements, and, in response to detecting a failed light emitting element, compensating for the failed light emitting element by increasing the light output of light emitting elements neighboring the failed light emitting element and adjusting transmissivities of ones of the controllable elements of the spatial light modulator which correspond to the failed light emitting element and upon which light from the neighboring ones of the light emitting elements is incident. providing an illumination from an array of light-emitting elements (51, 52) each having a controllable light output; and illuminating a spatial light modulator (20, 36) comprising a plurality of controllable elements (21A, 21B, 42, 43R, 43G, 43B) each having a controllable transmissivity with the illumination; characterized by: detecting a failure of one of the light emitting elements, and, in response to detecting a failed light emitting element, compensating for the failed light emitting element by increasing the light output of light emitting elements neighboring the failed light emitting element and adjusting transmissivities of ones of the controllable elements of the spatial light modulator which correspond to the failed light emitting element and upon which light from the neighboring ones of the light emitting elements is incident.
Method for operating a system, wherein the system comprises a component (1, 15), wherein the component (1, 15) may be subject to buildup, wherein the component (1, 15) is assigned a sensor and a first excitation unit, wherein the first excitation unit imparts a first vibration to the component (1, 15), wherein the sensor detects the first vibration of the component (1, 15) and the sensor provides a sensor signal to a control device, wherein it is determined on the basis of analysis of the sensor signal whether the component (1, 15) has buildup, wherein it is determined on the basis of the sensor signal whether a buildup is present on the component (1, 15) and, if a buildup is detected, the buildup is removed by applying a second vibration.
Tool combination comprising a chisel holder, which can be fastened to a milling drum of a soil cultivating machine, and at least one leading and one trailing chisel (20, 30, 31), which are held on the chisel holder, wherein the trailing chisel (30, 31) being arranged behind the leading chisel with respect to a working movement of the tool combination during use in the soil cultivating machine, and each chisel (20, 30, 31) having a chisel tip (22, 32) with a cutting edge (23, 35), characterized in that the trailing chisel tip of the trailing chisel (30, 31) has, at least in regions, a greater hardness than the leading chisel tip of the leading chisel, that the leading chisel and the trailing chisel (30, 31) are designed and arranged on the chisel holder in such a way that, in the case of a tool combination mounted on a milling drum, the leading cutting edge of the leading chisel tip of the leading chisel is arranged on a larger radius relative to an axis of rotation (15. 1) of the milling drum than the trailing cutting edge of the trailing chisel tip of the trailing chisel (30, 31) or in that the two cutting edges are arranged on substantially the same radii.
Lysate of at least one microorganism of the genus Bifidobacterium in an efficient amount for use thereof to prevent and/or treat a skin disorder of sensitive skin, said lysate being formed of all intracellular biological constituents and the constituents of cell walls and membranes.
A horizontal axis wind turbine comprising a tower, a nacelle mounted on the tower via a yaw system, a hub mounted rotatably on the nacelle, the hub comprising a blade carrying structure, and one or more wind turbine blades connected to the blade carrying structure, wherein each of the wind turbine blades defines an inner tip end and an outer tip end, and wherein each of the wind turbine blades is connected to the blade carrying structure via a hinge at a hinge position of the wind turbine blade, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, wherein the wind turbine further comprises a stop mechanism arranged to move the wind turbine blades to a safe pivot angle in the case of an emergency, the stop mechanism comprising a release mechanism (8, 12, 14) and at least one wire (9, 10) interconnecting the release mechanism (8, 12, 14) and each of the wind turbine blades, wherein activation of the release mechanism (8, 12, 14) causes an abrupt change in a pulling force applied to the wind turbine blades by the wire(s) (9, 10), the change in pulling force causing the wind turbine blades to move immediately to the safe pivot angle.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one longitudinal slit, in which slit at least one longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for a rod-like extension of an oscillating arm, wherein said rod-like extension can be pivotally connected to said connecting device about a pivot axis near a free end thereof, wherein said connecting device comprises a first part and a second part, wherein said rod-like extension of said oscillating arm can be pivotally connected to said first part about said pivot axis, with the interposition of said second part, wherein said first part is connected to said wiper blade and said second part is detachably snapped onto said first part, wherein said second part comprises a channel arranged to receive said free end of said rod-like extension, and wherein said second part has a U-shaped cross-section having an inclined base and two legs (13,14) extending downwardly from said base, characterised in that said second part comprises reinforcement means to arrange that bending locations of said legs (13,14) upon snapping said second part onto said first part lie in the same horizontal plane, wherein said legs (13,14) have the same height and the same thickness below said horizontal plane.
A slitter-winder for fiber webs, which comprises an unwinding section, a slitting section and a winding section, characterized in that the slitter-winder is configured to unwind, slit and wind a thick fiber web to customer rolls, that the thick fiber web has basic weight of at least 200 g/m 2, that the unwinding section of the slitter-winder comprises a first unwinder and a second unwinder for unwinding the thick fiber web of from a parent roll comprising full-width thick fiber web (W11, W12), and a joining device (16, 17) for joining a beginning end of a thick fiber web coming from a parent roll in the first unwinder to an end of a thick fiber web coming from a parent roll in the second unwinder by forming a joint, and that the winding section of the slitter-winder comprises a cutting device for cutting and removing part/-s of the thick fiber web comprising the joint from the winding section. that the thick fiber web has basic weight of at least 200 g/m 2, that the unwinding section of the slitter-winder comprises a first unwinder and a second unwinder for unwinding the thick fiber web of from a parent roll comprising full-width thick fiber web (W11, W12), and a joining device (16, 17) for joining a beginning end of a thick fiber web coming from a parent roll in the first unwinder to an end of a thick fiber web coming from a parent roll in the second unwinder by forming a joint, and that the winding section of the slitter-winder comprises a cutting device for cutting and removing part/-s of the thick fiber web comprising the joint from the winding section.