mhurhangee/ep-ind-claims huggingface dataset:
Carrier arrangement for a trailer hitch or a load carrier, comprising a cross member (11; 111; 211; 311) and side support (12, 112; 212; 312) attached to the cross member (11; 111; 211; 311) for mounting on a rear of a chassis of a vehicle, and at least one bracket (15; 215; 315) arranged on the cross member (11; 111; 211; 311) for a trailer hitch or for a coupling part of a load carrier, wherein the cross member (11; 111; 211; 311) extends along a longitudinal extension, wherein the carrier arrangement (10; 110; 210; 310) has at least one support component with a base body (16; 116; 216, 316) which has a load-bearing wall and a rib structure (30; 230; 330) formed integral on to the load-bearing wall by a primary forming process, in particular by a casting process, and/or a forming procedure, in particular by extrusion and/or by forging, and wherein the support component forms a component part of the cross member (11; 111; 211; 311) and extends to the lateral centre of the cross member (11; 111; 211; 311) wherein the base body (16; 116; 216, 316) has at least a second wall at an angle to the load-bearing wall wherein the load-bearing wall and the second wall extend along the longitudinal extension and the rib structure (30; 230; 330) is formed in the primary forming process or by casting integrally on to the at least second wall, characterised in that the load-bearing wall forms a component part of a supporting wall arrangement which surrounds an inner space in which the rib structure is arranged and whose walls are arranged in a U-shape and that the ribs are joined together.
A sensor package, comprising; a sensor portion (30, 42) including an upper surface defining a sensor interlock feature (34; 36; 46); and a mold package (28; 70) including a lower surface defining a mold package interlock feature, wherein the mold package interlock feature is interlocked with the sensor interlock feature (34; 36; 46); characterized in that the sensor interlock feature (34; 36; 46) comprises a first trench extending downwardly from the upper surface; and the mold package interlock feature comprises a downwardly extending first portion positioned within the first trench.
An article of footwear, comprising: an upper including a throat, a first side, and a second side spaced apart from the first side along the throat by a throat opening, wherein the first side is comprised of: an inner layer; and an outer layer, the inner layer and the outer layer forming an interior cavity therebetween; a sole structure, the sole structure and the upper forming an interior void to receive a foot of a wearer, the inner layer proximate the interior void relative to the outer layer; a plurality of strap members secured between the first side and the second side of the upper and over the throat opening; a lace guide assembly disposed inside the interior cavity, the lace guide assembly including a lower guide member and an upper guide member, wherein the upper guide member is attached to the plurality of strap members; a tensioning member extending through the lower guide member and the upper guide member; and a tensioning device comprising a motor, a power source and a reel member coupled with the motor, wherein at least one portion of the tensioning member is secured to the reel member and can be wound on the reel member using the motor, wherein applying tension to the tensioning member applies tension to each one of the plurality of strap members. an upper including a throat, a first side, and a second side spaced apart from the first side along the throat by a throat opening, wherein the first side is comprised of: an inner layer; and an outer layer, the inner layer and the outer layer forming an interior cavity therebetween; an inner layer; and an outer layer, the inner layer and the outer layer forming an interior cavity therebetween; a sole structure, the sole structure and the upper forming an interior void to receive a foot of a wearer, the inner layer proximate the interior void relative to the outer layer; a plurality of strap members secured between the first side and the second side of the upper and over the throat opening; a lace guide assembly disposed inside the interior cavity, the lace guide assembly including a lower guide member and an upper guide member, wherein the upper guide member is attached to the plurality of strap members; a tensioning member extending through the lower guide member and the upper guide member; and a tensioning device comprising a motor, a power source and a reel member coupled with the motor, wherein at least one portion of the tensioning member is secured to the reel member and can be wound on the reel member using the motor, wherein applying tension to the tensioning member applies tension to each one of the plurality of strap members.
A computer implemented method comprising: receiving a video including a plurality of frames, the video captured by a physical camera at a first point of view, wherein the video includes depth information corresponding to the plurality of frames; detecting a face within the video, wherein the face is within a foreground portion of the plurality of frames; determining the foreground portion of the plurality of frames based on one or more depth values of the depth information corresponding to the plurality of frames; characterized by positioning a virtual camera at a second point of view, wherein the second point of view is different from the first point of view; obtaining a projection matrix of the foreground portion, which is based on the virtual camera, such that the projection matrix corresponds to the second point of view; and generating a modified video that includes a modified foreground portion based on the projection matrix by applying the projection matrix to re-project the foreground portion and correct a face pose. receiving a video including a plurality of frames, the video captured by a physical camera at a first point of view, wherein the video includes depth information corresponding to the plurality of frames; detecting a face within the video, wherein the face is within a foreground portion of the plurality of frames; determining the foreground portion of the plurality of frames based on one or more depth values of the depth information corresponding to the plurality of frames; characterized by positioning a virtual camera at a second point of view, wherein the second point of view is different from the first point of view; obtaining a projection matrix of the foreground portion, which is based on the virtual camera, such that the projection matrix corresponds to the second point of view; and generating a modified video that includes a modified foreground portion based on the projection matrix by applying the projection matrix to re-project the foreground portion and correct a face pose.
Electric drive for a motor vehicle comprising an electric motor and a drive unit driveable by the electric motor, wherein the drive unit has a planetary drive and a differential drive, which are arranged coaxially to a rotational axis, wherein the planetary drive comprises a ring gear, a sun gear, a multitude of planet gears as well as a planet carrier, wherein the ring gear is rotatingly driveable by the electric motor around the rotational axis, wherein the sun gear is supportable or supported on a stationary component against rotation, and wherein the planet carrier is connected to a differential carrier of the differential drive, characterized in that the ring gear of the planetary drive is firmly connected to a housing, which housing is rotatingly driveable by the electric motor, wherein the planetary drive and the differential drive are arranged in said rotatingly driveable housing.
A system for correcting a second order intermodulation product in a direct conversion receiver, comprising: a cross-covariance system (214, 216) for receiving a data signal and a detected envelope signal and generating a cross-covariance value; an auto-covariance system for receiving the detected envelope signal and generating an auto covariance value; buffering and dividing means (220, 222) for receiving the cross-covariance value and the auto-covariance value, dividing the cross-covariance value by the auto-covariance value, and generating a running average second order intermodulation product correction factor; a multiplier for multiplying the detected envelope signal and the running average second order intermodulation product correction factor to generate a correction signal; and a subtractor for subtracting the correction signal from the data signal to generate a corrected data signal. a cross-covariance system (214, 216) for receiving a data signal and a detected envelope signal and generating a cross-covariance value; an auto-covariance system for receiving the detected envelope signal and generating an auto covariance value; buffering and dividing means (220, 222) for receiving the cross-covariance value and the auto-covariance value, dividing the cross-covariance value by the auto-covariance value, and generating a running average second order intermodulation product correction factor; a multiplier for multiplying the detected envelope signal and the running average second order intermodulation product correction factor to generate a correction signal; and a subtractor for subtracting the correction signal from the data signal to generate a corrected data signal.
A method for cargo security comprising: detecting, by a plurality of smart containers each comprising at least one sensor (114, 118-126) for sensing environmental conditions and each in corresponding relation to a dumb container that excludes the at least one sensor, at least one event for the dumb container, wherein the at least one event includes at least one of an audio, a light, a vibration, a radiation, and a chemical based occurrence; associating the at least one event with the dumb container in at least one database; and determining, by at least one computer in communication with the at least one database, a threat level for the dumb container based on the at least one event detected by the plurality of smart containers, wherein the plurality of smart containers communicate with the at least one computer via at least one transmitter (110, 132). detecting, by a plurality of smart containers each comprising at least one sensor (114, 118-126) for sensing environmental conditions and each in corresponding relation to a dumb container that excludes the at least one sensor, at least one event for the dumb container, wherein the at least one event includes at least one of an audio, a light, a vibration, a radiation, and a chemical based occurrence; associating the at least one event with the dumb container in at least one database; and determining, by at least one computer in communication with the at least one database, a threat level for the dumb container based on the at least one event detected by the plurality of smart containers, wherein the plurality of smart containers communicate with the at least one computer via at least one transmitter (110, 132).
A dent removing device for removing of dents in ferromagnetic sheet metals by way of inductive heating, said dent removing device comprising a working head with: a. a housing with at least one working face foreseen to be brought in close contact with a dent in a sheet metal; b. at least one magnetic field generator for generating a magnetic field; characterised in that c. the magnetic field generator comprises a substantially U-shaped core, said core comprising a first and second leg and a yoke portion and at least one electrical coil is connected to the core, d. the at least one working face comprises a recess for visual control of the dent removing process; e. said recess extending at least partially across the at least one working face. a. a housing with at least one working face foreseen to be brought in close contact with a dent in a sheet metal; b. at least one magnetic field generator for generating a magnetic field; c. the magnetic field generator comprises a substantially U-shaped core, said core comprising a first and second leg and a yoke portion and at least one electrical coil is connected to the core, d. the at least one working face comprises a recess for visual control of the dent removing process; e. said recess extending at least partially across the at least one working face.
A system comprising: - an emitting means, arranged to emit non-monochromatic light pulses called a pump wave (S p), and to further emit light pulses called an input signal wave (S 0); - a stretcher, called a second stretcher, arranged to receive as an input the input signal wave (S 0), and to output chirped pulses called a stretched signal wave (S 0e); - a waveguide arranged to receive as an input the chirped pulses called a stretched signal wave (S 0e), and to provide an output signal wave (S Ae) resulting from a four wave mixing; and - a compressor, arranged to temporally compress the output signal wave (S Ae); characterised by: - a means for shaping a wave comprising a first stretcher, arranged to receive as an input the pump wave (S p), and to output a stretched pump wave (S pe); the waveguide being arranged to further receive as an input the stretched pump wave (S pe), and the waveguide, the emitting means, and the shaping means forming together an optical parametric chirped pulse amplification device. - an emitting means, arranged to emit non-monochromatic light pulses called a pump wave (S p), and to further emit light pulses called an input signal wave (S 0); - a stretcher, called a second stretcher, arranged to receive as an input the input signal wave (S 0), and to output chirped pulses called a stretched signal wave (S 0e); - a waveguide arranged to receive as an input the chirped pulses called a stretched signal wave (S 0e), and to provide an output signal wave (S Ae) resulting from a four wave mixing; and - a compressor, arranged to temporally compress the output signal wave (S Ae); - a means for shaping a wave comprising a first stretcher, arranged to receive as an input the pump wave (S p), and to output a stretched pump wave (S pe);
A reversible thermochromic coating comprising, a reversible thermochromic pigment including thermochromic microcapsules which encapsulate a core that contains a thermochromic system including a thermochromic dye, a developer, and a solvent, said reversible thermochromic pigment in an amount ranging from 1% to 50% by weight of said reversible thermochromic coating, and a vehicle forming the balance of the coating, said vehicle including a resin selected from the group consisting of epoxy, polyester, urethane, acrylic acid and acrylate resins, and combinations thereof, wherein said reversible thermochromic coating coats coil stock aluminum or steel.
Vehicle awning comprising an awning cloth and awning arms (3, 3', 3", 3"') which are mounted at one of the ends thereof so as to be pivotable about a pivot axis (S1, S2), characterized in that the pivot axis (S1, S2) of at least two awning arms (3, 3'); (3", 3"') matches and the pivot axis at least two awning arms (3, 3"); (3', 3"') does not match, and awning arms (3, 3', 3", 3"') are arranged side by side and one above the other when the awning is in the closed state.
A single phase oral care composition comprising: a whitening agent, wherein the whitening agent is a solid whitening agent selected from peroxides, metal chlorites, and persulfates; an abrasive comprising sodium metaphosphate; an anticalculus agent; and a carrier; wherein the carrier has a total water content of less than 4%, by weight and comprises an ethylene oxide/propylene oxide copolymer, wherein the composition does not comprise calcium pyrophosphate. a whitening agent, wherein the whitening agent is a solid whitening agent selected from peroxides, metal chlorites, and persulfates; an abrasive comprising sodium metaphosphate; an anticalculus agent; and a carrier; wherein the carrier has a total water content of less than 4%, by weight and comprises an ethylene oxide/propylene oxide copolymer, wherein the composition does not comprise calcium pyrophosphate.
User equipment, comprising: a transceiver module, configured to receive configuration information, wherein the configuration information is used to configure at least one physical resource block, PRB, bundling size; and a processing module, configured to determine a precoding resource block group, PRG, size based on a preset indication rule and the at least one PRB bundling size, wherein the at least one PRB bundling size comprises a plurality of PRB bundling sizes, and the PRG size is a PRB bundling size that is in the plurality of PRB bundling sizes, wherein the preset indication rule is one of the following rules: a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes. a transceiver module, configured to receive configuration information, wherein the configuration information is used to configure at least one physical resource block, PRB, bundling size; and a processing module, configured to determine a precoding resource block group, PRG, size based on a preset indication rule and the at least one PRB bundling size, wherein the at least one PRB bundling size comprises a plurality of PRB bundling sizes, and the PRG size is a PRB bundling size that is in the plurality of PRB bundling sizes, wherein the preset indication rule is one of the following rules: a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes. a rule 1: a maximum value of the plurality of PRB bundling sizes is used as the PRG size; a rule 2: a minimum value of the plurality of PRB bundling sizes is used as the PRG size; and a rule 3: in the plurality of PRB bundling sizes, a PRB bundling size whose arrangement location is a preset location is used as the PRG size, wherein the arrangement location is a location in a sequentially arranged list of bundling sizes.
A process for making a milk product having a protein content higher than 3.5% v/v comprising: (i) providing skimmed milk from the separation of raw milk; (ii) subjecting the skimmed milk to centrifugal separation to obtain centrifugate which contains micro-organisms; (iii) subjecting the centrifugate to heat treatment above 100° centigrade, and cooling to obtain a milk protein concentrate; (iv) providing skimmed milk; and (v) mixing the milk protein concentrate with the skimmed milk to obtain a milk product having a protein content higher than 3.5% v/v. (i) providing skimmed milk from the separation of raw milk; (ii) subjecting the skimmed milk to centrifugal separation to obtain centrifugate which contains micro-organisms; (iii) subjecting the centrifugate to heat treatment above 100° centigrade, and cooling to obtain a milk protein concentrate; (iv) providing skimmed milk; and (v) mixing the milk protein concentrate with the skimmed milk to obtain a milk product having a protein content higher than 3.5% v/v.
A seat backrest for a motor vehicle, the backrest comprising: - a supporting structure comprising: a) a rear plate having a peripheral edge and comprising a coupling portion, which is arranged along at least part of said peripheral edge; b) a front frame, which is arranged on said rear plate; c) snap-on connecting means, which couple said front frame to said rear plate in a fixed position and comprise a plurality of appendages, which are elastically deformable and are carried by said rear plate in positions that are spaced apart from one another; - a padding, which is supported by said supporting structure; - a cover, which covers said padding and comprises an end, which is fixed to said coupling portion; characterized in that said supporting structure comprises a plurality of brackets, which are fixed to said rear plate and comprise respective stiffening portions, which are arranged at said coupling portion; at least some of said brackets comprising said appendages. - a supporting structure comprising: a) a rear plate having a peripheral edge and comprising a coupling portion, which is arranged along at least part of said peripheral edge; b) a front frame, which is arranged on said rear plate; c) snap-on connecting means, which couple said front frame to said rear plate in a fixed position and comprise a plurality of appendages, which are elastically deformable and are carried by said rear plate in positions that are spaced apart from one another; a) a rear plate having a peripheral edge and comprising a coupling portion, which is arranged along at least part of said peripheral edge; b) a front frame, which is arranged on said rear plate; c) snap-on connecting means, which couple said front frame to said rear plate in a fixed position and comprise a plurality of appendages, which are elastically deformable and are carried by said rear plate in positions that are spaced apart from one another; - a padding, which is supported by said supporting structure; - a cover, which covers said padding and comprises an end, which is fixed to said coupling portion;
A dynamic air supply system for controlling ventilation in a clean room, wherein the clean room comprises a clean area subject to contamination, comprising: - a radiant panel, - a first air supply diffuser and a second air supply diffuser, and - a controller coupled with the air supply diffusers for controlling the air supply, char act e r i zed in that the radiant panel, the first air supply diffuser and the second air supply diffuser are arranged to be installed within a ceiling of a clean room and above the clean area so that - the first air supply diffuser and the second air supply diffuser are arranged on opposite sides of the radiant panel, - the first air supply diffuser and the second air supply diffuser are arranged to diffuse air flows along the radiant panel and towards the clean area, - the controller is configured to change the air supply diffusers between nursing mode and normal mode, wherein - the supply air volume in normal mode is 10-65% of the supply air volume in nursing mode. - a radiant panel, - a first air supply diffuser and a second air supply diffuser, and - a controller coupled with the air supply diffusers for controlling the air supply, the radiant panel, the first air supply diffuser and the second air supply diffuser are arranged to be installed within a ceiling of a clean room and above the clean area so that - the first air supply diffuser and the second air supply diffuser are arranged on opposite sides of the radiant panel, - the first air supply diffuser and the second air supply diffuser are arranged to diffuse air flows along the radiant panel and towards the clean area, - the controller is configured to change the air supply diffusers between nursing mode and normal mode, wherein - the supply air volume in normal mode is 10-65% of the supply air volume in nursing mode. - the first air supply diffuser and the second air supply diffuser are arranged on opposite sides of the radiant panel, - the first air supply diffuser and the second air supply diffuser are arranged to diffuse air flows along the radiant panel and towards the clean area, - the controller is configured to change the air supply diffusers between nursing mode and normal mode, wherein - the supply air volume in normal mode is 10-65% of the supply air volume in nursing mode.