mhurhangee/ep-ind-claims huggingface dataset:
A fan guard (60, 160) constructed by a plurality of wire rods, wherein a plurality of large-diameter wire rods (70, 80) and a plurality of small-diameter wire rods (90, 91) are arranged so as to intersect to one another, and the small-diameter wire rods are arranged in a grid pattern between the large-diameter wire rods, wherein a side surface side frame member has a plurality of lateral-side large-diameter wire rods extending in parallel to a ventilation surface portion and a plurality of side surface side small-diameter wire rods fixed to the lateral-side large-diameter wire rods; a front-and-rear side frame member has a plurality of longitudinal-side large-diameter wire rods extending in parallel to the ventilation surface portion, and plural side surface side small-diameter wire rods fixed to the longitudinal-side large-diameter wire rods; a small-diameter grid member is formed in a grid pattern by combining a plurality of lateral-side small-diameter wire rods which are arranged in parallel to one another so as to be spaced from one another at predetermined intervals and which are arranged on a plurality of longitudinal-side small-diameter wire rods which are arranged in parallel to one another so as to be spaced from one another at predetermined intervals so that the lateral-side small-diameter wire rods are perpendicular to the longitudinal-side small-diameter wire rods; and the fan guard is formed by setting the small-diameter grid member on support portions of the respective longitudinal-side large-diameter wire rods of the front-and-rear side frame member such that the longitudinal-side small-diameter wire rods are arranged in parallel to the longitudinal-side large-diameter wire rods and subsequently covering the side surface side frame member on the small-diameter grid member from the upper side of the small-diameter grid member so that the lateral-side large-diameter wire rods are perpendicular to the longitudinal-side large-diameter wire rods, and the front-and-rear side frame member, the small-diameter grid member and the side surface side frame member are joined to one another at the contact portions of the cross points thereof by spot welding.
A blade comprising: an airfoil having a leading edge, a trailing edge, a pressure side, and a suction side and extending from an inboard end to a tip; and an attachment root, wherein: the blade comprises an aluminum or aluminum alloy substrate and a coating at the tip; and the coating comprises an anodized layer being a layer formed by controlled electrolytic conversion of the substrate material, atop the substrate and an aluminum oxide layer, formed by thermal spraying, atop the anodized layer. an airfoil having a leading edge, a trailing edge, a pressure side, and a suction side and extending from an inboard end to a tip; and an attachment root, the blade comprises an aluminum or aluminum alloy substrate and a coating at the tip; and the coating comprises an anodized layer being a layer formed by controlled electrolytic conversion of the substrate material, atop the substrate and an aluminum oxide layer, formed by thermal spraying, atop the anodized layer.
Method for operating a cooking appliance, food being treated on at least one food support by means of at least one treatment device in at least one cooking chamber and the treatment device being controlled according to at least one treatment program by means of at least one control device, characterised in that, in order to take into account an influence of the food support on the treatment of the food, at least one characteristic variable for the food support is ascertained and provided to the control device, and in that, for this purpose, high-frequency measuring radiation having at least two frequencies of between 100 megahertz and 10 terahertz that differ from one another by at least 100 MHz is emitted into the cooking chamber, received again and evaluated, and in that at least one scattering parameter for the measuring radiation which is reflected, transmitted or absorbed in the cooking chamber is determined according to frequency on the basis of at least one comparison of the received measuring radiation with the emitted measuring radiation, and in that the characteristic variable for the food support is ascertained on the basis of the scattering parameter.
Firearm having a barrel, a sliding block, a bolt head, a firing pin with a flange-like collar, a firing pin retaining pin with a safety device, and a weapon median plane, wherein the firing pin retaining pin is slidably mounted normally to the weapon median plane in a retaining bore and designed as one piece, whereby the firing pin retaining pin is rotationally symmetrical with a head end, characterized in that the firing pin retaining pin also has a pin end and has two annular grooves (11, 12), and that a locking pin mounted in a spring-loaded manner in the sliding block is, depending on the position of the firing pin retaining pin in the retaining bore, designed to optionally engage in the annular grooves in a holding position or a release position.
A drug-polyethylene glycol-drug conjugate of formula, the conjugate being formed by combining low molecular weight polyethylene glycol with two drug molecules, TA-X-PEG-X'-TA' wherein: PEG is a polyethylene glycol residue having the following structure, n is an integer of 0-25; X, X' are linking groups which may be identical or different, selected from a group consisting of -(CH 2)i-; -(CH 2)i-NH-;-(CH 2)i-O-;-(CH 2)i-S-; i is an integer of 0-10; TA is the same as TA' and selected from a group consisting of sumatriptan, dorzolamide and dasatinib. PEG is a polyethylene glycol residue having the following structure, n is an integer of 0-25; X, X' are linking groups which may be identical or different, selected from a group consisting of -(CH 2)i-; -(CH 2)i-NH-;-(CH 2)i-O-;-(CH 2)i-S-; i is an integer of 0-10; TA is the same as TA' and selected from a group consisting of sumatriptan, dorzolamide and dasatinib.
A storage system with at least a first rack (2,3) with rack bays arranged over one another with storage positions for conveyed goods, and with a lifting bar conveyor arranged on a longitudinal side of the first rack (2, 3), wherein the first rack (2, 3) forms a storage zone and is delimited in X-direction on both sides by end faces (8, 9), and wherein the lifting bar conveyor comprises a carrying element, which extends approximately over the longitudinal extent of the first rack (2, 3) between its two end faces (8, 9) and in so doing defines a length, an adjusting device for the carrying element, in order to be able to move the latter in vertical Y-direction between the individual rack bays, a first conveying device, arranged on the carrying element, with at least a first conveying unit conveying the conveyed goods in X-direction, a second conveying device arranged on the carrying element with at least a second conveying unit, by which the conveyed goods is able to be displaced in Z-direction between the first conveying unit and the storage position on the rack bay, characterized in that the storage system in addition to the storage zone has at least a second rack (34, 35), which is arranged on a side, facing away from the lifting bar conveyor, with a distance from the first rack (2, 3) and forms a buffer zone for the storage of conveyed goods, wherein between the first rack (2, 3) of the storage zone and the second rack (34, 35) of the buffer zone a transfer device is provided, by means of which conveyed goods are able to be transferred between the storage zone and buffer zone.
An A-B block copolymer 90% by mass or more of which is constituted by a methacrylate-based monomer or methacrylate-based monomers, wherein: a polymer block A comprises at least a carboxy group-containing methacrylate as a constituent (excluding a case wherein the polymer block A comprises an amino group- or quaternary ammonium salt group-containing methacrylate as a constituent); and a polymer block B comprises an ionic bond moiety represented by formula as a constitutional unit, the ionic bond moiety comprising: a methacrylate; and an organic coloring matter having one or more sulfonate ions each being bonded thereto and each being a counter ion of a nitrogen cation in a quaternary ammonium: wherein X represents an organic group, R1 to R3 each independently represent any one selected from the group consisting of C1 to C18 alkyl groups and a benzyl group, and D represents an organic coloring matter skeleton, wherein the moiety represented by formula is contained in a range from 5 to 40% by mass in the A-B block copolymer and in a range from 20 to 80% by mass in the polymer block. a polymer block A comprises at least a carboxy group-containing methacrylate as a constituent (excluding a case wherein the polymer block A comprises an amino group- or quaternary ammonium salt group-containing methacrylate as a constituent); and a polymer block B comprises an ionic bond moiety represented by formula as a constitutional unit, the ionic bond moiety comprising: a methacrylate; and an organic coloring matter having one or more sulfonate ions each being bonded thereto and each being a counter ion of a nitrogen cation in a quaternary ammonium: wherein X represents an organic group, R1 to R3 each independently represent any one selected from the group consisting of C1 to C18 alkyl groups and a benzyl group, and D represents an organic coloring matter skeleton, wherein the moiety represented by formula is contained in a range from 5 to 40% by mass in the A-B block copolymer and in a range from 20 to 80% by mass in the polymer block. a methacrylate; and an organic coloring matter having one or more sulfonate ions each being bonded thereto and each being a counter ion of a nitrogen cation in a quaternary ammonium:
A device (104, 200), comprising: one or more antennas configured to receive a radio frequency, RF, emission wirelessly from a source device; a power splitting circuitry configured to: split the RF emission into a first part and a second part of the RF emission based on a threshold, transmit the first part of the RF emission to an energy harvesting circuitry of the device (104,200), and transmit the second part of the RF emission to a wireless transceiver of the device (104,200); the energy harvesting circuitry configured to charge the device (104,200) using the first part of the RF emission; the wireless transceiver configured to receive the second part of the RF emission; and a processor communicatively coupled to the wireless transceiver and configured to: modulate the first part of the RF emission based on information detected by the device (104,200); determine that an energy level of an energy storage unit of the device (104,200) is above the threshold; and in response to determining that the energy level is above the threshold, transmit, using the wireless transceiver, the second part of the RF emission wirelessly to a second device to charge the second device. one or more antennas configured to receive a radio frequency, RF, emission wirelessly from a source device; a power splitting circuitry configured to: split the RF emission into a first part and a second part of the RF emission based on a threshold, transmit the first part of the RF emission to an energy harvesting circuitry of the device (104,200), and transmit the second part of the RF emission to a wireless transceiver of the device (104,200); split the RF emission into a first part and a second part of the RF emission based on a threshold, transmit the first part of the RF emission to an energy harvesting circuitry of the device (104,200), and transmit the second part of the RF emission to a wireless transceiver of the device (104,200); the energy harvesting circuitry configured to charge the device (104,200) using the first part of the RF emission; the wireless transceiver configured to receive the second part of the RF emission; and a processor communicatively coupled to the wireless transceiver and configured to: modulate the first part of the RF emission based on information detected by the device (104,200); determine that an energy level of an energy storage unit of the device (104,200) is above the threshold; and in response to determining that the energy level is above the threshold, transmit, using the wireless transceiver, the second part of the RF emission wirelessly to a second device to charge the second device. modulate the first part of the RF emission based on information detected by the device (104,200); determine that an energy level of an energy storage unit of the device (104,200) is above the threshold; and in response to determining that the energy level is above the threshold, transmit, using the wireless transceiver, the second part of the RF emission wirelessly to a second device to charge the second device.
Clamp for a vibrator intended to drive tubes having a flange into the ground, comprising a clamp body comprising at least two jaws (6, 7) for gripping the tube and one or more cylinders for actuating the jaws, characterized in that, in the working position, the jaws are oriented so as to come into engagement with the flange and transversely with respect to a general direction of driving force transmission through the clamp.
An atomic sensor, the sensor comprising: at least one laser source configured to produce at least one laser beam; one or more optical components, wherein the one or more optical components direct the at least one laser beam; and a vacuum cell, wherein the one or more optical components direct the at least one laser beam into the vacuum cell, wherein the one or more optical components and the vacuum cell are bonded together; wherein the one or more optical components and the vacuum cell are fabricated from materials having similar coefficients of thermal expansion; and wherein the one or more optical components split the at least one laser beam into a triad of laser beams and direct the triad of laser beams into a prism, wherein the prism is part of the one or more optical components, wherein the similar coefficients of thermal expansion ensure that the triad of laser beams cross at the same relative location when the atomic sensor experiences changes in temperature. at least one laser source configured to produce at least one laser beam; one or more optical components, wherein the one or more optical components direct the at least one laser beam; and a vacuum cell, wherein the one or more optical components direct the at least one laser beam into the vacuum cell, wherein the one or more optical components and the vacuum cell are bonded together; wherein the one or more optical components and the vacuum cell are fabricated from materials having similar coefficients of thermal expansion; and wherein the one or more optical components split the at least one laser beam into a triad of laser beams and direct the triad of laser beams into a prism, wherein the prism is part of the one or more optical components, wherein the similar coefficients of thermal expansion ensure that the triad of laser beams cross at the same relative location when the atomic sensor experiences changes in temperature.
A terminal, comprising: reception circuitry, which, in operation, receives feedback information from a base station on a physical downlink control channel, PDCCH, the feedback information including a response signal for uplink data; and transmission circuitry, which, in operation, performs a retransmission based on the feedback information and a configured grant configuration, wherein the feedback information includes a first HARQ-ACK information of a first configured grant transmission and a second HARQ-ACK information of a second configured grant transmission, wherein the first configured grant transmission is configured to operate by a higher layer signaling, and the second configured grant transmission is configured to operate by activation downlink control information, DCI, after a reception of the higher layer signaling, and wherein the feedback information indicates, by using a bitmap, the first HARQ-ACK information used for the first configured grant transmission and the second HARQ-ACK information used for the second configured grant transmission. reception circuitry, which, in operation, receives feedback information from a base station on a physical downlink control channel, PDCCH, the feedback information including a response signal for uplink data; and transmission circuitry, which, in operation, performs a retransmission based on the feedback information and a configured grant configuration, wherein the feedback information includes a first HARQ-ACK information of a first configured grant transmission and a second HARQ-ACK information of a second configured grant transmission, wherein the first configured grant transmission is configured to operate by a higher layer signaling, and the second configured grant transmission is configured to operate by activation downlink control information, DCI, after a reception of the higher layer signaling, and wherein the feedback information indicates, by using a bitmap, the first HARQ-ACK information used for the first configured grant transmission and the second HARQ-ACK information used for the second configured grant transmission.
A modular exoskeleton structure that provides force assistance to a user, comprising a base module comprising a lumbar belt capable of surrounding the lower trunk of the user, two hip modules capable of being attached to two respective thighs of the user, each hip module being connected to the base module through a respective hip joint, and a backpack support module, comprising: - a hoop designed to be anchored to the hip modules, - a support rod designed to extend along the back of the user and capable of being engaged in a pouch of a backpack to suspend the backpack to the backpack support module, wherein the rod comprises a first rod element connected to the hoop, a second rod element capable of sliding with respect to the first rod element so as to vary a length of the rod, and a damper for cushioning the movement of the second rod element with respect to the first rod element caused by the walking of the user. - a hoop designed to be anchored to the hip modules, - a support rod designed to extend along the back of the user and capable of being engaged in a pouch of a backpack to suspend the backpack to the backpack support module,
A compound of Formula III wherein: R 30 is halogen, R 31 and R 33 are H, and R 32 and R 34 are independently C 1-4 -haloalkyl; and R 35 and R 36 are independently -(CH 2 CH 2) n -Si(R 37) 3, wherein each R 37 is independently C 1-6 -alkyl and n is 0 or 1. R 30 is halogen, R 31 and R 33 are H, and R 32 and R 34 are independently C 1-4 -haloalkyl; and R 35 and R 36 are independently -(CH 2 CH 2) n -Si(R 37) 3, wherein each R 37 is independently C 1-6 -alkyl and n is 0 or 1.
Fill level sensor for detecting a level of a fill medium in a container, - wherein the fill level sensor comprises a generator having a feed line, an antenna, a supply and a controller, - wherein the generator is designed to generate electromagnetic waves having a resonant frequency and output the electromagnetic waves via the feed line having a line impedance with a line impedance value, - wherein the supply is arranged between the feed line and the antenna and is designed to transmit the electromagnetic waves from the feed line to the antenna, characterized in - that the antenna is designed to radiate the electromagnetic waves into a container with a fill medium, - that a transmission of the electromagnetic waves occurs in a transmission direction from the feed line via the supply to the antenna, - that the controller is designed to detect a change of electromagnetic waves radiated by the antenna in a near field around the antenna by a fill level change of a fill medium in a container and to detect a fill level of the fill medium in the container by evaluating the detected change in the near field, - that the supply has a resonant circuit, - that the resonant circuit and the antenna together have a resonant input impedance (Z R) in the transmission direction, and the resonant circuit transforms the resonant input impedance (Z R) at the resonant frequency into a real impedance having a predetermined resonant impedance value, and - that the antenna has an antenna resonant frequency different from the resonant frequency. - wherein the fill level sensor comprises a generator having a feed line, an antenna, a supply and a controller, - wherein the generator is designed to generate electromagnetic waves having a resonant frequency and output the electromagnetic waves via the feed line having a line impedance with a line impedance value, - wherein the supply is arranged between the feed line and the antenna and is designed to transmit the electromagnetic waves from the feed line to the antenna, characterized in - that the antenna is designed to radiate the electromagnetic waves into a container with a fill medium, - that a transmission of the electromagnetic waves occurs in a transmission direction from the feed line via the supply to the antenna, - that the controller is designed to detect a change of electromagnetic waves radiated by the antenna in a near field around the antenna by a fill level change of a fill medium in a container and to detect a fill level of the fill medium in the container by evaluating the detected change in the near field, - that the supply has a resonant circuit, - that the resonant circuit and the antenna together have a resonant input impedance (Z R) in the transmission direction, and the resonant circuit transforms the resonant input impedance (Z R) at the resonant frequency into a real impedance having a predetermined resonant impedance value, and - that the antenna has an antenna resonant frequency different from the resonant frequency.
An inspection system for a bladed rotor, the inspection system comprising: a support structure; a first scanner moveably coupled to the support structure; a second scanner moveably coupled to the support structure; a motor operably coupled to a shaft, the shaft rotatably coupled to the support structure, the shaft configured to be coupled to the bladed rotor; and a controller in electronic communication with the first scanner, the second scanner, and the motor, the controller configured to: command the first scanner to scan the bladed rotor; command the second scanner to scan the bladed rotor; and generate a point cloud for the bladed rotor based on scanning data received from the first scanner and the second scanner. a support structure; a first scanner moveably coupled to the support structure; a second scanner moveably coupled to the support structure; a motor operably coupled to a shaft, the shaft rotatably coupled to the support structure, the shaft configured to be coupled to the bladed rotor; and a controller in electronic communication with the first scanner, the second scanner, and the motor, the controller configured to: command the first scanner to scan the bladed rotor; command the second scanner to scan the bladed rotor; and generate a point cloud for the bladed rotor based on scanning data received from the first scanner and the second scanner. command the first scanner to scan the bladed rotor; command the second scanner to scan the bladed rotor; and generate a point cloud for the bladed rotor based on scanning data received from the first scanner and the second scanner.