mhurhangee/ep-ind-claims huggingface dataset:
Module housing, having: a lid part; a carrier part, which comprises chambers (3; 4; 5) that are open on one side and can be closed using the lid part; and a plurality of horn spark gaps having a multi-part insulating material housing as a supporting and receiving body for the horn electrodes and an integrated deionisation chamber; characterised in that inner sides (10; 11) of the carrier part and walls (16; 17) of the chambers (3; 4; 5) each have guide rails formed thereon, which are embodied so as to be complementary to guide grooves in the respective insulating material housing (14; 15) of the respective horn spark gap, which can be slid into the respective chamber (3; 4; 5) from the open side of the carrier part, wherein the guide rails comprise a T-shaped or dovetail-shaped cross-section, so that a rail or dovetail guide is realized and an overall stability-enhancing force coupling between the insulating material housings (14; 15) and the carrier part is established essentially perpendicular to the direction of insertion. a lid part; a carrier part, which comprises chambers (3; 4; 5) that are open on one side and can be closed using the lid part; and a plurality of horn spark gaps having a multi-part insulating material housing as a supporting and receiving body for the horn electrodes and an integrated deionisation chamber; characterised in that inner sides (10; 11) of the carrier part and walls (16; 17) of the chambers (3; 4; 5) each have guide rails formed thereon, which are embodied so as to be complementary to guide grooves in the respective insulating material housing (14; 15) of the respective horn spark gap, which can be slid into the respective chamber (3; 4; 5) from the open side of the carrier part, wherein the guide rails comprise a T-shaped or dovetail-shaped cross-section, so that a rail or dovetail guide is realized and an overall stability-enhancing force coupling between the insulating material housings (14; 15) and the carrier part is established essentially perpendicular to the direction of insertion.
A high pressure integrated compression unit for a process fluid comprising at least the following: a compression device able to compress the process fluid from a gaseous initial thermodynamic state (Pi, Ti) to an intermediate thermodynamic state (P 1, T 1); characterized by a pump connected mechanically to the compression device and able to compress the process fluid from said intermediate thermodynamic state (P 1, T 1) to a final thermodynamic state (Pf, Tf); an external cooling device provided in the process path between the compression device and the pump; an external feed circuit to at least partially fill the pump with process fluid, the process fluid being at the same thermodynamic conditions to that which is fed by the compression device during activation of the compression device and, at the same time, the pump; a motor device able to drive said compression device and said pump; and a pressure casing in which are enclosed at least said compression device and the pump mechanically coupled to each other. a compression device able to compress the process fluid from a gaseous initial thermodynamic state (Pi, Ti) to an intermediate thermodynamic state (P 1, T 1); characterized by a pump connected mechanically to the compression device and able to compress the process fluid from said intermediate thermodynamic state (P 1, T 1) to a final thermodynamic state (Pf, Tf); an external cooling device provided in the process path between the compression device and the pump; an external feed circuit to at least partially fill the pump with process fluid, the process fluid being at the same thermodynamic conditions to that which is fed by the compression device during activation of the compression device and, at the same time, the pump; a motor device able to drive said compression device and said pump; and a pressure casing in which are enclosed at least said compression device and the pump mechanically coupled to each other.
A method for producing thermoplastic starch, wherein a mixture comprising starch and a polyol, preferably selected from the group comprising polyethylene glycol, monosaccharides, sugar alcohols such as glycerol, sorbitol, erythritol, xylitol or mannitol and mixtures thereof, in a quantity of from 0 to 9.9 wt. % of the mixture, and an epoxide selected from the group comprising epoxidised plant oils such as soybean oil, linseed oil, sunflower oil, rapeseed oil and mixtures thereof, in a quantity of from 0.1 to 6, preferably 1 to 4.5, particularly preferably 2 to 3.5 wt.% of the mixture is extruded, characterised in that the mixture also contains an acid, preferably a carboxylic acid selected from the group consisting of citric acid, malic acid or tartaric acid, in a quantity of from 0.1 to 1, preferably from 0.1 to 0.5 wt.% of the mixture, and is free from polyester urethane.
A method for generating an offline map, comprising: obtaining (S101, S901) a first environmental image to an N th environmental image sequentially collected by a camera of a vehicle when the vehicle is traveling on a target road section, where N is a positive integer; selecting (S102, S902) an i th environmental image to a j th environmental image from the first environmental image to the N th environmental image, where i is a positive integer greater than 1 and less than j, and j is a positive integer less than N; performing (S103, S903) a first batch of three-dimensional modeling on the i th environmental image to the j th environmental image to obtain first posture information of the camera and a first world coordinate corresponding to a first test point in the i th environmental image to the j th environmental image; characterized by performing (S104, S904) a second batch of three-dimensional modeling in parallel on the first environmental image to an (i-1) th environmental image and a (j+1) th environmental image to the N th environmental image, based on the first posture information and the first world coordinate corresponding to the first test point, to obtain a second world coordinate corresponding to a second test point in the first environmental image to the (i-1) th environmental image, and a third world coordinate corresponding to a third test point in the (j+1) th environmental image to the N th environmental image; and generating (S105, S905) an offline map of the target road section according to the first world coordinate, the second world coordinate, and the third world coordinate. obtaining (S101, S901) a first environmental image to an N th environmental image sequentially collected by a camera of a vehicle when the vehicle is traveling on a target road section, where N is a positive integer; selecting (S102, S902) an i th environmental image to a j th environmental image from the first environmental image to the N th environmental image, where i is a positive integer greater than 1 and less than j, and j is a positive integer less than N; performing (S103, S903) a first batch of three-dimensional modeling on the i th environmental image to the j th environmental image to obtain first posture information of the camera and a first world coordinate corresponding to a first test point in the i th environmental image to the j th environmental image; characterized by performing (S104, S904) a second batch of three-dimensional modeling in parallel on the first environmental image to an (i-1) th environmental image and a (j+1) th environmental image to the N th environmental image, based on the first posture information and the first world coordinate corresponding to the first test point, to obtain a second world coordinate corresponding to a second test point in the first environmental image to the (i-1) th environmental image, and a third world coordinate corresponding to a third test point in the (j+1) th environmental image to the N th environmental image; and generating (S105, S905) an offline map of the target road section according to the first world coordinate, the second world coordinate, and the third world coordinate.
A superconducting bidirectional current driver (16, 50, 100, 150, 200, 250, 300, 350, 404) comprising: a first direction superconducting latch (54, 60; 204, 210; 254, 260; 304, 310; 354) that is activated in response to a first activation signal (ACT 1, ACT 4); and a second direction superconducting latch (56, 58; 206, 208; 256, 258; 306, 308; 356) that is activated in response to a second activation signal (ACT 2, ACT 3), wherein the second direction superconducting latch is activated to provide a first current path of an input current through the first direction superconducting latch and through a bidirectional current load (12; 62; 212; 262; 312; 358; 402) in a first direction, wherein the first direction superconducting latch is activated to provide a second current path of the input current through the second direction superconducting latch and through the bidirectional current load in a second direction opposite the first direction. a first direction superconducting latch (54, 60; 204, 210; 254, 260; 304, 310; 354) that is activated in response to a first activation signal (ACT 1, ACT 4); and a second direction superconducting latch (56, 58; 206, 208; 256, 258; 306, 308; 356) that is activated in response to a second activation signal (ACT 2, ACT 3), wherein the second direction superconducting latch is activated to provide a first current path of an input current through the first direction superconducting latch and through a bidirectional current load (12; 62; 212; 262; 312; 358; 402) in a first direction, wherein the first direction superconducting latch is activated to provide a second current path of the input current through the second direction superconducting latch and through the bidirectional current load in a second direction opposite the first direction.
An electronic device comprising: a communication unit that includes a first communication module and a second communication module, wherein the second communication module supports a low-power and short-range communication method; and a processor configured to: control collection of first information through the first communication module from at least one external device connected via the first communication module; obtain second information, wherein the second information is related to the collected first information; analyze and/or process at least one piece of the collected first information by filtering the collected first information using the second information; configure data frames that include the at least one piece of analyzed and/or processed first information, wherein payload portions of the configured data frames include different service identifiers, respectively; and broadcast the configured data frames through the second communication module to further electronic devices; wherein the second information includes at least one of information stored in the electronic device, information measured in the electronic device, and/or running service information of the electronic device. control collection of first information through the first communication module from at least one external device connected via the first communication module; obtain second information, wherein the second information is related to the collected first information; analyze and/or process at least one piece of the collected first information by filtering the collected first information using the second information; configure data frames that include the at least one piece of analyzed and/or processed first information, wherein payload portions of the configured data frames include different service identifiers, respectively; and broadcast the configured data frames through the second communication module to further electronic devices; wherein the second information includes at least one of information stored in the electronic device, information measured in the electronic device, and/or running service information of the electronic device.
A humanized antibody that specifically binds an EC1 domain of a mammalian Cadherin-11 protein and antagonizes said mammalian Cadherin-11 protein, comprising an antibody variable heavy chain region comprising SEQ ID NO: 69 and an antibody variable light chain region comprising SEQ ID NO: 71.
Non-therapeutic use of a composition as a antimicrobial agent against lactic acid bacteria and/or against molds, wherein the composition comprises as a first antimicrobial agent xanthohumol having the formula, or a salt thereof, and a second or further antimicrobial agent, wherein the second or further antimicrobial agent is chosen from Propionibacterium-fermented sugar composition comprising propionate and acetate; an organic acid, selected from propionic acid, lactic acid or acetic acid or any salt thereof; preferably calcium propionate, lactide, ACE 50, or a combination of any of these agents, wherein ACE 50 is a powder comprising 49.5% sodium lactate and 49.5% sodium acetate.
An oral care composition comprising a human recombinant interleukin-1 and an orally acceptable carrier for use in reducing oral malodor in a subject in need thereof.
An information interaction method, characterized by comprising: receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaborating request, wherein the mail-based collaborating request is sent by an inviter party based on a target mail; and creating (S120, S220, S320, S420), by the electronic device, a collaborating group comprising the inviter party and an invitee party according to the mail-based collaborating request, wherein in the collaborating group, the inviter party and the invitee party are able to perform information interaction. receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaborating request, wherein the mail-based collaborating request is sent by an inviter party based on a target mail; and creating (S120, S220, S320, S420), by the electronic device, a collaborating group comprising the inviter party and an invitee party according to the mail-based collaborating request, wherein in the collaborating group, the inviter party and the invitee party are able to perform information interaction.
A wind turbine blade comprising: a blade body having a root, a tip, and a longitudinal direction extending between the root and the tip; and a leading edge fairing, characterised in that the blade body has a channel extending in the longitudinal direction, wherein the leading edge fairing has a projection extending into the channel and extending in the longitudinal direction so as to be received in the channel, and wherein the leading edge fairing has a generally C-shaped profile with a leading edge and two trailing edges, and wherein the leading edge fairing has a projection adjacent each trailing edge. a blade body having a root, a tip, and a longitudinal direction extending between the root and the tip; and a leading edge fairing, characterised in that the blade body has a channel extending in the longitudinal direction, wherein the leading edge fairing has a projection extending into the channel and extending in the longitudinal direction so as to be received in the channel, and wherein the leading edge fairing has a generally C-shaped profile with a leading edge and two trailing edges, and wherein the leading edge fairing has a projection adjacent each trailing edge.
A method for performing vehicle-to-everything, V2X, communication by a terminal in a wireless communication system, the method comprising: acquiring first information from a neighbor cell; and reporting the first information and second information to a base station of a serving cell, wherein the second information is generated by the terminal, wherein the first information includes resource allocation information related to V2X communication of the neighbor cell, and wherein the second information includes information on buffer state of the terminal and utilization of resources indicated by the resource allocation information related to the V2X communication. acquiring first information from a neighbor cell; and reporting the first information and second information to a base station of a serving cell, wherein the second information is generated by the terminal, wherein the first information includes resource allocation information related to V2X communication of the neighbor cell, and wherein the second information includes information on buffer state of the terminal and utilization of resources indicated by the resource allocation information related to the V2X communication.
An outboard motor configured to be attached to a marine vessel (100, 200) comprising: an outboard motor body; a steering shaft; a steering cylinder including a piston rod configured to extend in a first direction of the outboard motor body, a piston fixed to the piston rod, and a cylindrical cylinder body including an oil chamber therein and configured to allow the piston to be provided in the cylinder body, the steering cylinder being configured to rotate the steering shaft and rotate the outboard motor body in the first direction by adjusting an amount of oil in the oil chamber and moving the cylinder body in the first direction; and an oil passage provided inside the piston rod and connected to the oil chamber, a swivel bracket configured to allow the outboard motor body to be attached thereto, the swivel bracket being configured to be rotatable in an second direction that is substantially perpendicular to the first direction; and a clamp bracket configured to be fixed to a hull (100a, 200a) of the marine vessel (100, 200) and configured to allow the swivel bracket to be attached thereto such that the swivel bracket is rotatable in the second direction; wherein the steering cylinder is rotatably attached to the clamp bracket, a rotation device is configured to rotate the swivel bracket and the outboard motor body in the second direction about a tilt shaft for rotating the outboard motor body in an upward-downward direction, characterized in that the piston rod with the oil passage being provided therein is substantially coaxial with the tilt shaft. an outboard motor body; a steering shaft; a steering cylinder including a piston rod configured to extend in a first direction of the outboard motor body, a piston fixed to the piston rod, and a cylindrical cylinder body including an oil chamber therein and configured to allow the piston to be provided in the cylinder body, the steering cylinder being configured to rotate the steering shaft and rotate the outboard motor body in the first direction by adjusting an amount of oil in the oil chamber and moving the cylinder body in the first direction; and an oil passage provided inside the piston rod and connected to the oil chamber, a swivel bracket configured to allow the outboard motor body to be attached thereto, the swivel bracket being configured to be rotatable in an second direction that is substantially perpendicular to the first direction; and a clamp bracket configured to be fixed to a hull (100a, 200a) of the marine vessel (100, 200) and configured to allow the swivel bracket to be attached thereto such that the swivel bracket is rotatable in the second direction; wherein the steering cylinder is rotatably attached to the clamp bracket, a rotation device is configured to rotate the swivel bracket and the outboard motor body in the second direction about a tilt shaft for rotating the outboard motor body in an upward-downward direction, characterized in that the piston rod with the oil passage being provided therein is substantially coaxial with the tilt shaft.
A method of operating coherency or memory interconnect protocols over a PCIe 6.0 interconnect, comprising: receiving a first portion of a flow control unit (Flit), the first portion of the Flit comprising a first cyclic redundancy check code; receiving a second portion of the Flit, the second portion of the Flit comprising a second CRC code and an error correcting code, the ECC for the first portion of the Flit and the second portion of the Flit; generating a CRC code based on at least part of the first portion of the Flit, performing a CRC check based on comparing the generated CRC code with the first CRC code in the first portion of the Flit; and sending the first portion of the Flit to Link Layer circuitry without performing forward error correction if the first portion of the Flit passes the CRC check. receiving a first portion of a flow control unit (Flit), the first portion of the Flit comprising a first cyclic redundancy check code; receiving a second portion of the Flit, the second portion of the Flit comprising a second CRC code and an error correcting code, the ECC for the first portion of the Flit and the second portion of the Flit; generating a CRC code based on at least part of the first portion of the Flit, performing a CRC check based on comparing the generated CRC code with the first CRC code in the first portion of the Flit; and sending the first portion of the Flit to Link Layer circuitry without performing forward error correction if the first portion of the Flit passes the CRC check.
Inkjet printing machine for printing individual sheets, comprising a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a leading edge of one of the individual sheets and at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a trailing edge of the individual sheet such that during a printing process an individual sheet can be gripped by at least two gripping conveyors; the transport system further comprising a linear motor being controllable in such a way that movement of each of the gripper conveyors along the transport track is individually controllable, wherein the gripper mechanisms comprise a clamping bar including a first cross member and a second cross member, a relative distance of the cross members being adjustable to clamp the leading edge or the trailing edge of the individual sheet and the cross members having a main extension matching a maximum width of the printing station. a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a leading edge of one of the individual sheets and at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a trailing edge of the individual sheet such that during a printing process an individual sheet can be gripped by at least two gripping conveyors; the transport system further comprising a linear motor being controllable in such a way that movement of each of the gripper conveyors along the transport track is individually controllable, wherein the gripper mechanisms comprise a clamping bar including a first cross member and a second cross member, a relative distance of the cross members being adjustable to clamp the leading edge or the trailing edge of the individual sheet and the cross members having a main extension matching a maximum width of the printing station.