mhurhangee/patent-ind-claim-en huggingface dataset:
A quick hitch for mounting an implement on a machine, the quick hitch including: at least one mounting means for connection to a machine; and a securing means for engaging a lower lip of an implement to secure the quick hitch to the implement, characterised in that : the quick hitch further includes a rear wall including a pair of upwardly extending arms each having at least one removable wear plate for engagement with a surface of the implement; the at least one removable wear plate is configured to fit under an upper lip on the implement; and the at least one removable wear plate is configured to be removed and replaced by another removable wear plate if the surface becomes worn in use. at least one mounting means for connection to a machine; and a securing means for engaging a lower lip of an implement to secure the quick hitch to the implement, characterised in that : the quick hitch further includes a rear wall including a pair of upwardly extending arms each having at least one removable wear plate for engagement with a surface of the implement; the at least one removable wear plate is configured to fit under an upper lip on the implement; and the at least one removable wear plate is configured to be removed and replaced by another removable wear plate if the surface becomes worn in use. the quick hitch further includes a rear wall including a pair of upwardly extending arms each having at least one removable wear plate for engagement with a surface of the implement; the at least one removable wear plate is configured to fit under an upper lip on the implement; and the at least one removable wear plate is configured to be removed and replaced by another removable wear plate if the surface becomes worn in use.
A method of manufacturing a valve or an element used to form a valve, the method comprising: forming a first part of a first component using additive manufacturing; adding a second component (32, 32 1 , 32 2 , 32 3 ) to the first part of the first component ; and forming a second part of the first component using additive manufacturing, characterised in that the second component (32 1, 322 ) comprises a first part comprising a first material and a second part comprising a second material, the first material of the first part having a greater hardness than the second material of the second part , the second part of the second component has a lattice structure. forming a first part of a first component using additive manufacturing; adding a second component (32, 32 1 , 32 2 , 32 3 ) to the first part of the first component ; and forming a second part of the first component using additive manufacturing, characterised in that the second component (32 1, 322 ) comprises a first part comprising a first material and a second part comprising a second material, the first material of the first part having a greater hardness than the second material of the second part , the second part of the second component has a lattice structure.
Plasma device for treating surfaces, in particular in the case of textiles, wherein the plasma device has a housing with a lower shell and an upper shell pivotably mounted thereon, wherein a seat for an electrical energy storage system is provided in the upper shell and wherein a plasma source and an electronic device connected thereto with electrical contact elements are arranged in the lower shell , which when the housing is closed are electrically conductively connected to the energy storage system and as a result connect this electrically conductively to the electronic device , characterised in that as from an angle of opening α of the upper shell relative to the lower shell of α ≥ 5° the energy storage system is decoupled at least from one contact element .
A nozzle for a laser machining device for machining a workpiece by means of a laser beam, the nozzle comprising: - a base body having a longitudinal axis , wherein the base body has an inner volume for passing the laser beam and process gas and a nozzle mouth having an exit orifice for the exit of the laser beam and a core flow of the process gas , - a movable sleeve having a collar region which is displaceable along a guide region of the base body , and an annular gap region which is spaced apart from the base body and, together with the base body , forms an annular gap for the exit of an annular flow of the process gas , characterised in that the collar region extends radially inwards towards the guide region of the base body and surrounds a part of the guide region , wherein radially inwards designates a radial direction pointing towards the longitudinal axis of the base body , in that the guide region is formed substantially in a cylindrical-ring-shape, and in that the base body has at least one connecting channel which connects the inner volume of the base body to a region between the base body and the sleeve in order to direct a part of the process gas into the annular gap . - a base body having a longitudinal axis , wherein the base body has an inner volume for passing the laser beam and process gas and a nozzle mouth having an exit orifice for the exit of the laser beam and a core flow of the process gas , - a movable sleeve having a collar region which is displaceable along a guide region of the base body , and an annular gap region which is spaced apart from the base body and, together with the base body , forms an annular gap for the exit of an annular flow of the process gas , the collar region extends radially inwards towards the guide region of the base body and surrounds a part of the guide region , wherein radially inwards designates a radial direction pointing towards the longitudinal axis of the base body , in that the guide region is formed substantially in a cylindrical-ring-shape, and in that the base body has at least one connecting channel which connects the inner volume of the base body to a region between the base body and the sleeve in order to direct a part of the process gas into the annular gap .
A multi-beam LIDAR optical system comprising: a plurality of single mode optical fibers , each fiber configured to transmit and receive light beams ; wherein the optical system further comprises: a plurality of common lenses configured to collimate and focus the light beams transmitted and received by the fibers, wherein each common lens is shared by the light beams from all fibers; wherein the system is configured to transmit and receive the light beams over an angular field of view of at least 5°, and wherein either a ratio of a focal length of the system to a diameter of an entrance pupil of the system is in a range of 3.5 - 5, or a ratio of the focal length of the system to a diameter of an entrance pupil of the system is in a range given by: (3.5 to 5) × 0.094/NA fiber , wherein NA fiber is a numerical aperture of the single mode optical fibers . a plurality of single mode optical fibers , each fiber configured to transmit and receive light beams ; wherein the optical system further comprises: a plurality of common lenses configured to collimate and focus the light beams transmitted and received by the fibers, wherein each common lens is shared by the light beams from all fibers; wherein the system is configured to transmit and receive the light beams over an angular field of view of at least 5°, and wherein either a ratio of a focal length of the system to a diameter of an entrance pupil of the system is in a range of 3.5 - 5, or a plurality of common lenses configured to collimate and focus the light beams transmitted and received by the fibers, wherein each common lens is shared by the light beams from all fibers; wherein the system is configured to transmit and receive the light beams over an angular field of view of at least 5°, and wherein either a ratio of a focal length of the system to a diameter of an entrance pupil of the system is in a range of 3.5 - 5, or a ratio of the focal length of the system to a diameter of an entrance pupil of the system is in a range given by: (3.5 to 5) × 0.094/NA fiber , wherein NA fiber is a numerical aperture of the single mode optical fibers .
A transparent laminate film comprising a substrate layer and a coat layer, wherein the transparent laminate film has a total light transmittance at a thickness of 100 μm of not less than 85% in accordance with Japanese Industrial Standards (JIS) K7361, and wherein the coat layer has a surface with a maximum height of rolling circle waviness profile (W EM ) in accordance with Japanese Industrial Standards (JIS) B0610 of 5 to 15 μm and an arithmetic average roughness (Ra) in accordance with JIS B0610 of 0.5 to 5 μm, wherein the coat layer contains particles and a binder component, wherein the particles have a particle size distribution having a plurality of peaks, and wherein the binder component comprises: a polyfunctional (meth)acrylate and a urethane (meth)acrylate, a thermoplastic elastomer, or both. a polyfunctional (meth)acrylate and a urethane (meth)acrylate, a thermoplastic elastomer, or both.
A compound according to formula (I) wherein A is selected from the group consisting of phenyl, thiophenyl, benzothiophenyl or benzofuranyl, unsubstituted or substituted with one, two or three members of the group R 3 consisting of halogen, CN, C 1-4 -alkyl, O-C 1-4 -alkyl, C 1-4 -fluoroalkyl, O-C 1-4 -fluoroalkyl, C 3-4 -cycloalkyl, O-C 3-4 -cycloalkyl, C 3-4 -cyclofluoroalkyl and O-C 3-4 -cyclofluoroalkyl, or A is selected from the group consisting of and E is selected from the group consisting of O, S, SO, SO 2 and CH 2 ; and R 1 and R 2 are independently selected from the group consisting of H, C 1-4 -alkyl, C 1-4 -fluoroalkyl and halogen, or R 1 and R 2 together with the carbon to which they are attached form a cyclopropyl or cyclobutyl ring. A is selected from the group consisting of phenyl, thiophenyl, benzothiophenyl or benzofuranyl, unsubstituted or substituted with one, two or three members of the group R 3 consisting of halogen, CN, C 1-4 -alkyl, O-C 1-4 -alkyl, C 1-4 -fluoroalkyl, O-C 1-4 -fluoroalkyl, C 3-4 -cycloalkyl, O-C 3-4 -cycloalkyl, C 3-4 -cyclofluoroalkyl and O-C 3-4 -cyclofluoroalkyl, or A is selected from the group consisting of and E is selected from the group consisting of O, S, SO, SO 2 and CH 2 ; and R 1 and R 2 are independently selected from the group consisting of H, C 1-4 -alkyl, C 1-4 -fluoroalkyl and halogen, or R 1 and R 2 together with the carbon to which they are attached form a cyclopropyl or cyclobutyl ring.
Seal for a splicing device, the seal comprising a first wall defining a first groove and a second wall defining a second groove , wherein: - the first wall and the second wall are adapted to be positioned against each other in an abutting position in which the first groove and the second groove together form an opening extending about a passage axis (X), - the first wall comprises two deformable projections delimiting between them the first groove , the two projections being suitable for approaching a cable inserted through the opening under the action of a compressive force exerted by the second wall on the projections in a compressive direction (Z) perpendicular to the passage axis (X) when the two walls are in the abutting position, characterized in that the first wall comprises a portion defining a bottom of the first groove and separating the first groove from a cavity , the portion being adapted to flex with respect to the protrusions under the action of the compressive force exerted on the protrusions to cause a reduction in the size of the cavity. - the first wall and the second wall are adapted to be positioned against each other in an abutting position in which the first groove and the second groove together form an opening extending about a passage axis (X), - the first wall comprises two deformable projections delimiting between them the first groove , the two projections being suitable for approaching a cable inserted through the opening under the action of a compressive force exerted by the second wall on the projections in a compressive direction (Z) perpendicular to the passage axis (X) when the two walls are in the abutting position,
A fan wheel of an axial ventilator having multiple fan wheel blades arranged around an axis of rotation (RA) in a blade ring, wherein at least one of the fan wheel blades comprises an inner section located on the radial inside and a blade edge section directly adjoining the inner section and bordering a blade edge , wherein the at least one fan wheel blade comprises a local projection over a radial extension of the blade edge section , which projection is formed in extension of the chord length of the fan wheel blade and locally enlarges the fan wheel blade in the blade edge section , and wherein an average angle of attack (α) of the fan wheel blade in relation to a plane of rotation (RE) of the fan wheel is larger than an average angle of attack (β) of the projection in relation to the plane of rotation (RE), and wherein the projection comprises a tip pointing in the circumferential direction, characterized in that a chord length of the fan wheel blade is locally enlarged in relation to the inner section by the projection in a direction perpendicular to the axis of rotation (RA), such that 1.1≤L1/L2≤1.3 applies, wherein L1 is a maximum chord length of the fan wheel blade in the blade edge section and L2 is a chord length of the fan wheel blade at the border between the inner section and the blade edge section , and that the tip is spaced apart radially inward in relation to a maximum outer radius of the fan wheel blade , and the tip is offset radially outward off-center in the blade edge section .
Feed mixing vehicle comprising: a mixing container and at least one mixing member arranged rotatable therein for feed components; at least one sensor system arranged to co-rotate on said mixing member for examining at least one of the feed components and/or a feed mixture formed therefrom; and a data transmission system with at least one transmitter and at least one receiver which are associated with one another in a co-rotating and not co-rotating arrangement for wireless data transmission to and/or away from said sensor system, wherein the wireless transmission path between the respective transmitter and the receiver is entirely within the mixing container, and wherein the transmitter and receiver are configured for contactless bidirectional data transmission, by way radio signals and/or inductive coupling, such that, on one hand, control data for said sensor system and, on the other hand, measurement data obtained with said sensor system and/or analysis data calculated therefrom in said sensor system can be continuously transmitted with said data transmission system.
A method of distinguishing between a first subject nucleic acid and a contaminating RNA or a contaminating template DNA, comprising: (a) contacting a sample that may comprise the first subject nucleic acid with at least one distinct query nucleic acid complementary to a portion of the first subject nucleic acid under conditions that the distinct query nucleic acid specifically hybridizes with the complementary portion of the first subject nucleic acid, when present, to form a hybrid duplex, wherein the first subject nucleic acid is RNA and the distinct query nucleic acid is DNA; (b) adding a nuclease specific to hybrid duplexes to the sample under conditions that facilitate specific cleavage of subject nucleic acid when the hybrid duplex is present, wherein the nuclease specific to hybrid duplexes is an RNase H; and (c) size fractionating the sample and determining the presence of cleaved first subject nucleic acid, wherein the presence of two or more cleavage products of the first subject nucleic acid of predicted size confirms the presence of the first subject nucleic acid in the sample. (a) contacting a sample that may comprise the first subject nucleic acid with at least one distinct query nucleic acid complementary to a portion of the first subject nucleic acid under conditions that the distinct query nucleic acid specifically hybridizes with the complementary portion of the first subject nucleic acid, when present, to form a hybrid duplex, wherein the first subject nucleic acid is RNA and the distinct query nucleic acid is DNA; (b) adding a nuclease specific to hybrid duplexes to the sample under conditions that facilitate specific cleavage of subject nucleic acid when the hybrid duplex is present, wherein the nuclease specific to hybrid duplexes is an RNase H; and (c) size fractionating the sample and determining the presence of cleaved first subject nucleic acid, wherein the presence of two or more cleavage products of the first subject nucleic acid of predicted size confirms the presence of the first subject nucleic acid in the sample.
Method for measuring a track position with a track-driveable track measuring carriage , at least one wheel of the track measuring carriage being pressed against a rail , characterized in that a measurement run is carried out with the track-driveable track measuring carriage , a GPS antenna and an RTK-GPS receiver , which communicates with an RTK correction data service (RTK-KD), in that the position of the GPS antenna with respect to a reference axis of the track is determined with the aid of a compensation scanner and a computing unit , and the measured GPS coordinates, which are converted into Cartesian coordinates (P i (x i , y i , z i )), are recorded with the computing unit as a space curve , from which the location image , from which a desired curvature image (K soll ) and the longitudinal image , from which a desired longitudinal inclination image (N soll ) are calculated, and in that an inertial system (INS) is set up on the measuring carriage , with which inertial system (INS) a correction space curve of the same distance is produced, recorded with the computing unit and used as correction value for the GPS coordinates converted into Cartesian coordinates (P i (x i , y i , z i )).
An ecological system for a vehicle which uses kinetic energy of the moving vehicle comprising: one or more devices (11-000) which guide, compress, accelerate and project an air flow caught by the one or more devices(11-000) in the moving vehicle ; and a first subsystem (12-000) comprising one or more aerodynamic profiles (12-100), that receive the air flow projected from the one or more devices (11-000), wherein the one or more aerodynamic profiles (12-100) generate lifting on the vehicle; wherein the one or more devices (11-000) is located at the front part of the system and strikes with an input area, an air flow that penetrates and is compressed, accelerated and guided towards an output area, wherein said input area of one or more devices (11-000) is greater than said output area so that air flow velocity is substantially higher at the output area than at the input area; and characterized in that said input area of the one or more devices (11-000) is arrangeable around the area of the front part of the vehicle . one or more devices (11-000) which guide, compress, accelerate and project an air flow caught by the one or more devices(11-000) in the moving vehicle ; and a first subsystem (12-000) comprising one or more aerodynamic profiles (12-100), that receive the air flow projected from the one or more devices (11-000), wherein the one or more aerodynamic profiles (12-100) generate lifting on the vehicle; wherein the one or more devices (11-000) is located at the front part of the system and strikes with an input area, an air flow that penetrates and is compressed, accelerated and guided towards an output area, wherein said input area of one or more devices (11-000) is greater than said output area so that air flow velocity is substantially higher at the output area than at the input area; and characterized in that said input area of the one or more devices (11-000) is arrangeable around the area of the front part of the vehicle .
An elevator car (C,C2,C3,C',C") comprising a first floor (1;21;31;1';21') for delimiting a first transport space (5;25;35) above it, and a second floor (2;22;32) for delimiting a second transport space (6;26;36) above it, characterized in that one of the first and second floor (1,2;21,22;31,32;1',2;21',22) is a displaceable floor, the elevator car (C,C2,C3,C',C") being shiftable between a double-decker -state and a single-decker -state by displacing the displaceable floor (2;22;31).
An image encoding device comprising: a setting unit configured: to set header information related to a hypothetical reference decoder in accordance with information about a position of a current picture of image data to be processed and information about whether the current picture is a reference picture, to set information indicating a NAL unit type, to set information indicating bitstream concatenation, and to set information indicating a difference between a position of an access unit at the end of a bitstream to be generated and a position of a previous non-discardable picture; and an encoding unit configured to encode the image data and generate the bitstream containing the encoded data of the image data and the header information set by the setting unit, the bitstream being for concatenation with another bitstream; wherein, when the current picture is neither a first picture of the bitstream nor a last picture of the bitstream, but is a reference picture, or when the current picture is the last picture of the bitstream, the setting unit sets the information indicating the NAL unit type at a value indicating a trailing picture to be referred to, the trailing picture not being of a temporal sublayer, sets the information indicating bitstream concatenation at "false", and sets the information indicating the difference between the position of the access unit at the end of the bitstream and the position of the previous non-discardable picture at 0. to set header information related to a hypothetical reference decoder in accordance with information about a position of a current picture of image data to be processed and information about whether the current picture is a reference picture, to set information indicating a NAL unit type, to set information indicating bitstream concatenation, and to set information indicating a difference between a position of an access unit at the end of a bitstream to be generated and a position of a previous non-discardable picture; and an encoding unit configured to encode the image data and generate the bitstream containing the encoded data of the image data and the header information set by the setting unit, the bitstream being for concatenation with another bitstream; wherein, when the current picture is neither a first picture of the bitstream nor a last picture of the bitstream, but is a reference picture, or when the current picture is the last picture of the bitstream, the setting unit sets the information indicating the NAL unit type at a value indicating a trailing picture to be referred to, the trailing picture not being of a temporal sublayer, sets the information indicating bitstream concatenation at "false", and sets the information indicating the difference between the position of the access unit at the end of the bitstream and the position of the previous non-discardable picture at 0.