mhurhangee/ep-ind-claims huggingface dataset:
An obstacle avoidance control method, comprising the steps of: receiving vehicle sensor data, which comprises a width of a current lane W R of the current vehicle, a velocity of the current vehicle, and a lateral position D B of an obstacle, wherein the lateral position D B of an obstacle is a position of the center of the obstacle to the center line of the current lane; calculating an obstacle safe boundary and a lane safe boundary based on the vehicle sensor data, wherein the obstacle safe boundary is calculated based on the following formula: Obstacle safe boundary = D B − W V 2 − D S 1, wherein Wv is a width of the current vehicle, and D S1 is a safe distance of the current vehicle from the obstacle, wherein the safe distance D S1 of the current vehicle from the obstacle is related to the velocity of the current vehicle, and wherein the lane safe boundary is calculated based on the following formula: Lane safe boundary = W R 2 − W V 2 − D S 2, wherein D S2 is a safe distance of the current vehicle crossing the current lane and is related to a type of the current lane of the current vehicle; and determining a passing region and a passing status for a current vehicle according to the obstacle safe boundary and the lane safe boundary. receiving vehicle sensor data, which comprises a width of a current lane W R of the current vehicle, a velocity of the current vehicle, and a lateral position D B of an obstacle, wherein the lateral position D B of an obstacle is a position of the center of the obstacle to the center line of the current lane; calculating an obstacle safe boundary and a lane safe boundary based on the vehicle sensor data, wherein the obstacle safe boundary is calculated based on the following formula: Obstacle safe boundary = D B − W V 2 − D S 1, wherein Wv is a width of the current vehicle, and D S1 is a safe distance of the current vehicle from the obstacle, wherein the safe distance D S1 of the current vehicle from the obstacle is related to the velocity of the current vehicle, and wherein the lane safe boundary is calculated based on the following formula: Lane safe boundary = W R 2 − W V 2 − D S 2, wherein D S2 is a safe distance of the current vehicle crossing the current lane and is related to a type of the current lane of the current vehicle; and determining a passing region and a passing status for a current vehicle according to the obstacle safe boundary and the lane safe boundary.
Apparatus for applying a foaming reaction mixture to a covering layer, in particular for producing a composite element, which at least comprises two casting rakes (200, 260) each having a tubular hollow body which extends along a central axis and has at least two outlet openings for exit of the foaming reaction mixture, where the casting rakes (200, 260) and the covering layer can be moved relative to one another along a longitudinal axis and where the casting rakes (200, 260) are arranged on an accommodation element, characterized in that the attachment of the casting rakes (200, 260) to the accommodation element in each case has a joint by means of which the casting rakes (200, 260) are arranged movably on the accommodation element and can be directed at an angle (400, 410) of ≤ 80° relative to the longitudinal axis of the motion.
An anchor assembly comprising an anchor member and a suture (10,20) having a loop (12, 22), the anchor member comprising: an elongate body having first and second ends, and an engagement portion spaced from the first and second ends configured to secure the elongate body relative to the loop, wherein the engagement portion includes first and second barbed portions (804a, 804b) extending towards each other; characterised in that the elongate body is configured to be received within the loop formed in the suture, the loop being received between the first and second barbed portions to prevent removal of the anchor member from the loop (12, 22). an elongate body having first and second ends, and an engagement portion spaced from the first and second ends configured to secure the elongate body relative to the loop, wherein the engagement portion includes first and second barbed portions (804a, 804b) extending towards each other; characterised in that the elongate body is configured to be received within the loop formed in the suture, the loop being received between the first and second barbed portions to prevent removal of the anchor member from the loop (12, 22).
Securing device for forming an electrical and/or mechanical connection between a busbar, mounting plate or conductive mounting surface and an electric line, comprising at least one clamp (16, 16') having a base part (18, 18') and two legs (20a, 20a', 20b, 20b') for clamping the line by virtue of the spring force of the legs (20a, 20a', 20b, 20b'), the securing device including at least one support (10, 10', 10") that can be arranged on the busbar, mounting plate or conductive mounting surface and is designed to receive the base part (18, 18') of the clamp (16, 16') in a locking manner, characterised in that several clamps (16, 16') having legs (20a, 20a', 20b, 20b') of differing dimensions but base parts (18, 18') of the same size are provided and that the support (10, 10', 10") has two locking projections (14a, 14b) for receiving the clamp (16, 16'), the projections (14a, 14b) being arranged at a distance from one another in such a manner that they engage in two corner regions of a recess in the base part (18, 18') of the clamp (16, 16').
A template processing program for executing steps on a control device of an operation terminal, which is connected with a print label producing apparatus configured to produce a print label using a template to which a print object is assigned and configured in a predetermined arrangement, and with a server configured to store a plurality of language versions of mutually different language types for said template prepared in advance, so that information is transmitted and received, and comprises an operation device, a display device configured to execute a preferred display, said control device, and a memory, said steps comprising: a language selection receiving step for receiving a selection of a plurality of language types that are different with each other via said operation device; a downloading step for downloading from said server a plurality of templates (T1, T2, T3) of said language version of said plurality of language types that are received in said language selection receiving step from among said templates (T1, T2, T3) of a plurality of language versions stored in said server; a combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) for generating a combined file where said plurality of templates (T1, T2, T3) of said language version of said plurality of language types received are downloaded in said downloading step and are respectively included as a sheet and combined into a single file; and a storing step for storing said combined file generated in said combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) in said memory. a language selection receiving step for receiving a selection of a plurality of language types that are different with each other via said operation device; a downloading step for downloading from said server a plurality of templates (T1, T2, T3) of said language version of said plurality of language types that are received in said language selection receiving step from among said templates (T1, T2, T3) of a plurality of language versions stored in said server; a combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) for generating a combined file where said plurality of templates (T1, T2, T3) of said language version of said plurality of language types received are downloaded in said downloading step and are respectively included as a sheet and combined into a single file; and a storing step for storing said combined file generated in said combined file generating step (S23, S24, S25; S221, S222, S23, S24, S25) in said memory.
A composition, comprising: a therapeutically effective amount of a hyaluronidase; and lysyl lysine (Lys-Lys) in an amount sufficient to render the hyaluronidase stable. a therapeutically effective amount of a hyaluronidase; and lysyl lysine (Lys-Lys) in an amount sufficient to render the hyaluronidase stable.
Device for the diagnosis of the operability of a particle filter for an exhaust gas stream of an internal combustion engine, the device comprising: - an exhaust conduit having an outer wall, the outer wall of the exhaust conduit defining a virtual bounding tubular envelope, the virtual bounding tubular envelope being the smallest possible tubular envelope having a circular cross-section co-planar to the cross-section of the exhaust conduit and completely surrounding the outer wall of the exhaust conduit at any position along the exhaust conduit, - an exhaust chamber having a detection filter, - a temperature sensor arranged in the exhaust chamber, the temperature sensor being arranged for measuring the temperature of a portion of the exhaust gas stream having passed through at least a part of the detection filter, wherein at least a portion of the exhaust chamber is thermally connected to the environment exterior to the exhaust conduit, and wherein the exhaust chamber is at least partly arranged within the virtual bounding tubular envelope over the entire length of the exhaust chamber. - an exhaust conduit having an outer wall, the outer wall of the exhaust conduit defining a virtual bounding tubular envelope, the virtual bounding tubular envelope being the smallest possible tubular envelope having a circular cross-section co-planar to the cross-section of the exhaust conduit and completely surrounding the outer wall of the exhaust conduit at any position along the exhaust conduit, - an exhaust chamber having a detection filter, - a temperature sensor arranged in the exhaust chamber, the temperature sensor being arranged for measuring the temperature of a portion of the exhaust gas stream having passed through at least a part of the detection filter,
Double-screw screw-spindle pump of single flow design having a pump housing which has a pump section, a bearing section and a gear mechanism section with a gear mechanism space, the bearing section and the pump section being configured separately from one another, having a conveyor housing part as a constituent part of the pump section, in which two conveying screws (24, 25) which have flanks (42, 43) and are arranged on shafts (22, 23) are provided, the shafts (22, 23) being mounted in the bearing section and extending into the gear mechanism section, the pump housing having an extruder section which is connected to the pump section, in that an extruder housing part is provided, through which the shafts (22, 23) extend, and in that extruder screws (27, 28) with flanks (50, 51) are provided on the shafts (22, 23), characterized in that the extruder screws (27, 28) have a pitch which is identical to a pitch of the conveying screws (24, 25).
A torque link assembly for an aircraft landing gear comprising: a first torque link; a second torque link, coupled to the first torque link via an apex pin; and further comprising: a friction pad coupled to one end of the apex pin; and characterised by further comprising: a friction wedge mounted to at least one of the first torque link and the second torque link; wherein the friction wedge is coupled to a slider; and further comprising a casing mounted to one of the first torque link and the second torque link, wherein the casing surrounds the friction wedge and the friction pad; and wherein the slider is mounted to the casing; and the casing comprises a cavity configured to receive the slider; and wherein the friction pad is configured to engage with the friction wedge to dampen oscillations along the apex pin. a first torque link; a second torque link, coupled to the first torque link via an apex pin; and further comprising: a friction pad coupled to one end of the apex pin; and characterised by further comprising: a friction wedge mounted to at least one of the first torque link and the second torque link; wherein the friction wedge is coupled to a slider; and further comprising a casing mounted to one of the first torque link and the second torque link, wherein the casing surrounds the friction wedge and the friction pad; and wherein the slider is mounted to the casing; and the casing comprises a cavity configured to receive the slider; and wherein the friction pad is configured to engage with the friction wedge to dampen oscillations along the apex pin. a friction pad coupled to one end of the apex pin; and characterised by further comprising: a friction wedge mounted to at least one of the first torque link and the second torque link; wherein the friction wedge is coupled to a slider; and further comprising a casing mounted to one of the first torque link and the second torque link, wherein the casing surrounds the friction wedge and the friction pad; and wherein the slider is mounted to the casing; and the casing comprises a cavity configured to receive the slider; and wherein the friction pad is configured to engage with the friction wedge to dampen oscillations along the apex pin.
A ring segment (10;40;50) with a cooling system that is formed from a plurality of segment bodies (11;41;51) that are to be arranged in a casing of a gas turbine in the circumferential direction of a rotating shaft of the gas turbine to form a ring shape, each segment body (11;41;51) of the ring segment (10;40;50) respectively comprising: a cooling space which is formed in the segment body (11;41;51) so as to be adjacent to an outer circumferential surface of a main body (12;42) of the segment body (11;41;51); a first cavity (20;43) that is arranged at an upstream end portion of the segment body (11;41;51) in an axial direction of the ring segment (10;40;50) and so as to extend in a circumferential direction of the ring segment (10;40;50); a plurality of first cooling passages (21;44) that communicate from the cooling space to the first cavity (20;43); and a plurality of second cooling passages (22;45) that are provided along an inner circumferential surface of the segment body (11;41;51) and communicate from the first cavity (20;43) to a combustion gas space at a downstream end portion of the segment body (11;41;51) in the axial direction of the ring segment (10;40;50). a cooling space which is formed in the segment body (11;41;51) so as to be adjacent to an outer circumferential surface of a main body (12;42) of the segment body (11;41;51); a first cavity (20;43) that is arranged at an upstream end portion of the segment body (11;41;51) in an axial direction of the ring segment (10;40;50) and so as to extend in a circumferential direction of the ring segment (10;40;50); a plurality of first cooling passages (21;44) that communicate from the cooling space to the first cavity (20;43); and a plurality of second cooling passages (22;45) that are provided along an inner circumferential surface of the segment body (11;41;51) and communicate from the first cavity (20;43) to a combustion gas space at a downstream end portion of the segment body (11;41;51) in the axial direction of the ring segment (10;40;50).
A method for isolating a tertiary amino alcohol from a tertiary amino alcohol aqueous solution containing a heterocyclic amine compound, the method comprising: generating an enamine by adding a ketone represented by the following general formula to the tertiary amino alcohol aqueous solution; where R 4 and R 5 indicate aliphatic groups or aromatic groups having 1 to 18 carbon atoms, R 4 and R 5 may be the same or different, R 4 and R 5 may be joined to form a ring structure, and at least one of R 4 and R 5 is an aliphatic group; isolating the enamine from the tertiary amino alcohol aqueous solution; and isolating the tertiary amino alcohol from a residual liquid obtained by isolating the enamine wherein said tertiary amino alcohol is represented by the following formula where R 1, R 2 and R 3 are hydrocarbon groups having 1 to 6 carbon atoms, R 1, R 2 and R 3 may be the same or different from each other, and at least one of R 1, R 2 and R 3 is a hydrocarbon group having a hydroxyl group; and wherein the heterocyclic amine compound is at least one kind selected from the group consisting of piperazine, 2-methylpiperazine, and 2,5-dimethylpiperazine. generating an enamine by adding a ketone represented by the following general formula to the tertiary amino alcohol aqueous solution; where R 4 and R 5 indicate aliphatic groups or aromatic groups having 1 to 18 carbon atoms, R 4 and R 5 may be the same or different, R 4 and R 5 may be joined to form a ring structure, and at least one of R 4 and R 5 is an aliphatic group; isolating the enamine from the tertiary amino alcohol aqueous solution; and isolating the tertiary amino alcohol from a residual liquid obtained by isolating the enamine wherein said tertiary amino alcohol is represented by the following formula where R 1, R 2 and R 3 are hydrocarbon groups having 1 to 6 carbon atoms, R 1, R 2 and R 3 may be the same or different from each other, and at least one of R 1, R 2 and R 3 is a hydrocarbon group having a hydroxyl group; and wherein the heterocyclic amine compound is at least one kind selected from the group consisting of piperazine, 2-methylpiperazine, and 2,5-dimethylpiperazine.
A device for securing an open bottom of a piece of tube, which consists of at least one plastic material, by means of at least one circulating belt, which can be guided over a front deflection roller and at least one further roller, wherein the open side of the bottom can be acted on by the circulating belt, wherein the bottom can be pressed against a counter-contact surface by the circulating belt, characterized in that the front deflection roller is spaced apart from the counter-contact surface and that viewed in the transport direction of the piece of tube at least one pressure roller follows the front deflection roller, with which pressure roller the belt can be pressed against the counter-contact surface.
A data processing method, comprising: obtaining, by a base station, a demodulation pilot pattern in a transmission time unit, wherein the demodulation pilot pattern comprises a first demodulation pilot pattern of a first codeword and a second demodulation pilot pattern of a second codeword; the first demodulation pilot pattern indicates a time-frequency resource of each orthogonal frequency division multiplexing OFDM symbol in a first set, and the second demodulation pilot pattern indicates a time-frequency resource of each OFDM symbol in a second set; and a modulation and coding MCS indication value of the first codeword is greater than an MCS indication value of the second codeword; and mapping, by the base station, a pilot signal to a time-frequency resource based on the demodulation pilot pattern, and sending the pilot signal, wherein a sending moment of a first OFDM symbol in the first set is before a sending moment of a first OFDM symbol in the second set, the first OFDM symbol in the first set is an OFDM symbol with an earliest sending moment in the first set, and the first OFDM symbol in the second set is an OFDM symbol with an earliest sending moment in the second set. obtaining, by a base station, a demodulation pilot pattern in a transmission time unit, wherein the demodulation pilot pattern comprises a first demodulation pilot pattern of a first codeword and a second demodulation pilot pattern of a second codeword; the first demodulation pilot pattern indicates a time-frequency resource of each orthogonal frequency division multiplexing OFDM symbol in a first set, and the second demodulation pilot pattern indicates a time-frequency resource of each OFDM symbol in a second set; and a modulation and coding MCS indication value of the first codeword is greater than an MCS indication value of the second codeword; and mapping, by the base station, a pilot signal to a time-frequency resource based on the demodulation pilot pattern, and sending the pilot signal, wherein a sending moment of a first OFDM symbol in the first set is before a sending moment of a first OFDM symbol in the second set, the first OFDM symbol in the first set is an OFDM symbol with an earliest sending moment in the first set, and the first OFDM symbol in the second set is an OFDM symbol with an earliest sending moment in the second set.
A baseband processing method, comprising: receiving a downlink, DL, baseband, BB, signal in a transmission time interval, TTI, wherein the DL BB signal comprises a time-frequency resource comprising a control section and a data section; decoding at least part of the control section to detect a DL grant information indicating granted Physical Downlink Shared Channel DL resource blocks; characterized in that if the DL grant information is detected, determine a number of granted data resource blocks from the DL grant information; and adjust at least one of a clock rate and supply voltage of the baseband processing based on the number of granted resource blocks. receiving a downlink, DL, baseband, BB, signal in a transmission time interval, TTI, wherein the DL BB signal comprises a time-frequency resource comprising a control section and a data section; decoding at least part of the control section to detect a DL grant information indicating granted Physical Downlink Shared Channel DL resource blocks; characterized in that if the DL grant information is detected, determine a number of granted data resource blocks from the DL grant information; and adjust at least one of a clock rate and supply voltage of the baseband processing based on the number of granted resource blocks.
Method for reconstructing dynamic image data, having the following steps: - time-dependent acquisition of magnetic resonance signals as raw data from an examination region (FoV) of a patient, wherein at least some of the raw data is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, - reconstruction of first time-dependent image data (BD 1), based on the acquired raw data, - ascertainment of deformation fields based on first image data (BD 1) as a function of the at least two time-dependent movement parameters (BPt), - generation of corrected image data (BD k) based on deformation fields, the raw data and the first image data (BD 1), wherein for the generation of corrected image data (BD k) based on deformation fields, raw data (RD s) synthesised for different values of the at least two time-dependent movement parameters (BP t) is ascertained and raw data acquired on the basis of synthesised raw data (RD s) is reallocated to changed values of movement parameters (BPt). - time-dependent acquisition of magnetic resonance signals as raw data from an examination region (FoV) of a patient, wherein at least some of the raw data is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, wherein at least some of the raw data is assigned to different values of at least two movement parameters (BPt), wherein the at least two time-dependent movement parameters are the time and a respiratory condition or the time and a heart movement condition, - reconstruction of first time-dependent image data (BD 1), based on the acquired raw data, - ascertainment of deformation fields based on first image data (BD 1) as a function of the at least two time-dependent movement parameters (BPt), - generation of corrected image data (BD k) based on deformation fields, the raw data and the first image data (BD 1),
Apparatus for humidifying air in an air duct, having a feed device for a liquid mist and having an air conducting device located upstream of this feed device in the flow direction, characterised in that the air conducting device comprises at least one wing extending transversely to the flow direction and having an aerofoil profile which is pitched with respect to the flow direction.