mhurhangee/ep-ind-claims huggingface dataset:
A charging cable housing apparatus comprising: a charging cable; a base plate; a winding core provided on said base plate such that it can rotate about a rotation shaft and having said charging cable wound around an outer peripheral surface thereof; an end plate disposed on a side of said winding core opposite to said base plate and provided with a first slit extending from said winding core in a radial direction and having a predetermined width; and a side plate surrounding around said winding core in a position at a predetermined distance away from said winding core in said radial direction, disposed to connect said base plate and said end plate, and provided with a second slit communicating with said first slit, one end of said charging cable wound around said winding core being pulled out through said first slit or said second slit, said base plate being fixed to a wall, said first slit being provided to extend vertically downward from said winding core, said second slit being provided vertically below said winding core along an axial direction of said winding_core, an interval between a pair of end surfaces (101T, 101T) of said end plate that face said first slit being provided to increase outwardly in said radial direction, such that said first slit has a fan_shape, and an interval between outermost ends of said pair of end surfaces (101T, 101T) being provided to be greater than twice a maximum winding radius formed by said charging cable when it is wound around said winding core. a charging cable; a base plate; a winding core provided on said base plate such that it can rotate about a rotation shaft and having said charging cable wound around an outer peripheral surface thereof; an end plate disposed on a side of said winding core opposite to said base plate and provided with a first slit extending from said winding core in a radial direction and having a predetermined width; and a side plate surrounding around said winding core in a position at a predetermined distance away from said winding core in said radial direction, disposed to connect said base plate and said end plate, and provided with a second slit communicating with said first slit, one end of said charging cable wound around said winding core being pulled out through said first slit or said second slit, said base plate being fixed to a wall, said first slit being provided to extend vertically downward from said winding core, said second slit being provided vertically below said winding core along an axial direction of said winding_core, an interval between a pair of end surfaces (101T, 101T) of said end plate that face said first slit being provided to increase outwardly in said radial direction, such that said first slit has a fan_shape, and an interval between outermost ends of said pair of end surfaces (101T, 101T) being provided to be greater than twice a maximum winding radius formed by said charging cable when it is wound around said winding core.
Use of a steel in cold forging or warm forging or hot forging and then carburizing or carbonitriding, the steel comprising, in mass%: C: 0.001 to less than 0.07%, Si: 3.0% or less, Mn: 0.01 to 4.0%, Cr: 5.0% or less, P: 0.2% or less, S: 0.35% or less, Al: 0.0001 to 2.0%, N: 0.03% or less, B: not less than BL given by Equation below and not greater than 0.008%, Ti: 0.15% or less (including 0%), one or both of Mo: 1.5% or less (including 0%) and Ni: 4.5% or less (including 0%), and optionally one or more selected from: Cu: 0.6 to 2.0%, V: 0.01 to 0.5%, Mg: 0.0002 to 0.003%, Te: 0.0002 to 0.003%, Ca: 0.0003 to 0.003%, Zr: 0.0003 to 0.005%, and REM: 0.0003 to 0.005% and a balance of iron and unavoidable impurities; wherein Di given by the following Equation is 60 or greater: Di = 5.41 × Di Si × Di Mn × Di Cr × Di Mo × Di Ni × Di Al × Di Cu × 1.976 where Di Si = 0.7 × % Si + 1, Di Mn = 3.335 × % Mn + 1 when Mn ≤ 1.2 %, Di Mn = 5.1 × % Mn − 1.12 when 1.2 % < Mn, Di Ni = 0.3633 × % Ni + 1 when Ni ≤ 1.5 %, Di Ni = 0.442 × % Ni + 0.8884 when 1.5 % < Ni ≤ 1.7, Di Ni = 0.4 × % Ni + 0.96 when 1.7 % < Ni ≤ 1.8, Di Ni = 0.7 × % Ni + 0.42 when 1.8 % < Ni ≤ 1.9, Di Ni = 0.2867 × % Ni + 1.2055 when 1.9 % < Ni, Di Cr = 2.16 × % Cr + 1, Di Mo = 3 × % Mo + 1, Di Al = 1 when Al ≤ 0.05 %, Di Al = 4 × % Al + 1 when 0.05 % < Al, Di Cu = 1 when Cu ≤ 1 % and Di Cu = 0.36248 × % Cu + 1.0016 when 1 % < Cu, wherein BL = 0.0004 + 10.8 / 14 × % N − 14 / 47.9 × % Ti where ([%N] - 14 / 47.9 x [%Ti]) of less than 0 is treated as 0, a symbol in brackets [] indicating content (mass%) of the element concerned. C: 0.001 to less than 0.07%, Si: 3.0% or less, Mn: 0.01 to 4.0%, Cr: 5.0% or less, P: 0.2% or less, S: 0.35% or less, Al: 0.0001 to 2.0%, N: 0.03% or less, B: not less than BL given by Equation below and not greater than 0.008%, Ti: 0.15% or less (including 0%), one or both of Mo: 1.5% or less (including 0%) and Ni: 4.5% or less (including 0%), and optionally one or more selected from: Cu: 0.6 to 2.0%, V: 0.01 to 0.5%, Mg: 0.0002 to 0.003%, Te: 0.0002 to 0.003%, Ca: 0.0003 to 0.003%, Zr: 0.0003 to 0.005%, and REM: 0.0003 to 0.005% and a balance of iron and unavoidable impurities; Cu: 0.6 to 2.0%, V: 0.01 to 0.5%, Mg: 0.0002 to 0.003%, Te: 0.0002 to 0.003%, Ca: 0.0003 to 0.003%, Zr: 0.0003 to 0.005%, and REM: 0.0003 to 0.005% and a balance of iron and unavoidable impurities; ([%N] - 14 / 47.9 x [%Ti]) of less than 0 is treated as 0,
A docking device which is designed to connect a surgical instrument to a holding arm of a surgical holding device in a docking situation, wherein the surgical instrument has a rod-shaped shaft and a handle and is designed to be guided by means of a trocar, wherein the docking device has a two-part adapter device which can be connected at a proximal end to the holding arm and at a distal end to the surgical instrument, wherein the two-part adapter device has - a first adapter with an elongated section having a longitudinal axis, and a connecting body which is present at a distal end of the first adapter and which has a first engagement element with a terminal connection surface, and - a second adapter, which is designed to be arranged on the shaft of the surgical instrument and which has an engagement element pointing towards and corresponding to the terminal connection surface in the docking situation, wherein the connecting body of the first adapter forms a detachable connection with the corresponding engagement element of the second adapter in the docking situation, characterised in that the terminal connection surface of the first adapter is inclined in relation to its longitudinal axis by a predetermined first angle (α), which is in a range from 45° to 75°. the docking device has a two-part adapter device which can be connected at a proximal end to the holding arm and at a distal end to the surgical instrument, wherein the two-part adapter device has - a first adapter - a first adapter with an elongated section having a longitudinal axis, and a connecting body which is present at a distal end of the first adapter and which has a first engagement element with a terminal connection surface, and - a second adapter, - a second adapter, which is designed to be arranged on the shaft of the surgical instrument and which has an engagement element pointing towards and corresponding to the terminal connection surface in the docking situation, wherein the connecting body of the first adapter forms a detachable connection with the corresponding engagement element of the second adapter in the docking situation, characterised in that the terminal connection surface of the first adapter is inclined in relation to its longitudinal axis by a predetermined first angle (α), which is in a range from 45° to 75°.
Structure bearing for absorbing horizontal forces in the form of a guide bearing, having an upper and a lower connecting element (2, 3) for connecting the structure bearing to a building structure, with at least one bearing element arranged between the upper and lower connecting element (2, 3), and with at least one guide element for horizontal guidance during the relative movement of the structural bearing parts in relation to one another, wherein the bearing element is movable relative to the guide element, characterized in that the at least one guide element has, or at least partially forms, an adjustment element for reducing the guidance clearance, wherein at least one wedge element is arranged between the guide element and the bearing element and a further wedge-shaped surface is formed by a surface of the guide element.
A multiple-output DC/DC converter comprising: a converter including a transformer and a first surge absorbing unit, wherein the transformer includes a first switch provided to a primary side and outputs a first voltage to a secondary side, and the first surge absorbing unit is connected to the primary side of the transformer and absorbs a surge voltage formed at the first switch by a leakage inductance of the transformer; and a first energy converting unit to receive output energy supplied from the first surge absorbing unit and output a second voltage, characterized in that the first surge absorbing unit includes a first capacitor connected to the primary side of the transformer and a first diode, and the first energy converting unit has a voltage between both terminals of the first capacitor as an input voltage, wherein the converter is a first flyback converter and the first energy converting unit is a second flyback converter, the first voltage of the first flyback converter is n1*Vi/(1-D1) and an output of the second flyback converter is n2*Vc/(1-D2), n1 is a turn ratio of a transformer of the first flyback converter, Vi is an input voltage, D1 is a duty ratio of a first PWM signal for driving the first switch, and n2 is a turn ratio of a transformer of the second flyback converter, Vc is a voltage between both terminals of the first capacitor, and D2 is a duty ratio of a second PWM signal for driving the second switch of the second flyback converter, wherein the first PWM signal and the second PWM signal are provided from a single PWM control unit. a converter including a transformer and a first surge absorbing unit, wherein the transformer includes a first switch provided to a primary side and outputs a first voltage to a secondary side, and the first surge absorbing unit is connected to the primary side of the transformer and absorbs a surge voltage formed at the first switch by a leakage inductance of the transformer; and a first energy converting unit to receive output energy supplied from the first surge absorbing unit and output a second voltage, characterized in that the first surge absorbing unit includes a first capacitor connected to the primary side of the transformer and a first diode, and the first energy converting unit has a voltage between both terminals of the first capacitor as an input voltage, wherein the converter is a first flyback converter and the first energy converting unit is a second flyback converter, the first voltage of the first flyback converter is n1*Vi/(1-D1) and an output of the second flyback converter is n2*Vc/(1-D2), n1 is a turn ratio of a transformer of the first flyback converter, Vi is an input voltage, D1 is a duty ratio of a first PWM signal for driving the first switch, and n2 is a turn ratio of a transformer of the second flyback converter, Vc is a voltage between both terminals of the first capacitor, and D2 is a duty ratio of a second PWM signal for driving the second switch of the second flyback converter, wherein the first PWM signal and the second PWM signal are provided from a single PWM control unit.
A plastering strip for placement at a building transition between a first building component, in particular a roller shutter guide rail, a slat guide rail, a window sill, a window or door frame, a pilaster strip, a beam or a plinth, and a second building component, in particular a thermal insulation (56, 66, 76) and/or a plaster layer on a thermal insulation (56, 66, 76) or on a building wall; comprising: a base area, wherein a sealing strip is arranged on the rear side of the base area, and wherein a plastering portion is arranged on the base area; wherein the sealing strip has an inner side and an outer side; wherein a removable fixing leg is arranged at an outer end of the base area arranged outside the outer side of the sealing strip; wherein the removable fixing leg is integrally connected to the base area via a connecting bridge; and wherein the fixing leg has an upper side and an underside; characterized in that the fixing leg is adapted in a pivotable and removable manner; and the fixing leg comprises an adhesive strip which is fastened to the underside of the fixing leg, in particular, is glued to the underside of the fixing leg. a base area, wherein a sealing strip is arranged on the rear side of the base area, and wherein a plastering portion is arranged on the base area; wherein the sealing strip has an inner side and an outer side; wherein a removable fixing leg is arranged at an outer end of the base area arranged outside the outer side of the sealing strip; wherein the removable fixing leg is integrally connected to the base area via a connecting bridge; and wherein the fixing leg has an upper side and an underside; characterized in that the fixing leg is adapted in a pivotable and removable manner; and the fixing leg comprises an adhesive strip which is fastened to the underside of the fixing leg, in particular, is glued to the underside of the fixing leg.
A method for indicating a relay link boundary, comprising the steps of: a base station indicating, to a relay node, the relay link boundary corresponding to the relay node; and the relay node determining the relay link boundary according to the indication of the base station; characterized in that the relay link boundary corresponding to the relay node is a starting position of other resource available to relay links other than that of Relay-Link Physical Downlink Control Channel, R-PDCCH to the relay node; the step of the base station indicating the relay link boundary corresponding to the relay node further comprises: the base station transmitting indication information to the relay node to indicate the relay link boundary by means of the indication information, wherein the indication information indicates a symbol position corresponding to the relay link boundary. a base station indicating, to a relay node, the relay link boundary corresponding to the relay node; and the relay node determining the relay link boundary according to the indication of the base station; characterized in that the relay link boundary corresponding to the relay node is a starting position of other resource available to relay links other than that of Relay-Link Physical Downlink Control Channel, R-PDCCH to the relay node; the step of the base station indicating the relay link boundary corresponding to the relay node further comprises: the base station transmitting indication information to the relay node to indicate the relay link boundary by means of the indication information, wherein the indication information indicates a symbol position corresponding to the relay link boundary.
A space machine comprising: a main body having a plurality of surfaces, the directions of normal lines of which are different from each other; characterized by a plurality of light collecting lenses respectively arranged on said plurality of surfaces to collect incident sun light into an inside of said main body; a solar cell arranged inside the main body; and a driving section configured to drive said solar cell to direct said solar cell to a selected one of the plurality of light collecting lenses, so that said solar cell receives the light collected by said selected one of the plurality of light collecting lenses to generate power. a main body having a plurality of surfaces, the directions of normal lines of which are different from each other; characterized by a plurality of light collecting lenses respectively arranged on said plurality of surfaces to collect incident sun light into an inside of said main body; a solar cell arranged inside the main body; and a driving section configured to drive said solar cell to direct said solar cell to a selected one of the plurality of light collecting lenses, so that said solar cell receives the light collected by said selected one of the plurality of light collecting lenses to generate power.
A vehicle heating apparatus (100A-100D) to be mounted on a vehicle seat at a position below a sitting portion of the vehicle seat, the vehicle heating apparatus (100A-100D) comprising: a housing having an intake port, a blowing port, and an internal space serving as a flow path of air from the intake port to the blowing port; a fan provided in the internal space; and a heater provided in the internal space; characterized by a mounting structure adapted to mount the housing to the vehicle seat in such a manner that the housing is movable in a width direction of the vehicle seat. a housing having an intake port, a blowing port, and an internal space serving as a flow path of air from the intake port to the blowing port; a fan provided in the internal space; and a heater provided in the internal space; characterized by a mounting structure adapted to mount the housing to the vehicle seat in such a manner that the housing is movable in a width direction of the vehicle seat.
A medicament for use in treating pulmonary hypertension, comprising a compound selected from the group consisting of -N-[1-ethyl-1-(4-ethylphenyl)propyl]-2,7,7-trimethyl-5-phenyl-4,5,6,7-tetrahydropyrazolo[1,5-a]pyrimidine-3-carboxamide, -N-[1-ethyl-1-(4-methoxyphenyl)propyl]-2,7,7-trimethyl-5-phenyl-4,5,6,7-tetrahydropyrazolo[1,5-a]pyrimidine-3-carboxamide, -N-[1-ethyl-1-(4-ethylphenyl)propyl]-5-(2-fluorophenyl)-2,7,7-trimethyl-4,5,6,7-tetrahydropyrazolo[1,5-a]pyrimidine-3-carboxamide, and a salt thereof.
A DNase variant, comprising one or more substitutions selected from the group consisting of N4E, L17E, T19A, T19G, T19I, K36P, Q38P, S39V, S39R, A40P, A40H, L41T, L41H, V45H, L51G, K53T, K53P, G54P, A55P, E64A, E64Q, E64R, E64T, E64I, E64S, T66H, K67A, K67T, N68V, N68P, N68I, N68H, S69A, S69D, S69E, S69K, S69L, S69W, S69Y, S69Q, N70T, N70H, N70G, R71T, D72E, S74H, S74G, G75I, N77T, K82P, K82I, D83T, D83P, D83I, D83H, D83G, P84H, Q85T, Q85P, Q85H, K86T, K86P, K86H, G88P, G88H, A91P, W99T, A101W, K105E, K105N, K105T, K105D, S106T, S115T, L116I, Q135L, G136L, V138I, V138L, V138P, V138Q, L139A, N140R, N140L, N140A, G141L, F151R, D152Y, D152L, D152I, D152A, P153E, S154R, T162R, W163E, F164R, I166Y, I166R, K168N, F169R, F169E, A173I, A173R, A173T, S182R, N183E, D184I, K185Y, S186I, D189G, D189H, K212G, K212P and K215I, wherein the positions correspond to the positions of SEQ ID NO: 1, wherein the variant has a sequence identity to the mature polypeptide of SEQ ID NO: 1 of at least 80%, wherein the variant has DNase activity and wherein the variant has improved detergent stability as compared to the polypeptide of SEQ ID NO: 1.
A system for the cultivation of plants, comprising: - a cultivation table, where plants to be cultivated are placed for at least a growing stage, wherein the plant seedlings with their growing substrates placed in elongated troughs are placed at the initial end of the cultivation table, and wherein the plants grown further with their growing substrates placed in elongated troughs are placed at the terminal end of the cultivation table; characterized in that the system further comprises: - growing substrates with their sown seeds of the plant placed in elongated troughs are placed at the initial end of the cultivation table for a germination stage, during which the sown seeds of the plant are germinated to the seedlings of the plant; - wherein each growing substrate is an elongated or band-like element placed in the elongated trough and having the sown seeds of the plant with a selected spacing between the seeds, and - wherein the sown seeds of the plant, the seedlings of the plant and the grown plants and their growing substrates are placed in the elongated troughs and on the cultivation table during both the germination stage and the growing stage. - a cultivation table, where plants to be cultivated are placed for at least a growing stage, wherein the plant seedlings with their growing substrates placed in elongated troughs are placed at the initial end of the cultivation table, and wherein the plants grown further with their growing substrates placed in elongated troughs are placed at the terminal end of the cultivation table; - growing substrates with their sown seeds of the plant placed in elongated troughs are placed at the initial end of the cultivation table for a germination stage, during which the sown seeds of the plant are germinated to the seedlings of the plant; - wherein each growing substrate is an elongated or band-like element placed in the elongated trough and having the sown seeds of the plant with a selected spacing between the seeds, and - wherein the sown seeds of the plant, the seedlings of the plant and the grown plants and their growing substrates are placed in the elongated troughs and on the cultivation table during both the germination stage and the growing stage.
Method for determining a value of a movement-dependent variable by means of an apparatus having a tachograph unit and a data interface, which data interface receives measured values (MW_n), which measured values (MW_n) are provided by sensors (SENS_n), wherein the movement-dependent variable is a position value or a speed value, and in which method - a first sensor (SENS_1) provides a first measured value (MW_1) representing the movement-dependent variable, - a second sensor (SENS_2) provides a second, independent measured value (MW_2) representing the movement-dependent variable, - each measured value (MW_n) is assigned a confidence value (VW_n) which is representative of a manipulation probability of the respective measured value (MW_n), - the respective sensor (SENS_n) which provides the assigned measured value (MW_n) carries out a self-diagnosis, - the respective confidence value (VW_n) is determined on the basis of the self-diagnosis of the respective sensor which provides the assigned measured value (MW_n), - the value of the movement-dependent variable is determined on the basis of the first measured value (MW_1) and the second measured value (MW_2) and their respective confidence value (VW_n), - wherein the measured values (MW 1 - MW_n) are weighted with the respective confidence value (VW_n). - a first sensor (SENS_1) provides a first measured value (MW_1) representing the movement-dependent variable, - a second sensor (SENS_2) provides a second, independent measured value (MW_2) representing the movement-dependent variable, - each measured value (MW_n) is assigned a confidence value (VW_n) which is representative of a manipulation probability of the respective measured value (MW_n), - the respective sensor (SENS_n) which provides the assigned measured value (MW_n) carries out a self-diagnosis, - the respective confidence value (VW_n) is determined on the basis of the self-diagnosis of the respective sensor which provides the assigned measured value (MW_n), - the value of the movement-dependent variable is determined on the basis of the first measured value (MW_1) and the second measured value (MW_2) and their respective confidence value (VW_n), - wherein the measured values (MW 1 - MW_n) are weighted with the respective confidence value (VW_n).