mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting a Dual Tone Multi-Frequency, DTMF, digit, comprising: detecting, by a Media Gateway, MG, according to a set first DTMF digit detection event, a control DTMF digit received in a control phase, wherein the set first DTMF digit detection event is set by a Media Gateway Controller, MGC, for the MG; and reporting, by the MG, the first DTMF digit detection event to the MGC when the control DTMF digit is detected; wherein the reported first DTMF digit detection event carries the control DTMF digit; wherein a value of an event parameter named "Type" carried in the set first DTMF digit detection event being "cont" indicates that the MG should report the control DTMF digit detected in the control phase, and a value of an event parameter named "Type" carried in the reported first DTMF digit detection event being "cont" indicates that the control DTMF digit is detected in the control phase. detecting, by a Media Gateway, MG, according to a set first DTMF digit detection event, a control DTMF digit received in a control phase, wherein the set first DTMF digit detection event is set by a Media Gateway Controller, MGC, for the MG; and reporting, by the MG, the first DTMF digit detection event to the MGC when the control DTMF digit is detected; wherein the reported first DTMF digit detection event carries the control DTMF digit; wherein a value of an event parameter named "Type" carried in the set first DTMF digit detection event being "cont" indicates that the MG should report the control DTMF digit detected in the control phase, and a value of an event parameter named "Type" carried in the reported first DTMF digit detection event being "cont" indicates that the control DTMF digit is detected in the control phase.
A method for transmitting to a user equipment, UE, control information comprising: channelization-code-set information consisting of seven bits (x ccs,1, x ccs,2,..., x ccs,7); modulation-scheme and number of transport blocks information consisting of five bits (x ms,1, x ms,2, x ms,3, x ms,4, x ms,5); and precoding weight information consisting of four bits (x pwipb,1, x pwipb,2, x pwipb,3, x pwipb,4), the method comprising: multiplexing the channelization-code-set information, the modulation-scheme and number of transport blocks information and the precoding weight information to give a sequence of sixteen bits (x 1,1, x 1,2,..., x 1,16,) where x 1,i = x ccs,i for i=1,2,...,7; x 1,i = x ms,i-7 for i=8,9,10,11,12; and x 1,i = x pwipb,i-12 for i=13,14,15,16; applying rate 1/2 convolutional coding to the sequence of bits x 1,1, x 1,2,..., x 1,16 to obtain a forty-eight bit sequence, (z 1,1, z 1,2,..., z 1,48) (1208,1210); and characterized by puncturing the bits z 1,1, z 1,2, z 1,4, z 1,8, z 1,42, z 1,45, z 1,47, z 1,48 from sequence z 1,1, z 1,2,..., z 1,48 to obtain an output sequence consisting of forty bits (r 1,1,r 1,2... r 1,40). multiplexing the channelization-code-set information, the modulation-scheme and number of transport blocks information and the precoding weight information to give a sequence of sixteen bits (x 1,1, x 1,2,..., x 1,16,) where x 1,i = x ccs,i for i=1,2,...,7; x 1,i = x ms,i-7 for i=8,9,10,11,12; and x 1,i = x pwipb,i-12 for i=13,14,15,16; applying rate 1/2 convolutional coding to the sequence of bits x 1,1, x 1,2,..., x 1,16 to obtain a forty-eight bit sequence, (z 1,1, z 1,2,..., z 1,48) (1208,1210); and characterized by puncturing the bits z 1,1, z 1,2, z 1,4, z 1,8, z 1,42, z 1,45, z 1,47, z 1,48 from sequence z 1,1, z 1,2,..., z 1,48 to obtain an output sequence consisting of forty bits (r 1,1,r 1,2... r 1,40).
A control unit comprising a control part for controlling a heater which heats an aerosol source, wherein the control part is constructed to control temperature of the heater to bring the temperature to a first target temperature during a first period, control the temperature of the heater to bring the temperature to a second target temperature that is lower than the first target temperature during a second period after the first period, and control the temperature of the heater to bring the temperature to a third target temperature during a third period after the second period, characterized in that, the third target temperature is lower than the second target temperature and thereby providing a delivery profile of aerosol comprising an ascending curve in an initial period, an upwardly convex curve having a maximum point in an intermediate period, and a descending curve in a final period, the delivery profile of aerosol represents a time variation of aerosol components delivered to an inside of a mouth of a user, the delivery profile of aerosol has a shape that is time-delayed relative to a heating profile of the heater, and the heating profile of the heater represents a time variation of the target temperatures (TA1, TA2, TA3). a control part for controlling a heater which heats an aerosol source, wherein the control part is constructed to control temperature of the heater to bring the temperature to a first target temperature during a first period, control the temperature of the heater to bring the temperature to a second target temperature that is lower than the first target temperature during a second period after the first period, and control the temperature of the heater to bring the temperature to a third target temperature during a third period after the second period, characterized in that, the third target temperature is lower than the second target temperature and thereby providing a delivery profile of aerosol comprising an ascending curve in an initial period, an upwardly convex curve having a maximum point in an intermediate period, and a descending curve in a final period, the delivery profile of aerosol represents a time variation of aerosol components delivered to an inside of a mouth of a user, the delivery profile of aerosol has a shape that is time-delayed relative to a heating profile of the heater, and the heating profile of the heater represents a time variation of the target temperatures (TA1, TA2, TA3).
A busbar for a battery system, comprising: - a first bar element and a second bar element spaced apart, - a third bar element connecting the first bar element and the second bar element to form a common bar, - a first terminal arranged in the first bar element, and - a second terminal arranged in the second bar element, the busbar further comprises a solid state switch, the solid state switch being adapted to electrically interconnect the first terminal and the second terminal, wherein the solid state switch comprises a plurality of FETs (42a, 42b), characterized in that the solid state switch is structurally and electrically integrated into the busbar, wherein the FET (42a, 42b) includes a drain contact located on a rear first- surface of the FET (42a, 42b), and source and gate contacts located on a top surface of the FET (42a, 42b) opposite to the first surface, wherein the rear surface of the FET (42a, 42b) is directly coupled to one of the first and second bar elements (10, 20) so that the drain contact of the FET (42a, 42b) is electrically connected to the one of the first and second bar elements (10, 20), and wherein the top surface of the FET (42a, 42b) is directly coupled to the third bar element so that the source and gate contacts of the FET (42a, 42b) are electrically connected to the third bar element. - a first bar element and a second bar element spaced apart, - a third bar element connecting the first bar element and the second bar element to form a common bar, - a first terminal arranged in the first bar element, and - a second terminal arranged in the second bar element,
An automatic analyzer having reagent suction/discharge means (45, 46) for inserting a nozzle into the opening of a reagent vessel, suctioning a reagent from the reagent vessel, and discharging the suctioned reagent into a reaction cuvette, the automatic analyzer comprising: reagent vessel information input means for inputting the size of the opening of the reagent vessel; a plurality of different types of liquid surface contact detection means (414, 417) for detecting the contact of the nozzle to the liquid surface of the reagent in the reagent vessel; and operation control means for selecting one of the different types of liquid surface contact detection means (414, 417) in accordance with the size of the opening of the reagent vessel as input from the reagent vessel information input means and controlling a reagent suctioning operation of the reagent suction/discharge means (45, 46) in accordance with a liquid surface contact detection signal from the selected liquid surface contact detection means (414, 417). reagent vessel information input means for inputting the size of the opening of the reagent vessel; a plurality of different types of liquid surface contact detection means (414, 417) for detecting the contact of the nozzle to the liquid surface of the reagent in the reagent vessel; and operation control means for selecting one of the different types of liquid surface contact detection means (414, 417) in accordance with the size of the opening of the reagent vessel as input from the reagent vessel information input means and controlling a reagent suctioning operation of the reagent suction/discharge means (45, 46) in accordance with a liquid surface contact detection signal from the selected liquid surface contact detection means (414, 417).
A compound having formula III wherein X1 is N or C, R2 is hydrogen or halogen, R4 is hydrogen or fluoro, R5 is hydrogen or halogen, R6 is selected from halogen, cyano, C 3-5 cycloalkyl, C 3-5 cycloalkylmethoxy, phenyloxy, benzyloxy, benzylmethoxy, pyridinylmethoxy, C 1-3 alkoxy and C 1-3 alkyl, wherein each cycloalkyl, benzyl, pyridinyl, alkyl and alkoxy can be substituted with one or more substituent selected from halogen, cyano, C 1-.2 alkoxy and fluoroC 1-.2 alkoxy, or R6 together with R7 and the C-atoms to which they are attached form a five or six-membered aromatic or non-aromatic ring which may comprise one or two ring forming heteroatoms, wherein said ring is preferably a phenyl or pyridyl, and wherein said ring is unsubstituted or substituted with one to three residues R13, R7, if present, is selected from hydrogen and halogen, or R7 forms a ring together with R6 as described above, R8 is selected from hydrogen, halogen, methoxy, ethoxy, fluoromethoxy and fluoroethoxy, R10 is selected from hydrogen, cyano, halogen, C 3-5 cycloalkyl, C 3-5 cycloalkyloxy, C 3-5 cycloalkylmethoxy, C 1-4 alkoxy, and C 1-4 alkyl, wherein each cycloalkyl, cycloalkyloxy, alkyl and alkoxy can be substituted with one or more substituent selected from halogen, C 1-3 alkoxy, fluoro(C 1-3) alkoxy and cyano, R11 is selected from hydrogen, fluoro and methoxy, R12 is selected from hydrogen, methoxy and halogen, R13, in each occurrence, is independently selected from halogen, hydroxy, cyano, methyl, methoxy, fluoromethyl and fluoromethoxy, and pharmaceutically acceptable salts, solvates and isotopes thereof. wherein X1 is N or C, R2 is hydrogen or halogen, R4 is hydrogen or fluoro, R5 is hydrogen or halogen, R6 is selected from halogen, cyano, C 3-5 cycloalkyl, C 3-5 cycloalkylmethoxy, phenyloxy, benzyloxy, benzylmethoxy, pyridinylmethoxy, C 1-3 alkoxy and C 1-3 alkyl, wherein each cycloalkyl, benzyl, pyridinyl, alkyl and alkoxy can be substituted with one or more substituent selected from halogen, cyano, C 1-.2 alkoxy and fluoroC 1-.2 alkoxy, or R6 together with R7 and the C-atoms to which they are attached form a five or six-membered aromatic or non-aromatic ring which may comprise one or two ring forming heteroatoms, wherein said ring is preferably a phenyl or pyridyl, and wherein said ring is unsubstituted or substituted with one to three residues R13, R7, if present, is selected from hydrogen and halogen, or R7 forms a ring together with R6 as described above, R8 is selected from hydrogen, halogen, methoxy, ethoxy, fluoromethoxy and fluoroethoxy, R10 is selected from hydrogen, cyano, halogen, C 3-5 cycloalkyl, C 3-5 cycloalkyloxy, C 3-5 cycloalkylmethoxy, C 1-4 alkoxy, and C 1-4 alkyl, wherein each cycloalkyl, cycloalkyloxy, alkyl and alkoxy can be substituted with one or more substituent selected from halogen, C 1-3 alkoxy, fluoro(C 1-3) alkoxy and cyano, R11 is selected from hydrogen, fluoro and methoxy, R12 is selected from hydrogen, methoxy and halogen, R13, in each occurrence, is independently selected from halogen, hydroxy, cyano, methyl, methoxy, fluoromethyl and fluoromethoxy, and pharmaceutically acceptable salts, solvates and isotopes thereof.
Device for producing packages (2; 2a, 2b, 2c; 2'a, 2'b) from an M-folded material web, comprising a rotatable tool holder supporting a plurality of peripherally arranged tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c), which tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) each comprise a base element and an engagement element which is arranged such that it is pivotable relative to this base element, and which base elements form a circumferential outer surface of the tool holder, over which circumferential outer surface the said material web can be passed, wherein the tool holder is arranged, upon rotation, to move the tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) along a work path along which the tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) can be brought into engagement with the material web by folding of the said engagement element for the connection of mutually facing wall portions of the material web along connecting portions which outline the said packages (2; 2a, 2b, 2c; 2'a, 2'b), and a return path along which the tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) can be brought out of engagement with the material web by raising of the said engagement element, and wherein each tool (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) is arranged to be moved together with the material web when the tool (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) is moved along the said work path, characterized in that each tool (5; 5a, 5b, 5c; 5'a, 5'b, 5'c), when engaging with the said material web, is arranged to participate in the production of at least two packages (2; 2a, 2b, 2c; 2'a, 2'b), wherein each pair of adjacent tools (5; 5a, 5b, 5c; 5'a, 5'b, 5'c) are arranged for the joint production of one package (2; 2a, 2b, 2c; 2'a, 2'b).
Active antenna comprising: - a passive portion of an antenna array extended at one end by a plate in which apertures are formed, - at least one active assembly for transmitting RF radiofrequency waves, called assembly, through said apertures, each assembly comprising: o a first row of active modules facing apertures of the plate, o a second row of active modules facing apertures of the plate and attached to the first row of active modules, o a beam attached to the plate and held clamped between the first row of active modules and the second row of active modules, o a heat-transfer duct in contact with the first row of active modules and the second row of active modules and jutting out on either side of said first and second rows of active modules, said active antenna being characterised in that the beam of an assembly has a bevelled profile configured to cooperate with profiles of the first and second rows of active modules of said assembly to press them against the plate. - a passive portion of an antenna array extended at one end by a plate in which apertures are formed, - at least one active assembly for transmitting RF radiofrequency waves, called assembly, through said apertures, each assembly comprising: o a first row of active modules facing apertures of the plate, o a second row of active modules facing apertures of the plate and attached to the first row of active modules, o a beam attached to the plate and held clamped between the first row of active modules and the second row of active modules, o a heat-transfer duct in contact with the first row of active modules and the second row of active modules and jutting out on either side of said first and second rows of active modules, o a first row of active modules facing apertures of the plate, o a second row of active modules facing apertures of the plate and attached to the first row of active modules, o a beam attached to the plate and held clamped between the first row of active modules and the second row of active modules, o a heat-transfer duct in contact with the first row of active modules and the second row of active modules and jutting out on either side of said first and second rows of active modules,
A machine for filling bags with a granular product comprising [a] a filling station, [b] actuating means, said actuating means comprising [i] a motor and [ii] control means, and [c] a supporting device for supporting bags which forms a unit, arranged below said filling station for supporting the base of the bag located in said filling station to receive said granular product during operation, and said supporting device comprising [d] a supporting surface, [e] a pivot shaft on which said supporting surface is assembled, and [f] a first end and a second end, [g] said supporting surface, said pivot shaft and said actuating means being functionally associated with one another such that said supporting surface can pivot in an alternating manner around said pivot shaft through said actuating means, [h] said control means controlling the angular position of said motor to allow said supporting surface to pivot in an alternating manner, characterized in that [j] said control means allow said supporting surface to pivot with a variable amplitude (α) between any positions from among: [i] an upper position of said first end and a lower position of said second end, and [ii] a lower position of said first end and an upper position of said second end, for moving the base of the bag which is located in said filling station in operation during filling. [a] a filling station, [b] actuating means, said actuating means comprising [i] a motor and [ii] control means, and [i] a motor and [ii] control means, and [c] a supporting device for supporting bags which forms a unit, arranged below said filling station for supporting the base of the bag located in said filling station to receive said granular product during operation, and said supporting device comprising [d] a supporting surface, [e] a pivot shaft on which said supporting surface is assembled, and [f] a first end and a second end, [d] a supporting surface, [e] a pivot shaft on which said supporting surface is assembled, and [f] a first end and a second end, [g] said supporting surface, said pivot shaft and said actuating means being functionally associated with one another such that said supporting surface can pivot in an alternating manner around said pivot shaft through said actuating means, [h] said control means controlling the angular position of said motor to allow said supporting surface to pivot in an alternating manner, characterized in that [j] said control means allow said supporting surface to pivot with a variable amplitude (α) between any positions from among: [i] an upper position of said first end and a lower position of said second end, and [ii] a lower position of said first end and an upper position of said second end, [i] an upper position of said first end and a lower position of said second end, and [ii] a lower position of said first end and an upper position of said second end, for moving the base of the bag which is located in said filling station in operation during filling.
Monitoring system for displaying interactions of a vehicle gesture control unit with a user, comprising a control and computing unit, which is able to be coupled to a vehicle gesture control unit of a vehicle, comprising an operating program, a radio system that is coupled to this control and computing unit and comprises at least one transmitter/receiver unit that is provided on the vehicle and is configured to detect a distance of the user from the vehicle by means of a radio connection to a mobile transmitter/receiver unit to be carried by a user, wherein, depending on a distance of the user from the vehicle, dynamic interactions of the vehicle gesture control unit of the vehicle with the user are able to be displayed by means of a display device coupled to the control and computing unit, wherein, depending on interactions detected by means of the control and computing unit, at least one separate item of display information assigned in the operating program is able to be displayed for each interaction in a user-defined manner, characterized in that the display device comprises at least one light element unit comprising individual light elements, with the result that respective items of display information assigned in the operating program are able to be displayed by means of a sequence of the lit-up light elements and/or by means of a respective light intensity of the lit-up light elements and/or by means of a respective colour of the lit-up light elements, and in that the respective distance of the user from the vehicle is able to be displayed by means of a number and/or a light intensity of the active light elements, with the result that it is possible to display to the user their current position in relation to the gesture interaction region. depending on a distance of the user from the vehicle, dynamic interactions of the vehicle gesture control unit of the vehicle with the user are able to be displayed by means of a display device coupled to the control and computing unit, wherein, depending on interactions detected by means of the control and computing unit, at least one separate item of display information assigned in the operating program is able to be displayed for each interaction in a user-defined manner, characterized in that the display device comprises at least one light element unit comprising individual light elements, with the result that respective items of display information assigned in the operating program are able to be displayed by means of a sequence of the lit-up light elements and/or by means of a respective light intensity of the lit-up light elements and/or by means of a respective colour of the lit-up light elements, and in that the respective distance of the user from the vehicle is able to be displayed by means of a number and/or a light intensity of the active light elements, with the result that it is possible to display to the user their current position in relation to the gesture interaction region.
A method for cooling a superconducting current carrier which is accommodated in a cryostat and is electrically connected to two normally conducting power leads (5, 6), in which a cooling medium from a stock vessel is supercooled to a temperature below its boiling point and fed via a cooling medium inlet into the cryostat, brought into thermal contact with the superconducting current carrier and subsequently discharged via a cooling medium outlet from the cryostat, characterized in that the cooling medium which has passed through the cryostat is brought into thermal contact with at least a first of the normally conducting power leads (5, 6).
A welding structure comprising: an annular ring gear (10; 110) including a gear portion (10T; 110T) and a gear joint (11; 111); and a case (30; 130) including a case joint (31; 131) joined to the gear joint (11; 111), the welding structure being configured to fix the ring gear (10; 110) to the case (30; 130) by welded portions (50, 51, 52; 150, 151, 152) formed on both ends in an axial direction of the ring gear (10; 110) so that a gear-side weld surface (11a, 12a, 15a; 111a, 112a, 115a) which is a weld surface of the gear joint (11; 111) and a case-side weld surface (31a, 37a, 32a; 131a, 137a, 132a) which is a weld surface of the case joint (31; 131) are welded to each other, characterized in that the welded portion on at least one side in the axial direction is placed more outside than a gear end face of the gear portion in the axial direction, or in the welded portion on at least one side in the axial direction, the gear-side weld surface and the case-side weld surface are inclined with respect to the axial direction.