mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a digital signature using a white-box implementation of a cryptographic digital signature function, comprising: - receiving an input message; - hashing the input message; - generating a nonce based upon the input message and the white-box implementation of the cryptographic digital signature function; and - computing a digital signature of the input using the nonce. - receiving an input message; - hashing the input message; - generating a nonce based upon the input message and the white-box implementation of the cryptographic digital signature function; and - computing a digital signature of the input using the nonce.
Conductor connection terminal with an insulating material housing, a conductor rail, a clamping spring and an actuating lever, which is pivotably accommodated in the insulating material housing via a pivoting range and can be pivoted between an open position and a closed position, the clamping spring having a contact leg, a spring bow adjoining the contact leg, a clamping leg adjoining the spring bow with a clamping tongue and an actuating leg projecting from the clamping leg, the actuating lever interacting with the actuating leg to move the clamping tongue, the actuating lever being supported on the conductor rail over at least a partial region of the pivoting range, the actuating lever having a first guide section, characterized in that - the conductor rail has a recess, and - the actuating lever plunges into the recess in the conductor rail with the first guide section over at least part of the pivoting range. - the conductor rail has a recess, and - the actuating lever plunges into the recess in the conductor rail with the first guide section over at least part of the pivoting range.
Valve arrangement for actuating a hydraulic consumer, having a directional control valve which has a valve slide which is guided in a valve bore and is adjustable from a neutral position in order to perform a pressure medium connection between two consumer connections (A, B) and an inflow connection or an outflow connection (T, T1), into which neutral position the valve slide is prestressed by means of a centring spring arrangement, wherein the valve slide can be adjusted in the direction of at least three further positions (H, A, F), wherein in the case of adjustment from the neutral position in a direction into a first position a pressure medium flow path between a consumer connection and the inflow connection as well as between the other consumer connection to the outflow connection (T, T1) can be opened, and in the case of an adjustment from the neutral position in the other direction into a second position a pressure medium flow path between the other consumer connection and the inflow connection and between the one consumer connection and the outflow connection (T, T1) can be initially correspondingly opened, and in the case of a further adjustment in the other direction into a floating position the two consumer connections (A, B) are connected to the outflow connection (T, T1), characterized in that in the case of an adjustment from the neutral position in the other direction the valve slide can be moved into a rapid-motion position in which the pressure medium volume flow flowing away from the consumer via the one consumer connection flows is summed to form the pressure medium volume flow which flows from the inflow connection to the other consumer connection.
Drive device (615, 1403), comprising: an electric motor, wherein a first receiving area (101, 801, 901) for converter power electronics and a second receiving area for further electronics are formed on the B-side of the electric motor, wherein the two receiving areas (101, 801, 901, 607) are thermally decoupled from one another by means of a thermal isolation (301, 1201), such that during the operation of the electric motor a first temperature zone can be formed in the first receiving area (101, 801, 901) and a second temperature zone can be formed in the second receiving area, characterized by a heat shield (401; 403) having a section projecting into the first receiving area (101, 801, 901), wherein the heat shield (401; 403) is thermally decoupled from the first receiving area (101, 801, 901) by means of the thermal isolation (301, 1201), wherein the projecting section comprises a third receiving area for a position sensor. an electric motor, wherein a first receiving area (101, 801, 901) for converter power electronics and a second receiving area for further electronics are formed on the B-side of the electric motor, wherein the two receiving areas (101, 801, 901, 607) are thermally decoupled from one another by means of a thermal isolation (301, 1201), such that during the operation of the electric motor a first temperature zone can be formed in the first receiving area (101, 801, 901) and a second temperature zone can be formed in the second receiving area, characterized by a heat shield (401; 403) having a section projecting into the first receiving area (101, 801, 901), wherein the heat shield (401; 403) is thermally decoupled from the first receiving area (101, 801, 901) by means of the thermal isolation (301, 1201), wherein the projecting section comprises a third receiving area for a position sensor.
A monocoque vehicle comprising: a monocoque body integrally formed of reinforced resin; a subframe integrally formed of reinforced resin, the subframe including a bottom portion and an upstanding portion extending upward from the bottom portion, the bottom portion being fixed to a lower portion of a rear wall of the monocoque body, the bottom portion extending rearward of a vehicle; and an engine directly mounted on a rear surface of the upstanding portion of the subframe, characterized in that the rear wall of the monocoque body has a projecting portion attached to an upper portion of the rear wall, the projecting portion extending rearward, and an upper portion of the upstanding portion is fixed to the projecting portion. a monocoque body integrally formed of reinforced resin; a subframe integrally formed of reinforced resin, the subframe including a bottom portion and an upstanding portion extending upward from the bottom portion, the bottom portion being fixed to a lower portion of a rear wall of the monocoque body, the bottom portion extending rearward of a vehicle; and an engine directly mounted on a rear surface of the upstanding portion of the subframe, characterized in that the rear wall of the monocoque body has a projecting portion attached to an upper portion of the rear wall, the projecting portion extending rearward, and an upper portion of the upstanding portion is fixed to the projecting portion.
A method for puncture bundling of data for a first service in a transmission of a second service implemented in a transmitting node, the method comprising: determining that data for a first service will be transmitted during a time period when data for a second service will be transmitted, wherein the data for the first service requires lower latency than the data for the second service; determining transmission or reception conditions; determining, based on the determined transmission or reception conditions, to adjust the transmission of the first service; transmitting, during the time period, the data for the first service and the data for the second service, wherein the adjustment of the transmission of the first service involves including an original set of data for the first service and at least one repetition of the original set of data for the first service; characterized in receiving feedback from a receiving node regarding whether or not the receiving node successfully decoded the data for the first service, wherein the feedback is included in a single transmission and relates to both the original set of data and the at least one repetition. determining that data for a first service will be transmitted during a time period when data for a second service will be transmitted, wherein the data for the first service requires lower latency than the data for the second service; determining transmission or reception conditions; determining, based on the determined transmission or reception conditions, to adjust the transmission of the first service; transmitting, during the time period, the data for the first service and the data for the second service, wherein the adjustment of the transmission of the first service involves including an original set of data for the first service and at least one repetition of the original set of data for the first service; characterized in receiving feedback from a receiving node regarding whether or not the receiving node successfully decoded the data for the first service, wherein the feedback is included in a single transmission and relates to both the original set of data and the at least one repetition.
A scale, for an absolute encoder, on which a plurality of marks are arranged with a predetermined space therebetween at a predetermined pitch along at least one direction, comprising: a base (Ba, G) including a plurality of light-reflective, or light-transmissive marks arranged with the predetermined space therebetween at the predetermined pitches along the at least one direction, wherein a film (HTL, HT), which attenuates light, is formed with light cured material on a first subset of the plurality of marks so that an amount of light obtained via each of the first subset is different from that obtained via each of a second subset, on which the film is not formed or is formed with attenuation thereby different from that by the film on the first subset, of the plurality of marks, wherein successive marks, arranged at the predetermined pitch, of the plurality of marks correspond to a code sequence for obtaining an absolute position or angle of the scale in that the successive marks are arranged with the predetermined space and an amount of light obtained via each of the successive marks depends on whether the film is thereon. a base (Ba, G) including a plurality of light-reflective, or light-transmissive marks arranged with the predetermined space therebetween at the predetermined pitches along the at least one direction, wherein a film (HTL, HT), which attenuates light, is formed with light cured material on a first subset of the plurality of marks so that an amount of light obtained via each of the first subset is different from that obtained via each of a second subset, on which the film is not formed or is formed with attenuation thereby different from that by the film on the first subset, of the plurality of marks,
A mast assembly for an umbrella system, the mast assembly comprising a first at least partially hollow portion and a second at least partially hollow portion connected thereto, said second partially hollow portion having a longitudinal slot along which a driver passing through the slot can move, the first and second portions (3, 4) of the mast being joined together via an adapter, which has a first part projecting into the first portion of the mast and at least a second part projecting into the second portion of the mast, and the adapter being non-rotatably connected to the first portion and to the second portion of the mast.
An automated power efficiency audio tuning system comprising: a processor; at least one engine (408, 410, 412, 414, 416, 418, 420) executable with the processor to obtain impedance data of at least two loudspeakers, the at least two loudspeakers configured to be driven by an audio system to produce audible sound; the engine further executable with the processor to obtain performance related data representative of cooperative operation of the at least two loudspeakers in the audio system to produce audible sound, the performance related data being representative measured or simulated loudspeaker transfer functions; the engine further executable with the processor to obtain a target acoustic response and a power efficiency weighting factor representative of a desired degree of power efficiency in the audio system; and the engine further executable with the processor to generate operational parameters based on the target acoustic response, the performance related data and the impedance data; the operational parameters generated by the engine to balance optimized acoustic performance and optimized power efficiency of the at least two loudspeakers based on the power efficiency weighting factor. a processor; at least one engine (408, 410, 412, 414, 416, 418, 420) executable with the processor to obtain impedance data of at least two loudspeakers, the at least two loudspeakers configured to be driven by an audio system to produce audible sound; the engine further executable with the processor to obtain performance related data representative of cooperative operation of the at least two loudspeakers in the audio system to produce audible sound, the performance related data being representative measured or simulated loudspeaker transfer functions; the engine further executable with the processor to obtain a target acoustic response and a power efficiency weighting factor representative of a desired degree of power efficiency in the audio system; and the engine further executable with the processor to generate operational parameters based on the target acoustic response, the performance related data and the impedance data; the operational parameters generated by the engine to balance optimized acoustic performance and optimized power efficiency of the at least two loudspeakers based on the power efficiency weighting factor.
A method for reading optical symbols with a data reader, comprising the steps of: acquiring a first two-dimensional image of a scan region, and storing, in memory, data of the first two-dimensional image that has been acquired; processing first portions of said data of the first two-dimensional image along a virtual scan pattern according to a first pattern of virtual scan lines to detect first decodable data; using the first decodable data from the first pattern to determine a type of optical code detected in the first decodable data; changing the virtual scan pattern to a second pattern of virtual scan lines based upon the type of optical code detected in the first decodable data; processing second portions of said data of the first two-dimensional image along a second virtual scan pattern according to the second pattern of virtual scan lines to detect second decodable data. acquiring a first two-dimensional image of a scan region, and storing, in memory, data of the first two-dimensional image that has been acquired; processing first portions of said data of the first two-dimensional image along a virtual scan pattern according to a first pattern of virtual scan lines to detect first decodable data; using the first decodable data from the first pattern to determine a type of optical code detected in the first decodable data; changing the virtual scan pattern to a second pattern of virtual scan lines based upon the type of optical code detected in the first decodable data; processing second portions of said data of the first two-dimensional image along a second virtual scan pattern according to the second pattern of virtual scan lines to detect second decodable data.
A combine double-decker crop residue spreader for use with a rotating chopper having chopper blades and through which air is blown, the combine residue spreader comprising: a divider panel separating a lower portion from an upper portion of the spreader, the divider panel to extend rearwardly from a location where the chopper blades transition from rotating towards the divider panel to rotating away from the divider panel; an air flow conduit above the divider panel in the upper portion to rearwardly direct air flow; and at least one lower vertical panel below the divider panel in the lower portion to rearwardly direct residue, wherein the at least one lower vertical panel comprises lower rotatable paddles, characterized in that the upper portion of the spreader comprises upper rotatable paddles (551, 751, 951) to move air through the airflow conduit. a divider panel separating a lower portion from an upper portion of the spreader, the divider panel to extend rearwardly from a location where the chopper blades transition from rotating towards the divider panel to rotating away from the divider panel; an air flow conduit above the divider panel in the upper portion to rearwardly direct air flow; and at least one lower vertical panel below the divider panel in the lower portion to rearwardly direct residue, wherein the at least one lower vertical panel comprises lower rotatable paddles, characterized in that the upper portion of the spreader comprises upper rotatable paddles (551, 751, 951) to move air through the airflow conduit.
A compound of Formula I: wherein: R 1 is C 1-6 alkyl; R 2 is C 5-14 aryl, C 3-7 cycloalkyl, (C 3-7)cycloalkenyl, (C 2-9)heterocycle, and (C 2-9)heteroaryl, each of which is optionally substituted by one to four substituents selected from halo, C 1-6 alkyl, C 1-6 hetereoalkyl, or C 1-6 alkylene or C 1-6 hetereoalklylene wherein said C 1-6 alkylene or C 1-6 hetereoalklylene are bonded to adjacent carbon atoms on said of C 5-14 aryl, C 3-7 cycloalkyl, (C 3 -C 7)cycloalkenyl, (C 2 -C 9)heterocycle, or (C 2 -C 9)heteroaryl to form a ring, and wherein each heterocycle, heteroaryl, heteroalkyl, and hetereoalkylene comprises one to three heteroatoms selected from S, N or O; L is a bond or C 1-3 alkylene: R 3 is H, C 1-6 alkyl, C 5-14 aryl, C 3-7 cycloalkyl, (C 3 - 7)cycloalkenyl, (C 2 - 9)heterocycle, and (C 2 - 9)heteroaryl, each of which is optionally substituted by one to four substituents selected from halo, C 1-6 alkyl, and wherein each heterocycle and heteroaryl comprises one to three heteroatoms selected from S, N or O. R 1 is C 1-6 alkyl; R 2 is C 5-14 aryl, C 3-7 cycloalkyl, (C 3-7)cycloalkenyl, (C 2-9)heterocycle, and (C 2-9)heteroaryl, each of which is optionally substituted by one to four substituents selected from halo, C 1-6 alkyl, C 1-6 hetereoalkyl, or C 1-6 alkylene or C 1-6 hetereoalklylene wherein said C 1-6 alkylene or C 1-6 hetereoalklylene are bonded to adjacent carbon atoms on said of C 5-14 aryl, C 3-7 cycloalkyl, (C 3 -C 7)cycloalkenyl, (C 2 -C 9)heterocycle, or (C 2 -C 9)heteroaryl to form a ring, and wherein each heterocycle, heteroaryl, heteroalkyl, and hetereoalkylene comprises one to three heteroatoms selected from S, N or O; L is a bond or C 1-3 alkylene: R 3 is H, C 1-6 alkyl, C 5-14 aryl, C 3-7 cycloalkyl, (C 3 - 7)cycloalkenyl, (C 2 - 9)heterocycle, and (C 2 - 9)heteroaryl, each of which is optionally substituted by one to four substituents selected from halo, C 1-6 alkyl, and wherein each heterocycle and heteroaryl comprises one to three heteroatoms selected from S, N or O.
A method (700, 800) implemented by a terminal (120-1, 120-2, 120-3, 1100, 1200), comprising: receiving (230, 710) essential system information (430, 520, 530, 610, 630) broadcasted by a base station (110, 1000, 1200), the essential system information comprising a resource configuration of a demand channel for requesting optional system information on demand, the essential system information further comprising a configuration of a predefined resource zone for receiving the optional system information on demand, wherein the demand channel is reserved for terminals to request the optional system information, the essential system information being required to access a cell of the base station, so that the terminals are able to at least partially access the cell of the base station even in absence of the optional system information; sending (720, 830), on the demand channel according to the resource configuration, a request for at least a part of the optional system information other than the essential system information; and receiving an indicator broadcast in the predefined resource zone and the at least a part of the optional system information, the indicator indicating the existence of said at least a part of the optional system information in the predefined resource zone. receiving (230, 710) essential system information (430, 520, 530, 610, 630) broadcasted by a base station (110, 1000, 1200), the essential system information comprising a resource configuration of a demand channel for requesting optional system information on demand, the essential system information further comprising a configuration of a predefined resource zone for receiving the optional system information on demand, wherein the demand channel is reserved for terminals to request the optional system information, the essential system information being required to access a cell of the base station, so that the terminals are able to at least partially access the cell of the base station even in absence of the optional system information; sending (720, 830), on the demand channel according to the resource configuration, a request for at least a part of the optional system information other than the essential system information; and receiving an indicator broadcast in the predefined resource zone and the at least a part of the optional system information, the indicator indicating the existence of said at least a part of the optional system information in the predefined resource zone.
Apparatus (1, 23, 31) for conducting oil in a vehicle transmission, the apparatus (1, 23, 31) having at least two elements (4, 6) which can be moved counter to one another and at least one sleeve (8, 24, 32, 40) made from steel sheet, and the sleeve (8, 24, 32, 40) being arranged here between the elements (4, 6), and at least one of the elements (4, 6) and the sleeve (8, 24, 32, 40) being secured on one another in a positively locking manner, and a first element of the elements (4, 6) being surrounded at least partially by the sleeve (8, 24, 32, 40), and a second element of the elements (4, 6) surrounding the sleeve (8, 24, 32, 40) and the first element at least partially, characterized in that the sleeve (8, 24, 32, 40) has at least two lobes (16, 36, 41) which adjoin one another and engage into at least one recess (21, 22, 35) of one of the elements (4, 6), the sleeve (8, 24, 32, 40) and at least one of the elements (4, 6) being secured on one another in a positively locking manner by means of the lobes (16, 36, 41), and each of the lobes (16, 36, 41) leading at a root (17, 37, 43) from the wall (18, 38) of the sleeve (8, 24, 32, 40), and a radial aperture (19, 39, 45) in the wall (18, 38, 44) of the sleeve (8, 24, 32, 40) adjoining each of the roots (17, 37, 43) here, the lobes (16, 36, 41) lying opposite one another tangentially with respect to the circumference of the sleeve (8, 24, 32, 40), and a volume of the aperture being at least as great here as a volume of the lobes which lie opposite one another.
Cooking device having a cooking compartment and a cooking device door for closing the cooking compartment, and an illumination device (21, 39) for illuminating the cooking compartment, which has at least one reflector which is arranged in a door interior of the cooking device door and reflects light from a light source of the illumination device into the cooking compartment, characterised in that the light source is arranged outside the cooking device door and radiates light in the direction of the reflector, wherein the light source is arranged underneath a muffle floor.