mhurhangee/ep-ind-claims huggingface dataset:
Power distribution unit (20; 200) for a plurality of elements (12, 14, 16) supplied with voltage in a motor vehicle, comprising a voltage filtering, protection and regulation assembly (30; 300) connected between a power input for receiving an input voltage via a main power bus linked to the power input and a power output for delivering a same secure operating voltage to said elements (12, 14, 16) via a power bus linked to the power output and a control circuit (40; 140) connected between an information input of a first information bus and an information output of an information bus specific to said elements (12, 14, 16), for transferring, over the specific information bus, the information relating to said elements (12, 14, 16) circulating on the first information bus, and vice versa.
A reception apparatus in a wireless communication system, the reception apparatus comprising: a signal interval selector (506-1, 506-2) configured to select a first detection time interval and a second detection time interval for receiving a random access channel, RACH, signal including a preamble sequence for ranging access; a time offset detector (524-1, 524-2) configured to detect a first time offset and a second time offset corresponding to time points at which the preamble sequence is received in the first detection time interval and the second detection time interval, respectively; and a time offset determiner configured to determine a correction time value for correcting a time point at which a transmission apparatus of the wireless communication system transmits data, based on the first time offset and the second time offset, characterised in that the time offset determiner further configured to determine (801, 901, 1001) whether the correction time value is greater than a predetermined time value, and transmit (807, 909, 1009) a random access response, RAR, message including a time advance, TA, value as the correction time value minus the predetermined value to the transmission apparatus, when the correction time value is greater than the predetermined time value. a signal interval selector (506-1, 506-2) configured to select a first detection time interval and a second detection time interval for receiving a random access channel, RACH, signal including a preamble sequence for ranging access; a time offset detector (524-1, 524-2) configured to detect a first time offset and a second time offset corresponding to time points at which the preamble sequence is received in the first detection time interval and the second detection time interval, respectively; and a time offset determiner configured to determine a correction time value for correcting a time point at which a transmission apparatus of the wireless communication system transmits data, based on the first time offset and the second time offset, characterised in that the time offset determiner further configured to determine (801, 901, 1001) whether the correction time value is greater than a predetermined time value, and transmit (807, 909, 1009) a random access response, RAR, message including a time advance, TA, value as the correction time value minus the predetermined value to the transmission apparatus, when the correction time value is greater than the predetermined time value.
A radiography apparatus comprising: an irradiation unit that emits radiation; an arm that holds the irradiation unit and an image receiving unit that receives the radiation, which has been emitted from the irradiation unit and transmitted through a subject, in a facing posture such that the image receiving unit is attachable and detachable; a support portion that rotatably supports the arm; a locking mechanism (64, 76) that locks a rotation of the arm with respect to the support portion; a first attachment and detachment detection unit that detects whether or not the image receiving unit is detached from the arm; and characterized by: a control unit that performs control to prohibit a release of the lock even in a case in which an unlock operation for releasing the lock of the rotation by the locking mechanism is performed (i) in a state in which the first attachment and detachment detection unit detects that the image receiving unit is detached from the arm, and (ii) in a state in which the first attachment and detachment detection unit detects that the image receiving unit is attached to the arm while the irradiation unit continuously emits the radiation. an irradiation unit that emits radiation; an arm that holds the irradiation unit and an image receiving unit that receives the radiation, which has been emitted from the irradiation unit and transmitted through a subject, in a facing posture such that the image receiving unit is attachable and detachable; a support portion that rotatably supports the arm; a locking mechanism (64, 76) that locks a rotation of the arm with respect to the support portion; a first attachment and detachment detection unit that detects whether or not the image receiving unit is detached from the arm; and characterized by: a control unit that performs control to prohibit a release of the lock even in a case in which an unlock operation for releasing the lock of the rotation by the locking mechanism is performed (i) in a state in which the first attachment and detachment detection unit detects that the image receiving unit is detached from the arm, and (ii) in a state in which the first attachment and detachment detection unit detects that the image receiving unit is attached to the arm while the irradiation unit continuously emits the radiation.
A data processing method performed by a blockchain node comprising a first thread and a second thread, the blockchain node being configured to use the first thread to perform consensus processing on validation ready preprocessing blocks and the second thread to perform data processing on validated preprocessing blocks, the method comprising: pre-configuring a processor to perform an operation involved in a service submission stage; obtaining a validation ready preprocessing block; validating, by using the first thread, the preprocessing block during a service consensus stage; if it is determined that the preprocessing block is validated, starting to validate, by using the first thread, a next validation ready preprocessing block; and performing, by using the second thread in parallel with the service consensus stage, data processing on service data in the validated preprocessing block during the service submission stage. pre-configuring a processor to perform an operation involved in a service submission stage; obtaining a validation ready preprocessing block; validating, by using the first thread, the preprocessing block during a service consensus stage; if it is determined that the preprocessing block is validated, starting to validate, by using the first thread, a next validation ready preprocessing block; and performing, by using the second thread in parallel with the service consensus stage, data processing on service data in the validated preprocessing block during the service submission stage.
A composite passive armor protection having a structure comprising geometric solids, said structure being embedded in a light alloy matrix, wherein said geometric solids are embedded in the light alloy matrix to a level above one half of their total height, characterized in that said structure is made of the geometric solids, resting on brackets, passing through holes in a plate, wherein said brackets have through-holes located at a height above and below the plate, wherein in said through-holes are secured rods in such a way that they form a grid, and whereon the rods are fixed in such a way that and wherein the rods are fixed in such a way that their longitudinal axes coincide with the axes of the geometric solids.
A converter assembly for converting oscillating motion to orthogonal reciprocating motion, the converter assembly comprising: an outer housing having a central axis; a first cam follower movably associated with the outer housing and configured for reciprocating motion along the central axis, the first cam follower including an upper cam follower ramp disposed on a first side of the first cam follower and a lower cam follower ramp disposed on an opposite second side of the first cam follower; a second cam follower movably associated with the outer housing and configured for reciprocating motion along the central axis (Al), the second cam follower including an upper cam follower ramp disposed on a first side of the second cam follower and a lower cam follower ramp disposed on an opposite second side of the second cam follower; a cam rotatably couplable to the outer housing and configured for oscillating motion about the central axis with respect to the outer housing; and a first cam protrusion and a second cam protrusion, each extending from a first side of the cam and being configured to interface with the upper cam follower ramp and the lower cam follower ramp of the first cam follower and the second cam follower, respectively; and wherein the interaction of the first cam follower with the first cam protrusion and the interaction of the second cam follower with the second cam protrusion causes the follower to reciprocate along the central axis when the cam oscillates about the central axis. an outer housing having a central axis; a first cam follower movably associated with the outer housing and configured for reciprocating motion along the central axis, the first cam follower including an upper cam follower ramp disposed on a first side of the first cam follower and a lower cam follower ramp disposed on an opposite second side of the first cam follower; a second cam follower movably associated with the outer housing and configured for reciprocating motion along the central axis (Al), the second cam follower including an upper cam follower ramp disposed on a first side of the second cam follower and a lower cam follower ramp disposed on an opposite second side of the second cam follower; a cam rotatably couplable to the outer housing and configured for oscillating motion about the central axis with respect to the outer housing; and a first cam protrusion and a second cam protrusion, each extending from a first side of the cam and being configured to interface with the upper cam follower ramp and the lower cam follower ramp of the first cam follower and the second cam follower, respectively; and wherein the interaction of the first cam follower with the first cam protrusion and the interaction of the second cam follower with the second cam protrusion causes the follower to reciprocate along the central axis when the cam oscillates about the central axis.
A clamping work light which may clamp to an object or be free standing comprising a light and a housing having a first leg and a second leg and adapted to receive the light in a nested position, the first leg and the second leg allowing for the nesting of the light; said housing including a first pivoting assembly allowing said light to pivot to a plurality of non-nested positions and a second pivoting assembly allowing said light to rotate 360 degrees; said housing including means to allow said first and second legs (120, 122) to clamp to an object or to be free standing.
Self-propelled road milling machine, in particular cold milling machine, for working ground surfaces, with a milling drum supported at a machine frame, no less than one conveying device arranged at the machine frame, which device accepts the milled-off material from the milling drum and discharges said milled-off material, in conveying direction, at a discharge end along a parabolic trajectory onto a point of discharge, characterized in that the conveying device comprises a shielding device at the discharge end, where said shielding device shields the material milled off and leaving the conveying device without influencing the parabolic trajectory on a part of the path to the point of discharge at least by means of lateral sections.
A modified ethylene-vinyl alcohol copolymer fiber comprising: a modified ethylene-vinyl alcohol copolymer containing 0.1 mol% to 10 mol% of the following structural unit, and 5 mol% to 55 mol% of ethylene, the modified ethylene-vinyl alcohol copolymer fiber having a crystallinity of 25% to 50%, [Chemical Formula 1] (where R 1, R 2, R 3 and R 4 represent a hydrogen atom, an aliphatic hydrocarbon group having 1 to 10 carbon atoms, an alicyclic hydrocarbon group having 3 to 10 carbon atoms, or an aromatic hydrocarbon group having 6 to 10 carbon atoms, R 1, R 2, R 3 and R 4 may be the same as or different from each other, R 3 and R 4 may be bonded to each other, and R 1, R 2, R 3 and R 4 may have a hydroxyl group, a carboxyl group, or a halogen atom), wherein the crystallinity is measured according to the method disclosed in the description. a modified ethylene-vinyl alcohol copolymer containing 0.1 mol% to 10 mol% of the following structural unit, and 5 mol% to 55 mol% of ethylene, the modified ethylene-vinyl alcohol copolymer fiber having a crystallinity of 25% to 50%, [Chemical Formula 1] (where R 1, R 2, R 3 and R 4 represent a hydrogen atom, an aliphatic hydrocarbon group having 1 to 10 carbon atoms, an alicyclic hydrocarbon group having 3 to 10 carbon atoms, or an aromatic hydrocarbon group having 6 to 10 carbon atoms, R 1, R 2, R 3 and R 4 may be the same as or different from each other, R 3 and R 4 may be bonded to each other, and R 1, R 2, R 3 and R 4 may have a hydroxyl group, a carboxyl group, or a halogen atom), wherein the crystallinity is measured according to the method disclosed in the description.
A method of manufacturing a hologram as a contact copy of a master hologram (H 2), in which a master hologram which consists of a plurality of individual master holograms which each carry different information is copied into a film, wherein one of the individual master holograms (H 2) is the hologram of a ground glass screen, wherein the master hologram (H 2) and the film are irradiated by modulated laser radiation (6, 8) which is modulated by a modulation device which is configured as an LCD; wherein the real image of a mask is produced by illuminating an illumination hologram with a divergent reconstruction beam where the modulation device is located; and wherein the illumination hologram is recorded in that an arrangement comprising a ground glass screen and the mask is irradiated by an object beam which has a convergent reference beam superposed on it after the arrangement to produce the illumination hologram.
A method for transmitting an uplink signaling message in a wireless communication network, the method being performed in a wireless device, wherein the wireless device is connected to a first network element over at least a first and a second wireless link, the method comprising: - determining a transmission mode among alternative transmission modes for transmitting the uplink signaling message based on criteria for determining transmission mode related to a type of uplink signaling message, the alternative transmission modes comprising: transmitting on the first wireless link; transmitting on the second wireless link; and transmitting on both the first and the second wireless links; and - transmitting the uplink signaling message according to the determined transmission mode. - determining a transmission mode among alternative transmission modes for transmitting the uplink signaling message based on criteria for determining transmission mode related to a type of uplink signaling message, the alternative transmission modes comprising: transmitting on the first wireless link; transmitting on the second wireless link; and transmitting on both the first and the second wireless links; and - transmitting the uplink signaling message according to the determined transmission mode.
A computer-implemented method for controlling content distribution, the method comprising: forwarding information associated with a user to a device operated by the user, the information being configured for use in selecting content from any of multiple content providers for a content distribution to the user; receiving, in response to the information, an edit of the information forwarded from the device, the edit identifying a first content provider and including a first modification of the content distribution regarding the first content provider; storing the edit in association with the information such that the first modification is taken into account in the content distribution; identifying a predetermined number of content portions as having been most recently presented to the user in the content distribution; causing at least part of each of the predetermined number of content portions to again be presented on the device; and receiving an input generated by the user from the device, the input identifying at least one of the content portions and including another edit of the information regarding the identified content portion, wherein the other edit comprises that the identified content portion is to be blocked from being presented on the device. forwarding information associated with a user to a device operated by the user, the information being configured for use in selecting content from any of multiple content providers for a content distribution to the user; receiving, in response to the information, an edit of the information forwarded from the device, the edit identifying a first content provider and including a first modification of the content distribution regarding the first content provider; storing the edit in association with the information such that the first modification is taken into account in the content distribution; identifying a predetermined number of content portions as having been most recently presented to the user in the content distribution; causing at least part of each of the predetermined number of content portions to again be presented on the device; and receiving an input generated by the user from the device, the input identifying at least one of the content portions and including another edit of the information regarding the identified content portion, wherein the other edit comprises that the identified content portion is to be blocked from being presented on the device.
A combined anti-theft lock-cylinder mechanism comprising: a key and a corresponding lock-cylinder module; the module including a lock-cylinder sleeve and a lock-cylinder shaft; the lock-cylinder shaft rotatable in the sleeve; the lock-cylinder shaft with a key slot; the key featuring a groove on the inserting-end face where the key enters the cylinder; a pin hole crossing the key slot at the rear end face of the key slot in the key cylinder shaft; and a dowel pin which fits in the pin hole where the groove co-operates with the dowel pin wherein the lock-cylinder shaft is inserted in the lock-cylinder shaft sleeve; characterized in that the lock-cylinder shaft is provided with a snap spring groove in the outside shell; with a snap spring which is clipped in the snap spring groove for positioning of the lock-cylinder shaft and the lock-cylinder shaft sleeve; and with an open end of the pin hole connected with the snap spring groove. a key and a corresponding lock-cylinder module; the module including a lock-cylinder sleeve and a lock-cylinder shaft; the lock-cylinder shaft rotatable in the sleeve; the lock-cylinder shaft with a key slot; the key featuring a groove on the inserting-end face where the key enters the cylinder; a pin hole crossing the key slot at the rear end face of the key slot in the key cylinder shaft; and a dowel pin which fits in the pin hole where the groove co-operates with the dowel pin wherein the lock-cylinder shaft is inserted in the lock-cylinder shaft sleeve; characterized in that the lock-cylinder shaft is provided with a snap spring groove in the outside shell; with a snap spring which is clipped in the snap spring groove for positioning of the lock-cylinder shaft and the lock-cylinder shaft sleeve; and with an open end of the pin hole connected with the snap spring groove.
A radiation monitor, comprising: a radioluminescence device that generates a photon with a radiation incident on the device itself; a plurality of optical fibers (12a-e; 12h,i) connected to the radioluminescence device for transmitting the photon generated in the radioluminescence device; photoelectric converters (13; 13a-e; 13g-i) that convert the photon transmitted via each of the plurality of optical fibers (12a-e; 12h,i) to an electrical pulse; a counter (14; 14a-e; 14g-i) that counts the electrical pulses input from the photoelectric converters (13; 13a-e; 13g-i); characterized by an arithmetic unit (15; 15B) that calculates at least a dosage rate of the radiation on the basis of a counting result by the counter (14; 14a-e; 14h-i); wherein in the plurality of optical fibers (12a-e; 12h,i), the optical fibers (12a-e; 12h,i) different in distance between the center of the radioluminescence device and each connected position of the optical fibers (12a-e; 12h, i) on the radioluminescence device are included; and the arithmetic unit (15; 15B) calculates energy of the radiation on the basis of the ratio of a counting rate of photons transmitted via an optical fiber connected to the center of the radioluminescence device and a counting rate of photons transmitted via optical fibers (12a-e; 12h,i) connected at the vicinity of the center of the radioluminescence device and corrects the counting rate in the center on the basis of the energy of the radiation; and further, the arithmetic unit (15; 15B) calculates a dosage rate of the radiation on the basis of the energy of the radiation. a radioluminescence device that generates a photon with a radiation incident on the device itself; a plurality of optical fibers (12a-e; 12h,i) connected to the radioluminescence device for transmitting the photon generated in the radioluminescence device; photoelectric converters (13; 13a-e; 13g-i) that convert the photon transmitted via each of the plurality of optical fibers (12a-e; 12h,i) to an electrical pulse; a counter (14; 14a-e; 14g-i) that counts the electrical pulses input from the photoelectric converters (13; 13a-e; 13g-i); characterized by an arithmetic unit (15; 15B) that calculates at least a dosage rate of the radiation on the basis of a counting result by the counter (14; 14a-e; 14h-i); wherein in the plurality of optical fibers (12a-e; 12h,i), the optical fibers (12a-e; 12h,i) different in distance between the center of the radioluminescence device and each connected position of the optical fibers (12a-e; 12h, i) on the radioluminescence device are included; and the arithmetic unit (15; 15B) calculates energy of the radiation on the basis of the ratio of a counting rate of photons transmitted via an optical fiber connected to the center of the radioluminescence device and a counting rate of photons transmitted via optical fibers (12a-e; 12h,i) connected at the vicinity of the center of the radioluminescence device and corrects the counting rate in the center on the basis of the energy of the radiation; and further, the arithmetic unit (15; 15B) calculates a dosage rate of the radiation on the basis of the energy of the radiation.