mhurhangee/ep-ind-claims huggingface dataset:
Method for switching on and controlling a flame monitoring comprising a voltage source which is connected on the primary side to a transformer via a power input, in which a first software-protected switch for switching on and off the circuit is found, wherein the transformer is also connected on the primary side to ground via a second switch, wherein the second switch is connected to a flame control and detection unit, wherein the transformer is connected on the secondary side on the one hand to ground and on the other hand to an output cable, wherein the output cable is connected to a flame monitoring ionisation electrode via a flame monitoring cable, wherein the output cable is further connected to an ioni_voltage output at least including a voltage distributor (11, 12), characterised in that after actuation of the first switch the flame control and detection unit turns the second switch on and off in a pulsed manner, wherein the signal is evaluated on the ioni_voltage output, wherein in the case that the signal remains constant or only fluctuates within a predetermined voltage range and at the same time a predetermined minimum voltage U min is exceeded, an operating state is inferred from a regular state.
A light emitting device (1, 101) comprising: a plurality of LEDs, each LED (21, 22, 23) of said plurality of LEDs comprising a LED output surface (24, 25, 26) and being arranged to, in operation, emit light from said LED output surface, a light guiding element comprising a light guide input surface being arranged adjacent said LED output surface of each LED of said plurality of LEDs such that said light emitted by said plurality of LEDs is injected into the light guiding element at said light guide input surface, said light guiding element further comprising a light guide output surface, said light being injected into the light guiding element at said light guide input surface further being guided to and emitted from said light guide output surface, and a collimating element made of a transparent material and comprising a first surface section arranged adjacent said light guide output surface, and said collimating element being adapted to collimate light emitted from said light guide output surface of said light guiding element and injected into said collimating element at said first surface section, characterised in that the light emitting device further comprises a first reflective element arranged such as to enclose at least said light guiding element at least partially, and in that said collimating element comprises a second surface section, wherein the first reflective element is adapted to reflect back at least part of the light that leaks out of the light guiding element and at least part of this light is injected into said collimating element at said second surface section. a plurality of LEDs, each LED (21, 22, 23) of said plurality of LEDs comprising a LED output surface (24, 25, 26) and being arranged to, in operation, emit light from said LED output surface, a light guiding element comprising a light guide input surface being arranged adjacent said LED output surface of each LED of said plurality of LEDs such that said light emitted by said plurality of LEDs is injected into the light guiding element at said light guide input surface, said light guiding element further comprising a light guide output surface, said light being injected into the light guiding element at said light guide input surface further being guided to and emitted from said light guide output surface, and a collimating element made of a transparent material and comprising a first surface section arranged adjacent said light guide output surface, and said collimating element being adapted to collimate light emitted from said light guide output surface of said light guiding element and injected into said collimating element at said first surface section, characterised in that the light emitting device further comprises a first reflective element arranged such as to enclose at least said light guiding element at least partially, and in that said collimating element comprises a second surface section, wherein the first reflective element is adapted to reflect back at least part of the light that leaks out of the light guiding element and at least part of this light is injected into said collimating element at said second surface section.
A method for forming a bearing assembly, comprising: forming a curved bearing surface on at least one of a plurality of superhard bearing elements (208, 212; 506, 510), wherein the at least one of the plurality of superhard bearing (208, 212; 506, 51 0) elements comprises at least one bearing registration feature (224, 226; 514); providing a bearing body (204, 206; 502, 504) including at least one recess (234, 236; 516) therein comprising at least one complementary registration feature (238; 518) generally corresponding to the at least one bearing registration feature (224, 226; 514) of the at least one of the plurality of superhard bearing elements (208, 212; 506, 510); after the act of forming the curved bearing surface, inserting the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) into the at least one recesses (234, 236; 516) of the bearing body (204, 206; 502, 504) so that the at least one bearing registration feature (224, 226; 514) is in substantial registry with the at least one complementary registration feature (238; 518) to thereby substantially align an axis of curvature of the curved bearing surface (222; 302) relative to an axis of rotation of the bearing assembly; after the act of inserting, mounting the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) to the bearing body (204, 206; 502, 504); and after the act of mounting, removing material from the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) via a machining process to form a finished curved bearing surface. forming a curved bearing surface on at least one of a plurality of superhard bearing elements (208, 212; 506, 510), wherein the at least one of the plurality of superhard bearing (208, 212; 506, 51 0) elements comprises at least one bearing registration feature (224, 226; 514); providing a bearing body (204, 206; 502, 504) including at least one recess (234, 236; 516) therein comprising at least one complementary registration feature (238; 518) generally corresponding to the at least one bearing registration feature (224, 226; 514) of the at least one of the plurality of superhard bearing elements (208, 212; 506, 510); after the act of forming the curved bearing surface, inserting the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) into the at least one recesses (234, 236; 516) of the bearing body (204, 206; 502, 504) so that the at least one bearing registration feature (224, 226; 514) is in substantial registry with the at least one complementary registration feature (238; 518) to thereby substantially align an axis of curvature of the curved bearing surface (222; 302) relative to an axis of rotation of the bearing assembly; after the act of inserting, mounting the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) to the bearing body (204, 206; 502, 504); and after the act of mounting, removing material from the at least one of the plurality of superhard bearing elements (208, 212; 506, 510) via a machining process to form a finished curved bearing surface.
A plug, designed to be mounted on at least one optical cable, whose one end bears one or more optical contacts, each one having a tab which is deformable elastically or mounted so as to pivot relative to the rest of the contact, comprising: - a body having: • a front part extending along a longitudinal axis, the front part being designed to fit into a socket, the front part being adapted to hold and support at least one optoelectronic converter connected to the contact(s) of the cable; • a rear part forming a sheath, designed to receive the end of the cable itself bearing the contact(s) which is (are) connected in removable manner to the optoelectronic converter(s); - a bushing fitted around the front part of the body with possibility of axial sliding along the axis toward the front of the plug, the bushing bearing a tab with an appendage extending inside the rear part, the tab of the bushing and the tab of each contact being disposed relative to each other so that when a traction force is applied to make the bushing slide around the front part, the appendage of the tab of the bushing is able to bear against the tab of each contact so as to deform it elastically or make it pivot until the disconnection is produced between said contact and the optoelectronic converter(s). - a body having: • a front part extending along a longitudinal axis, the front part being designed to fit into a socket, the front part being adapted to hold and support at least one optoelectronic converter connected to the contact(s) of the cable; • a rear part forming a sheath, designed to receive the end of the cable itself bearing the contact(s) which is (are) connected in removable manner to the optoelectronic converter(s); • a front part extending along a longitudinal axis, the front part being designed to fit into a socket, the front part being adapted to hold and support at least one optoelectronic converter connected to the contact(s) of the cable; • a rear part forming a sheath, designed to receive the end of the cable itself bearing the contact(s) which is (are) connected in removable manner to the optoelectronic converter(s); - a bushing fitted around the front part of the body with possibility of axial sliding along the axis toward the front of the plug, the bushing bearing a tab with an appendage extending inside the rear part, the tab of the bushing and the tab of each contact being disposed relative to each other so that when a traction force is applied to make the bushing slide around the front part, the appendage of the tab of the bushing is able to bear against the tab of each contact so as to deform it elastically or make it pivot until the disconnection is produced between said contact and the optoelectronic converter(s).
A household appliance comprising: a front panel forming an exterior of the household appliance and formed of a metal material; a display window area which includes a plurality of through holes to display information; a display assembly provided at a rear of the front panel corresponding to the display window area and includes a plurality of light emitting diodes (LEDs) which emit light toward the plurality of through holes; and a coating layer provided on a rear surface of the front panel, characterized in that the plurality of through holes are formed in the front panel corresponding to the display window area, and wherein the coating layer has an anti-foaming agent and is configured to fill the plurality of through holes. a front panel forming an exterior of the household appliance and formed of a metal material; a display window area which includes a plurality of through holes to display information; a display assembly provided at a rear of the front panel corresponding to the display window area and includes a plurality of light emitting diodes (LEDs) which emit light toward the plurality of through holes; and a coating layer provided on a rear surface of the front panel, characterized in that the plurality of through holes are formed in the front panel corresponding to the display window area, and wherein the coating layer has an anti-foaming agent and is configured to fill the plurality of through holes.
An electrolyte solution for a lithium secondary battery, the electrolyte solution comprising an electrolyte salt, an organic solvent, and an additive, wherein the additive comprises a compound represented by Formula 1, and wherein the compound represented by Formula 1 is included in an amount of 0.05 wt% to 7 wt% based on a total weight of the electrolyte solution for a lithium secondary battery: wherein, in Formula 1, R is an alkylene group having 1 to 5 carbon atoms or an arylene group having 5 to 8 carbon atoms, and n is an integer of 1 to 10. R is an alkylene group having 1 to 5 carbon atoms or an arylene group having 5 to 8 carbon atoms, and n is an integer of 1 to 10.
Electronic equipment having increased performance, comprising at least one computing processor and at least one memory unit, said equipment being adapted to be placed on-board a moving carrier, characterised in that it is adapted to store in said memory unit a map (20, 80) of levels of operation of said electronic equipment, determined based on at least one parameter that is representative of a condition of use of the equipment, the cartography distinguishing areas having an associated level of operation in a space of parameters representative of conditions of use of said equipment, the levels of operation comprising a nominal level of operation and at least one level of operation deteriorated with respect to the nominal level of operation improved with respect to the nominal level of operation, said electronic equipment being adapted to: - receive at least one parameter value that is representative of a condition of use of the equipment; - determine a level of operation of said equipment, based on the stored map (20, 80) and on said at least one parameter value that is representative of a condition of use of the equipment; - transmit an alert if the level of operation determined is a deteriorated level of operation, the equipment being further configured to obtain a set of setup parameters of the equipment associated with the level of operation determined and to dynamically apply the set of setup parameters to the equipment. the cartography distinguishing areas having an associated level of operation in a space of parameters representative of conditions of use of said equipment, the levels of operation comprising a nominal level of operation and at least one level of operation deteriorated with respect to the nominal level of operation improved with respect to the nominal level of operation, said electronic equipment being adapted to: - receive at least one parameter value that is representative of a condition of use of the equipment; - determine a level of operation of said equipment, based on the stored map (20, 80) and on said at least one parameter value that is representative of a condition of use of the equipment; - transmit an alert if the level of operation determined is a deteriorated level of operation, the equipment being further configured to obtain a set of setup parameters of the equipment associated with the level of operation determined and to dynamically apply the set of setup parameters to the equipment. - receive at least one parameter value that is representative of a condition of use of the equipment; - determine a level of operation of said equipment, based on the stored map (20, 80) and on said at least one parameter value that is representative of a condition of use of the equipment; - transmit an alert if the level of operation determined is a deteriorated level of operation, the equipment being further configured to obtain a set of setup parameters of the equipment associated with the level of operation determined and to dynamically apply the set of setup parameters to the equipment.
Sole for a shoe, in particular for a sports shoe, comprising: a. a first partial region comprising a first expanded thermoplastic polyurethane, TPU, wherein the first expanded TPU comprises particles of expanded TPU and wherein the properties of the first expanded TPU vary gradually across the first partial region; and b. a second partial region, which is free from expanded TPU and provides increased stability. a. a first partial region comprising a first expanded thermoplastic polyurethane, TPU, wherein the first expanded TPU comprises particles of expanded TPU and wherein the properties of the first expanded TPU vary gradually across the first partial region; and b. a second partial region, which is free from expanded TPU and provides increased stability.
A computer-implemented method, comprising: receiving a plurality of LIDAR images captured by a LIDAR device of an autonomous driving vehicle; for each of the LIDAR images, determining using a perception method a location of an obstacle captured in the LIDAR image in a local coordinate system, and transforming using a coordinate converter the LIDAR image from the local coordinate system to a global coordinate system; and optimizing the coordinate converter based on a location of the obstacle appearing in the transformed LIDAR images by iteratively adjusting one or more parameters of the coordinate converter, wherein the optimized coordinate converter is utilized to process subsequent LIDAR images during autonomous driving at real-time. receiving a plurality of LIDAR images captured by a LIDAR device of an autonomous driving vehicle; for each of the LIDAR images, determining using a perception method a location of an obstacle captured in the LIDAR image in a local coordinate system, and transforming using a coordinate converter the LIDAR image from the local coordinate system to a global coordinate system; and determining using a perception method a location of an obstacle captured in the LIDAR image in a local coordinate system, and transforming using a coordinate converter the LIDAR image from the local coordinate system to a global coordinate system; and optimizing the coordinate converter based on a location of the obstacle appearing in the transformed LIDAR images by iteratively adjusting one or more parameters of the coordinate converter, wherein the optimized coordinate converter is utilized to process subsequent LIDAR images during autonomous driving at real-time.
Fixing element (1; 100) for fixing an accessory onto a support and the support onto a structure, the element comprising a first threaded part suitable for fixing the support onto the structure, a means (5; 15) of sealing the fixing of the support onto the structure, and a second part (6; 60) suitable for manoeuvring the first part while locking the sealing means resting on the support, which sealing means comprise a support flange in the form of a flattened ring, which is immobile at least in translation along a direction parallel to a longitudinal axis of the first part, which is adapted to hold the accessory by tightening between a tightening element (10; 110) and the second part (6; 60), which is positioned at one end of the first part, which forms the separation between the first part and the second part (6; 60), and from one face from which the second part (6; 60) is extended towards a free end of the element (1; 100), characterized in that a radial recess for receiving and holding the accessory is provided at one end of the second part (6; 60), said recess adjoining said face of the support flange.
A method for transmitting broadcast signals, the method comprising; Bit Interleaved Coded Modulation, BICM, encoding Physical Layer Pipe, PLP data and L1 signaling data for the PLP data, wherein the BICM encoding further includes, Multi Input Multi Output, MIMO, processing or Multi Input Single Output, MISO, processing which is applied to each PLP data and the L1 signaling data, wherein the MIMO processing is applied by using a MIMO matrix, wherein the MIMO matrix includes a pre-coding matrix and a phase hopping matrix; building a first frame and a second frame by mapping the BICM encoded PLP data and the BICM encoded L1 signaling data; and modulating and PAPR processing the built first and second frames and inserting a P1 symbol and an AP1 symbol into the first frame and the second frame to output first and second broadcast signals; and transmitting the first and second broadcast signals, wherein a frame includes a preamble comprising the P1 symbol, the AP1 symbol and at least one P2 symbol, wherein the P1 symbol carries S1 and S2 fields and is located in the beginning of the frame and the AP1 symbol carries S3 and S4 fields and is located right after the P1 symbol, wherein the S1 field indicates whether a type of the preamble is an extended type or not and the S2 filed indicates a preamble format for the extended type, wherein the preamble format for the extended type is one of a preamble format of MIMO signal, a preamble format of Hybrid SISO signal, a preamble format of Hybrid MISO signal and a preamble format of Hybrid MIMO signal, wherein at least one of the Hybrid SISO signal, Hybrid MISO signal and Hybrid MIMO signal is for a terrestrial broadcast service or a satellite broadcast service, wherein the S3 field indicates a type of a waveform used for modulating the Hybrid MIMO signal and the S4 field indicates a corresponding fast Fourier transform, FFT, size and guard interval for the waveform.
A system for detecting a maintenance need of an autonomous vehicle operating as part of a cargo transport system, the system comprising a control unit and a sensor, where the control unit is arranged to obtain, via the sensor, a current driving behaviour of the autonomous vehicle in a test area, obtain a baseline driving behaviour of the autonomous vehicle in the test area, determine a deviation of the current driving behaviour from the baseline driving behaviour, and detect a maintenance need of the autonomous vehicle based on the determined deviation, characterized in that said sensor is a remote sensor arranged separate from the autonomous vehicle and in that said baseline driving behaviour is obtained from one or more previous observations of the autonomous vehicle in the test area. obtain, via the sensor, a current driving behaviour of the autonomous vehicle in a test area, obtain a baseline driving behaviour of the autonomous vehicle in the test area, determine a deviation of the current driving behaviour from the baseline driving behaviour, and detect a maintenance need of the autonomous vehicle based on the determined deviation, characterized in that said sensor is a remote sensor arranged separate from the autonomous vehicle and in that said baseline driving behaviour is obtained from one or more previous observations of the autonomous vehicle in the test area.
A compound selected from the group consisting of: (6-(trifluoromethyl)pyridin-3-yl)methyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; 4-fluorobenzyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; 4,4-difluorocyclohexyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; and tetrahydro-2H-pyran-4-yl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; or, a pharmaceutically acceptable salt thereof. (6-(trifluoromethyl)pyridin-3-yl)methyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; 4-fluorobenzyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; 4,4-difluorocyclohexyl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate; and tetrahydro-2H-pyran-4-yl (1-hydroxy-7-methyl-1,3-dihydrobenzo[c][1,2]oxaborole-6-carbonyl)-L-valinate;