mhurhangee/ep-ind-claims huggingface dataset:
A steering device comprising: a cylindrical inner column that rotatably supports an input shaft connected to a steering wheel and has a first hole opened therein; an outer column that has a cylindrical shape into which at least a portion of the inner column is inserted and has a slit formed by notching one end of the outer column into which the inner column is inserted; an outer column bracket that is fixed to a vehicle body-side member, and supports the outer column, and tightens the outer column together with a telescopic friction plate corresponding to a plate material; an inner column bracket that is supported by the telescopic friction plate and has a second hole opened therein; a shear pin that is located at a position across the first hole of the inner column and the second hole of the inner column bracket and detachably connects the inner column and the inner column bracket to each other; and a damper that is attached to the inner column bracket and faces an internal end portion wall corresponding to an internal wall of an end portion of the slit in an axial direction of the inner column, characterized in that the damper includes a base portion facing the internal end portion wall, and a plurality of protrusions protruding from the base portion in the axial direction of the inner column. a cylindrical inner column that rotatably supports an input shaft connected to a steering wheel and has a first hole opened therein; an outer column that has a cylindrical shape into which at least a portion of the inner column is inserted and has a slit formed by notching one end of the outer column into which the inner column is inserted; an outer column bracket that is fixed to a vehicle body-side member, and supports the outer column, and tightens the outer column together with a telescopic friction plate corresponding to a plate material; an inner column bracket that is supported by the telescopic friction plate and has a second hole opened therein; a shear pin that is located at a position across the first hole of the inner column and the second hole of the inner column bracket and detachably connects the inner column and the inner column bracket to each other; and a damper that is attached to the inner column bracket and faces an internal end portion wall corresponding to an internal wall of an end portion of the slit in an axial direction of the inner column, characterized in that the damper includes a base portion facing the internal end portion wall, and a plurality of protrusions protruding from the base portion in the axial direction of the inner column.
A power supply apparatus comprising: a plurality of power supplies (110.1-110.n) arranged as a single array; a plurality of switches (130.1-130.n) disposed between the plurality of power supplies configured to control connection states of the plurality of power supplies; and a controller configured to supply an output voltage by controlling the plurality of switches to connect the plurality of power supplies in parallel when a first event requiring a voltage less than a predetermined reference voltage occurs, and supply various output voltages simultaneously by controlling the plurality of switches to connect the plurality of power supplies in series when a second event requiring a voltage exceeding the predetermined reference voltage occurs. a plurality of power supplies (110.1-110.n) arranged as a single array; a plurality of switches (130.1-130.n) disposed between the plurality of power supplies configured to control connection states of the plurality of power supplies; and a controller configured to supply an output voltage by controlling the plurality of switches to connect the plurality of power supplies in parallel when a first event requiring a voltage less than a predetermined reference voltage occurs, and supply various output voltages simultaneously by controlling the plurality of switches to connect the plurality of power supplies in series when a second event requiring a voltage exceeding the predetermined reference voltage occurs.
A method of producing at least one piezoelectric element comprising the steps in the order below: depositing a piezoelectric ceramic material onto a first surface of at least one first substrate to form at least one piezoelectric element structure, wherein a first surface of the piezoelectric ceramic material and the first surface of the first substrate are in direct contact; depositing an electrode on a second surface of the at least one piezoelectric element structure; bonding the at least one piezoelectric element structure to a second substrate, the second substrate being conductive or having a conductive layer; removing the at least one first substrate from the at least one piezoelectric element structure; depositing a second side electrode on the first surface of the at least one piezoelectric element structure; poling, by applying a DC voltage to the at least one piezoelectric element structure, to provide the at least one piezoelectric element structure with piezoelectric characteristics; and performing a property test following the poling step to determine operational characteristics of the poled, at least one piezoelectric element structure on the second substrate, prior to bonding the at least one piezoelectric element structure to a final target substrate. depositing a piezoelectric ceramic material onto a first surface of at least one first substrate to form at least one piezoelectric element structure, wherein a first surface of the piezoelectric ceramic material and the first surface of the first substrate are in direct contact; depositing an electrode on a second surface of the at least one piezoelectric element structure; bonding the at least one piezoelectric element structure to a second substrate, the second substrate being conductive or having a conductive layer; removing the at least one first substrate from the at least one piezoelectric element structure; depositing a second side electrode on the first surface of the at least one piezoelectric element structure; poling, by applying a DC voltage to the at least one piezoelectric element structure, to provide the at least one piezoelectric element structure with piezoelectric characteristics; and performing a property test following the poling step to determine operational characteristics of the poled, at least one piezoelectric element structure on the second substrate, prior to bonding the at least one piezoelectric element structure to a final target substrate.
A method for scheduling and protecting quiet periods, QP, in a quiet zone in order to detect an incumbent signal in a wireless communications system that includes a plurality of wireless networks (103, 104), each of the plurality of wireless networks containing at least a master device (101, 401) and a client device (111, 411), the method comprising: transmitting a beacon by the master device (101, 401), wherein the beacon contains a first QP schedule and a reservation of a time slot for the client device (111, 411); transmitting a request-to-quiet, RTQ, message by the client device (111, 411) during the time slot, wherein the RTQ message includes a second QP schedule; keeping quiet by the master device and the client device within the quiet zone during quiet periods according to information in the first and second QP schedules; and adjusting the first or second QP schedule according to a targeted beacon transmission time, TBTT, of another one of the plurality of wireless networks in order to avoid a collision between the quiet periods and beacon transmissions by the another one of the plurality of wireless networks. transmitting a beacon by the master device (101, 401), wherein the beacon contains a first QP schedule and a reservation of a time slot for the client device (111, 411); transmitting a request-to-quiet, RTQ, message by the client device (111, 411) during the time slot, wherein the RTQ message includes a second QP schedule; keeping quiet by the master device and the client device within the quiet zone during quiet periods according to information in the first and second QP schedules; and adjusting the first or second QP schedule according to a targeted beacon transmission time, TBTT, of another one of the plurality of wireless networks in order to avoid a collision between the quiet periods and beacon transmissions by the another one of the plurality of wireless networks.
A latency-aware computing system comprising: a memory architecture including a plurality of domains, at least two of the domains comprising different associated memory access latencies; a switch interconnecting two or more of the plurality of domains; characterised by a queue that is shared by the plurality of domains; a queue monitor to detect an issued request in the queue; a system address decoder to determine a destination domain associated with the issued request; and a request arbitrator to prevent a first set of additional requests from being issued to the queue if the issued request satisfies an overrepresentation condition with respect to the destination domain wherein the destination domain has reached a certain balancing or fairness threshold relative to the other domains, and the first set of additional requests are associated with the destination domain. a memory architecture including a plurality of domains, at least two of the domains comprising different associated memory access latencies; a switch interconnecting two or more of the plurality of domains; characterised by a queue that is shared by the plurality of domains; a queue monitor to detect an issued request in the queue; a system address decoder to determine a destination domain associated with the issued request; and a request arbitrator to prevent a first set of additional requests from being issued to the queue if the issued request satisfies an overrepresentation condition with respect to the destination domain wherein the destination domain has reached a certain balancing or fairness threshold relative to the other domains, and the first set of additional requests are associated with the destination domain.
A method of expanding cells in a cell expansion system, the method comprising: loading a first volume of fluid comprising a plurality of cells into a first fluid flow path of the cell expansion system, wherein a bioreactor is fluidly associated with the first fluid flow path; loading a second volume of fluid comprising media into a portion of the first fluid flow path to position the first volume of fluid in a first portion of the bioreactor; exposing the plurality of cells to an activator; feeding the plurality of cells according to a first process during a first time period; expanding the plurality of cells during the first time period; after expanding the plurality of cells for the first time period, circulating the plurality of cells at a first circulation rate during a second time period to reduce a number of cells in a first cell cluster; feeding the plurality of cells according to a second process; expanding the plurality of cells during a third time period, optionally wherein the third time period is less than twenty four hours; after expanding the plurality of cells for the third time period, circulating the plurality of cells at a second circulation rate during a fourth time period to reduce a number of cells in a second cell cluster; and harvesting the expanded cells. loading a first volume of fluid comprising a plurality of cells into a first fluid flow path of the cell expansion system, wherein a bioreactor is fluidly associated with the first fluid flow path; loading a second volume of fluid comprising media into a portion of the first fluid flow path to position the first volume of fluid in a first portion of the bioreactor; exposing the plurality of cells to an activator; feeding the plurality of cells according to a first process during a first time period; expanding the plurality of cells during the first time period; after expanding the plurality of cells for the first time period, circulating the plurality of cells at a first circulation rate during a second time period to reduce a number of cells in a first cell cluster; feeding the plurality of cells according to a second process; expanding the plurality of cells during a third time period, optionally wherein the third time period is less than twenty four hours; after expanding the plurality of cells for the third time period, circulating the plurality of cells at a second circulation rate during a fourth time period to reduce a number of cells in a second cell cluster; and harvesting the expanded cells.
A heat exchanger cassette adapted for a heat exchanger having a contact-free flow channel defined by gaskets between two cassettes, where the cassette (11, 29) comprises two plates of the same type permanently joined together, where each plate is provided with a corrugated pattern having a plurality of ridges and valleys, and a diagonal gasket support, characterized in that the diagonal gasket support comprises a plurality of indentations and protrusions positioned adjacent each other along a diagonal gasket groove, wherein the indentations of the two plates bear on each other and are permanently joined to each other.
Test device for the continuous testing or in-situ measurement of the piezoelectric properties of a force sensor (2a, 2b, 2c) or of a stack of force sensors (2a, 2b, 2c), comprising a force source for introducing a defined test force Fp into the force sensor (2a, 2b, 2c) or into the stack of force sensors (2a, 2b, 2c), wherein the force source contains at least one piezoelectric actuator and additionally at least one prestressing spring which loads the force sensor (2a, 2b, 2c) or the stack of force sensors (2a, 2b, 2c) with a prestressing force F 1, characterized in that a rotatably mounted lever is provided, which lever takes up a first torque μ 1 derived from the acting force F 1 of the prestressing spring and a second torque μ A derived from the acting force F A of the piezoelectric actuator and exerts a force F R derived from the resulting torque μ R on the force sensor (2a, 2b, 2c) or on the stack of force sensors (2a, 2b, 2c).
A method for editing a target RNA in a host cell, comprising introducing a deaminase-recruiting RNA (dRNA) or a construct encoding the dRNA into the host cell, wherein the dRNA comprises a complementary RNA sequence that hybridizes to the target RNA and a cytidine mismatch directly opposite the target adenosine in the target RNA, wherein the cytidine mismatch is located at least 20 nucleotides away from the 3' end of the complementary sequence, and at least 5 nucleotides away from the 5' end of the complementary sequence in the dRNA, wherein the dRNA is 50 to 260 nucleotides in length and does not comprise a chemically modified nucleotide, and wherein the dRNA is capable of recruiting an adenosine deaminase acting on RNA 1 or 2 (ADAR1 or ADAR2) to deaminate a target adenosine in the target RNA, and the dRNA does not comprise an ADAR-recruiting domain. wherein the dRNA comprises a complementary RNA sequence that hybridizes to the target RNA and a cytidine mismatch directly opposite the target adenosine in the target RNA, wherein the cytidine mismatch is located at least 20 nucleotides away from the 3' end of the complementary sequence, and at least 5 nucleotides away from the 5' end of the complementary sequence in the dRNA, wherein the dRNA is 50 to 260 nucleotides in length and does not comprise a chemically modified nucleotide, and wherein the dRNA is capable of recruiting an adenosine deaminase acting on RNA 1 or 2 (ADAR1 or ADAR2) to deaminate a target adenosine in the target RNA, and the dRNA does not comprise an ADAR-recruiting domain.
A refrigerator, comprising a door (1, 2), the door (1, 2) comprising an accommodating space (131, 231), a user interface electrical module (15, 25) that is accommodated in the accommodating space (131, 231), a handle groove (132, 232), and a concave portion (133, 233) that is open towards a front surface (101, 201) and a side surface (102, 202) of the door (1, 2) in such way that the handle groove (132, 232) is accessible to a user via the concave portion (133, 233), wherein the user interface electrical module (15, 25), the handle groove (132, 232), and the concave portion (133, 233) are located within a visible boundary frame (63; 63', 241) in the transverse and longitudinal direction of the door (1, 2), the boundary frame (63; 63', 241) being connected to and open at the side surface (102, 202), wherein the concave portion (133, 233), the handle groove (132, 232), and the user interface electrical module (15, 25) are successively disposed side by side along a depth direction of the handle groove (132, 232), wherein the door (1, 2) comprises a door body (10, 20); the door body (10, 20) comprises a door inner liner (16, 26), a front wall (111, 321) that is located in front of the door inner liner (16, 26) and has a first opening (113, 331), and a user interface housing (13, 23); the user interface housing (13, 23) closes the first opening (113, 331) relative to a thermal insulation space (171, 271) located between the door inner liner (16, 26) and the front wall (111, 321); and the accommodating space (131, 231), the handle groove (132, 232) and the concave portion (133, 233) are located within the user interface housing (13, 23).
A gas chromatography system comprising: a sample introduction device; an oven coupled to the sample introduction device and configured to receive a chromatography column in a space in the oven, the oven constructed and arranged to provide a substantially constant temperature to the space during an analysis stage of the gas chromatography system, the oven comprising an air intake aperture, an air exhaust aperture, and a fan configured to modulate a temperature in the oven space; a controller configured to adjust a degree of opening of the air intake aperture anywhere between fully opened and fully closed; and a detector coupled to the oven; the system characterized in that the controller is further configured to control a speed of the fan based on the degree of opening of the air intake aperture. a sample introduction device; an oven coupled to the sample introduction device and configured to receive a chromatography column in a space in the oven, the oven constructed and arranged to provide a substantially constant temperature to the space during an analysis stage of the gas chromatography system, the oven comprising an air intake aperture, an air exhaust aperture, and a fan configured to modulate a temperature in the oven space; a controller configured to adjust a degree of opening of the air intake aperture anywhere between fully opened and fully closed; and a detector coupled to the oven; the system characterized in that the controller is further configured to control a speed of the fan based on the degree of opening of the air intake aperture.
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butandiol solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar, wherein Step (b) is performed at a temperature range of 150 to 235°C, and wherein Step (b) is performed for 1 to 48 hours. (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butandiol solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar,
An apparatus, comprising: a housing; a vessel disposed at least partially inside of the housing, the vessel containing a non-concentrate material, with the vessel formed from a metal, a metal alloy, and/or a ceramic; a heating element configured to generate heat for heating the vessel, the heating of the vessel vaporizing the non-concentrate material in the vessel to form an aerosol; and a mouthpiece having one or more air paths, wherein the mouthpiece is removably coupled to one end of the housing to cover the vessel within the housing to form an air chamber, wherein the apparatus further comprises a wand adaptor having a wand formed of a hollow tube, wherein, when the mouthpiece is attached to the housing, the wand is aligned with the one or more air paths of the mouthpiece to thereby form an air passage through the mouthpiece and the wand to allow an intake of air and the aerosol through the air passage when a user inhales through the mouthpiece. a housing; a vessel disposed at least partially inside of the housing, the vessel containing a non-concentrate material, with the vessel formed from a metal, a metal alloy, and/or a ceramic; a heating element configured to generate heat for heating the vessel, the heating of the vessel vaporizing the non-concentrate material in the vessel to form an aerosol; and a mouthpiece having one or more air paths, wherein the mouthpiece is removably coupled to one end of the housing to cover the vessel within the housing to form an air chamber, wherein the apparatus further comprises a wand adaptor having a wand formed of a hollow tube, wherein, when the mouthpiece is attached to the housing, the wand is aligned with the one or more air paths of the mouthpiece to thereby form an air passage through the mouthpiece and the wand to allow an intake of air and the aerosol through the air passage when a user inhales through the mouthpiece.
A compound of formula or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -CH 2 - or -CH(CH 3)-; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen or methyl; V represents C-R 22 or N; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy, hydroxy(C 1-6)alkyl or C 1-6 alkoxy; or R 21 represents (C 3-7)heterocycloalkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy. E represents -CH 2 - or -CH(CH 3)-; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen or methyl; V represents C-R 22 or N; R 15 represents hydrogen, halogen, C 1-6 alkyl, trifluoromethyl, C 1-6 alkoxy, difluoromethoxy or trifluoromethoxy; R 16 represents hydrogen, halogen, cyano, C 1-6 alkyl, trifluoromethyl, difluoromethoxy or amino; R 21 represents hydroxy, hydroxy(C 1-6)alkyl or C 1-6 alkoxy; or R 21 represents (C 3-7)heterocycloalkyl; R 22 represents hydrogen, halogen or C 1-6 alkyl; and R 23 represents hydrogen, C 1-6 alkyl, trifluoromethyl or C 1-6 alkoxy.
A light-diffusing heat shrinkable tube comprising a resin and a light diffusing agent, characterized in that the resin is a polyester resin having an inherent viscosity of 0.8 to 1.4 dl/g, the tube comprises 0.1 to 2.5 wt% of the light diffusing agent, and the tube has a thickness of 60 to 300 μm.
A compound for use in a method of treatment of allergic contact dermatitis or psoriasis in an animal subject including a mammalian subject, wherein the compound is 3-[2-(4-{2-ethyl-4,6-dimethyl-1H-imidazo[4,5-c]pyridin-1-yl}phenyl)ethyl]-1-[(4-methylbenzene)sulfonyl]urea or a pharmaceutically acceptable salt thereof.