mhurhangee/ep-ind-claims huggingface dataset:
Swap body structure or transport container for electrically or hybrid-powered towing vehicles and motor vehicles with an associated battery compartment, wherein a chamber for batteries is formed in the front area of the swap body structure or the transport container by means of a partition wall and wherein the swap body structure or the transport container has a full-surface door or several partial-surface doors at the front, characterized in that the compartment has a plug connector which consists of a plug on the inside and a socket (7") on the outside.
A motor vehicle delimiting an under-bonnet space and an under-body space, and comprising an internal combustion engine connected to an exhaust line and comprising an exhaust gas aftertreatment device for said engine, the aftertreatment device comprising, from upstream to downstream: • an oxidation catalyst member DOC; • an outlet of a means for introducing a reducing agent or reducing agent precursor for the selective catalytic reduction SCR of nitrogen oxides; • a catalyst member for selective catalytic reduction SCR of the nitrogen oxides NO x; • a particle filter member provided with a catalyst coating for selective catalytic reduction SCRF of the nitrogen oxides NO x; • a member for treating ammonia leaks; characterized in that the oxidation catalyst member DOC, the catalyst member for selective reduction SCR of the NOx, which has a length comprised between 45 mm and 80 mm, in particular between 50 and 75 mm, the particle filter member provided with a catalyst coating for selective catalytic reduction SCRF of the nitrogen oxides NOx and the outlet are grouped together in a single casing arranged in the under-bonnet space, and in that the member for treating ammonia leaks is arranged outside said single casing, in the under-body space. • an oxidation catalyst member DOC; • an outlet of a means for introducing a reducing agent or reducing agent precursor for the selective catalytic reduction SCR of nitrogen oxides; • a catalyst member for selective catalytic reduction SCR of the nitrogen oxides NO x; • a particle filter member provided with a catalyst coating for selective catalytic reduction SCRF of the nitrogen oxides NO x; • a member for treating ammonia leaks;
Shaped material, for example disc for a disc brake, preferably a ventilated disc, comprising a plurality of layers (2, 4, 6) of carbon fibres stacked in a construction direction, each layer (2, 4, 6) comprising a plurality of segments (8, 10) placed side by side and joined together to form said layer, the segments of a layer (2, 4, 6) comprising radial segments and transverse segments; wherein the radial segments are segments in which the carbon fibres are predominantly oriented in a radial direction relative to the direction of construction or oriented approximately parallel to the radial direction, and the transverse segments are segments in which the carbon fibres are mainly directed in a direction incident to said radial direction; characterised in that in each layer (2, 4, 6) of carbon fibres, the number of transverse segments is higher than the number of radial segments.
A method comprising: responsive to a processor having changed from a first operating point to a second operating point, selectively altering power of one or more ways of a cache memory, wherein altering power of the one or more cache ways comprises removing power from the one or more cache ways; and processing one or more instructions in the processor subsequent to altering power of the one or more ways of the cache memory, wherein said processing includes accessing one or more ways of the cache memory from which power was not altered; characterised by: determining an amount of time that has elapsed since said selectively altering the power of the one or more ways of the cache memory; comparing the amount of time to a first time threshold; and preventing additional ways of the cache memory from being powered down in response to determining that the amount of time is less than the first time threshold. responsive to a processor having changed from a first operating point to a second operating point, selectively altering power of one or more ways of a cache memory, wherein altering power of the one or more cache ways comprises removing power from the one or more cache ways; and processing one or more instructions in the processor subsequent to altering power of the one or more ways of the cache memory, wherein said processing includes accessing one or more ways of the cache memory from which power was not altered; characterised by: determining an amount of time that has elapsed since said selectively altering the power of the one or more ways of the cache memory; comparing the amount of time to a first time threshold; and preventing additional ways of the cache memory from being powered down in response to determining that the amount of time is less than the first time threshold. determining an amount of time that has elapsed since said selectively altering the power of the one or more ways of the cache memory; comparing the amount of time to a first time threshold; and preventing additional ways of the cache memory from being powered down in response to determining that the amount of time is less than the first time threshold.
An elevator having a hoistway, and an elevator car movable in the hoistway and provided with a car brake, and a first coupling means movably mounted on the car, and a second coupling means mounted separate from the car at proximity of an end of the hoistway, the first and second coupling means (3,4) being counterparts for each other and provided for being coupled in force-transmitting manner to each other, the car brake being triggerable by movement of the first coupling means, wherein one of the first and second coupling means (3,4) has coupling points at different vertical levels, and the other of said first and second coupling means (3,4) can couple to said one of the first and second coupling means (3,4) at each of said coupling points, said one of the first and second coupling means (3,4) comprising coupling members at different vertical levels for forming said coupling points, each of the coupling members being suitable for being coupled with a coupling member of the other one of said first and second coupling means (3,4), characterized in that said coupling points at different vertical levels are distributed over a vertical length of more than 1 meters and less than 3 meters, and comprise a lowermost coupling point and an uppermost coupling point, as well as a plurality of coupling points between the lowermost and an uppermost coupling point, all at different vertical levels.
A hinged panel operation system comprising: a mechanical linkage assembly coupled between a fixed structure and a trailing edge device, the mechanical linkage assembly comprising a first link operatively coupled to the trailing edge device, a second link pivotably connected at a first end to the first link and pivotably connected at a second end to a first end of a third link, and an eccentric attachment connecting the second link to the third link; and, a hinged panel positioned forward of the trailing edge device and being operatively coupled to the mechanical linkage assembly, the hinged panel having a leading end connected to the fixed structure via an attachment element and being movable by the mechanical linkage assembly between a stowed position and a drooped position, and the mechanical linkage assembly providing a load path to the hinged panel; wherein the eccentric attachment comprises a spherical bearing or a bolt fixed to the second link with its center offset from that of the second link, and wherein the eccentric attachment is attached to the hinged panel, and a second end of the third link is connected to the fixed structure via an attachment element. a mechanical linkage assembly coupled between a fixed structure and a trailing edge device, the mechanical linkage assembly comprising a first link operatively coupled to the trailing edge device, a second link pivotably connected at a first end to the first link and pivotably connected at a second end to a first end of a third link, and an eccentric attachment connecting the second link to the third link; and, a hinged panel positioned forward of the trailing edge device and being operatively coupled to the mechanical linkage assembly, the hinged panel having a leading end connected to the fixed structure via an attachment element and being movable by the mechanical linkage assembly between a stowed position and a drooped position, and the mechanical linkage assembly providing a load path to the hinged panel; wherein the eccentric attachment comprises a spherical bearing or a bolt fixed to the second link with its center offset from that of the second link, and wherein the eccentric attachment is attached to the hinged panel, and a second end of the third link is connected to the fixed structure via an attachment element.
A motor-driven valve (1; 21; 41; 61; 91) comprising: a first screw member (11; 31; 51; 71) fixed to a valve main body (5; 25; 65); a second screw member (10; 30; 50; 70) rotating in accordance with a rotation of a rotor (7; 67) of an electric motor and engaging with the first screw member (11; 31; 51; 71); a valve body (12; 32; 72) contacting to and separating from a valve seat (4; 64) in the valve main body (5; 25; 65) by a rotation of the second screw member (10; 30; 50; 70), characterized in that an upper closing limit stopper part (9a; 37; 77) rotating in accordance with the rotation of the rotor (7; 67); a lower closing limit stopper part (11d; 31 c; 51 c; 71 c) mounted to the first screw member (11; 31; 51; 71), and contacting with the upper closing limit stopper part (9a; 37; 77) in a fully-closed state of said motor-driven valve (1; 21; 41; 61; 91) to restrict the rotation of the second screw member (10; 30; 50; 70) in a direction that the valve closes; and a shock absorbing member (14; 34; 73, 75) for relaxing an impact when the upper closing limit stopper part (9a; 37; 77) collides against the lower closing limit stopper part (11d; 31c; 51c; 71c), said shock absorbing member (14; 34; 73, 75) urging the upper closing limit stopper part (9a; 37; 77) in a direction opposite to a direction that the upper closing limit stopper part (9a; 37; 77) collides against the lower closing limit stopper part (11d; 31c; 51c; 71c), wherein said shock absorbing member (14; 34; 73, 75) is a coil spring.
A method in a device comprising a controller, a first light source, and a second light source, the method comprising: using a first microelectromechanical system (MEMS) mirror, directing a first signal from the first light source to an alignment tracking waveguide; receiving by a first photosensor a first portion of the first signal via the alignment tracking waveguide and using the controller determining a first alignment indicator associated with the first portion of the first signal; using a second MEMS mirror, directing a second signal from the second light source to the alignment tracking waveguide; and receiving by a second photosensor a second portion of the second signal via the alignment tracking waveguide and using the controller determining a second alignment indicator associated with the second portion of the second signal. using a first microelectromechanical system (MEMS) mirror, directing a first signal from the first light source to an alignment tracking waveguide; receiving by a first photosensor a first portion of the first signal via the alignment tracking waveguide and using the controller determining a first alignment indicator associated with the first portion of the first signal; using a second MEMS mirror, directing a second signal from the second light source to the alignment tracking waveguide; and receiving by a second photosensor a second portion of the second signal via the alignment tracking waveguide and using the controller determining a second alignment indicator associated with the second portion of the second signal.
A method for depositing particles onto a substrates, preferably a running substrate, comprising the following steps: (a) producing at least one first compact film of particles floating on a carrier liquid provided in a transfer area having an outlet of particles arranged facing said substrate; (b) producing at least one pattern by depositing a substance on said first compact film of particles in the transfer area along a contour of said pattern, said substance maintaining together the particles of the film in contact with this substance; (c) removing at least one portion of the particles of the first films located interiorly relatively to said contour or exteriorly relatively to the latter; and then (d) transferring patterns onto said substrate, through said outlet of particles. (a) producing at least one first compact film of particles floating on a carrier liquid provided in a transfer area having an outlet of particles arranged facing said substrate; (b) producing at least one pattern by depositing a substance on said first compact film of particles in the transfer area along a contour of said pattern, said substance maintaining together the particles of the film in contact with this substance; (c) removing at least one portion of the particles of the first films located interiorly relatively to said contour or exteriorly relatively to the latter; and then (d) transferring patterns onto said substrate, through said outlet of particles.
A method for charging a lithium-ion secondary battery, comprising: charging a lithium-ion secondary battery by performing constant-current charge until a set voltage is reached, or by performing constant-current charge until a set voltage is reached followed by performing constant-voltage charge at the set voltage for 30 minutes or less, wherein the set voltage is from 3.4 V to 3.8 V, the lithium-ion secondary battery comprising: a positive electrode comprising a positive electrode active material comprising a spinel-type lithium nickel manganese complex oxide; a negative electrode comprising a negative electrode active material comprising a lithium titanium complex oxide; and an electrolytic solution comprising a nonaqueous solvent comprising dimethyl carbonate, wherein a content of the dimethyl carbonate is more than 70% by volume with respect to a total amount of the nonaqueous solvent, and a capacity ratio between a negative electrode capacity of the negative electrode and a positive electrode capacity of the positive electrode (negative electrode capacity/positive electrode capacity) is 1 or less. a positive electrode comprising a positive electrode active material comprising a spinel-type lithium nickel manganese complex oxide; a negative electrode comprising a negative electrode active material comprising a lithium titanium complex oxide; and an electrolytic solution comprising a nonaqueous solvent comprising dimethyl carbonate, wherein a content of the dimethyl carbonate is more than 70% by volume with respect to a total amount of the nonaqueous solvent, and a capacity ratio between a negative electrode capacity of the negative electrode and a positive electrode capacity of the positive electrode (negative electrode capacity/positive electrode capacity) is 1 or less.
An assay method for determining drug receptor occupancy in a subject dosed with a drug of interest that covalently binds to the receptor of interest, said method comprising the steps of: a. collecting a blood sample from a subject treated with the drug of interest, b. adding a lysis solution comprising a quencher that irreversibly binds at the same receptor site as the drug of interest to the blood sample, c. isolating drug bound and quencher bound receptor by immunocapture, d. digesting the isolated drug bound and quencher bound receptor to generate drug bound and quencher bound surrogate peptides, e. measuring the amount of surrogate peptides using LC-MS/MS and determining the amount of receptor bound to drug by comparing the amount of drug bound surrogate peptide to the total amount of drug bound and quencher bound surrogate peptides. a. collecting a blood sample from a subject treated with the drug of interest, b. adding a lysis solution comprising a quencher that irreversibly binds at the same receptor site as the drug of interest to the blood sample, c. isolating drug bound and quencher bound receptor by immunocapture, d. digesting the isolated drug bound and quencher bound receptor to generate drug bound and quencher bound surrogate peptides, e. measuring the amount of surrogate peptides using LC-MS/MS and determining the amount of receptor bound to drug by comparing the amount of drug bound surrogate peptide to the total amount of drug bound and quencher bound surrogate peptides.
A method, comprising: obtaining a maximal clear channel assessment, CCA, duration by a wireless device adopting a frame based equipment, FBE, listen-before-talk, LBT, mechanism in a wireless communication network, wherein the maximal CCA is based on channel loading information; determining a random CCA duration for a first FBE frame, wherein the random CCA duration is generated from the maximal CCA duration; performing an LBT channel access procedure using the random CCA duration for the first FBE frame; and transmitting radio signals in the first FBE frame after the random CCA duration if the wireless device detects a channel idle condition, characterized by the maximal CCA duration being longer than a timing difference between a base station and a user equipment in the wireless network. obtaining a maximal clear channel assessment, CCA, duration by a wireless device adopting a frame based equipment, FBE, listen-before-talk, LBT, mechanism in a wireless communication network, wherein the maximal CCA is based on channel loading information; determining a random CCA duration for a first FBE frame, wherein the random CCA duration is generated from the maximal CCA duration; performing an LBT channel access procedure using the random CCA duration for the first FBE frame; and transmitting radio signals in the first FBE frame after the random CCA duration if the wireless device detects a channel idle condition, characterized by the maximal CCA duration being longer than a timing difference between a base station and a user equipment in the wireless network.
A positive electrode lead terminal of a solid electrolytic capacitor suitable for being electrically connected to a positive electrode lead wire protruding from a front end face of a capacitor element and sealed with an exterior sealing element made of synthetic resin together with the capacitor element except for a part of the positive electrode lead terminal, the positive electrode lead terminal comprising: a tabular positive electrode base frame; a raised connecting piece arranged to extend upward from an edge of the positive electrode base frame and suitable for being connected to the positive electrode lead wire; and reinforcing pieces arranged between both side portions of the raised connecting piece and both side portions of the positive electrode base frame, the reinforcing pieces being integral with the raised connecting piece, wherein the reinforcing pieces extend from both side edges of the raised connecting piece and are positioned above the positive electrode base frame in a state in which an angle between the reinforcing piece and the raised connecting piece is 90 degrees or less, wherein the raised connecting piece is formed by upwardly bending a piece connected to an edge of the positive electrode base frame, and wherein the reinforcing pieces are formed by bending portions connected to side edges of the raised connecting piece. a tabular positive electrode base frame; a raised connecting piece arranged to extend upward from an edge of the positive electrode base frame and suitable for being connected to the positive electrode lead wire; and reinforcing pieces arranged between both side portions of the raised connecting piece and both side portions of the positive electrode base frame, the reinforcing pieces being integral with the raised connecting piece, wherein the reinforcing pieces extend from both side edges of the raised connecting piece and are positioned above the positive electrode base frame in a state in which an angle between the reinforcing piece and the raised connecting piece is 90 degrees or less, wherein the raised connecting piece is formed by upwardly bending a piece connected to an edge of the positive electrode base frame, and wherein the reinforcing pieces are formed by bending portions connected to side edges of the raised connecting piece.
A cleansing composition comprising: a) an anionic surfactant; b) an amphoteric and/or zwitterionic surfactant; c) a C 6 -C 14 acid, C 6 -C 14 alcohol and/or C 6 -C 14 amide; d) from 30 to 85% by weight water, forming a lamellar precursor composition, and e) structuring agent, wherein less than 0.0075% by weight of the anionic surfactant is isethionate, wherein the anionic surfactant is from 35 to 100% by weight taurate, preferably 100% by weight taurate, and further wherein the cleansing composition comprises less than 1% by weight sulfate, preferably no sulfate, wherein the cleansing composition comprises inorganic salt, and wherein the pH is from 4.9 to 6.0. a) an anionic surfactant; b) an amphoteric and/or zwitterionic surfactant; c) a C 6 -C 14 acid, C 6 -C 14 alcohol and/or C 6 -C 14 amide; d) from 30 to 85% by weight water, forming a lamellar precursor composition, and e) structuring agent, wherein less than 0.0075% by weight of the anionic surfactant is isethionate, wherein the anionic surfactant is from 35 to 100% by weight taurate, preferably 100% by weight taurate, and further wherein the cleansing composition comprises less than 1% by weight sulfate, preferably no sulfate, wherein the cleansing composition comprises inorganic salt, and wherein the pH is from 4.9 to 6.0.