mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode material for an alkaline storage battery, comprising: nickel hydroxide; and at least one of a Sr compound, a Ca compound, and a compound of at least one element selected from the group consisting of Y and lanthanide elements of atomic number 62 (Sm) to 71 (Lu), characterized in that an A element as at least one element selected from the group consisting of Al, and Ga is held in solid solution in a crystallite of the nickel hydroxide; the content of the A element, /([Ni] +), is 5% or more and 16% or less (where represents the molarity of the A element and [Ni] represents the molarity of Ni in the crystallite); and the nickel hydroxide includes α-phase nickel hydroxide and β-phase nickel hydroxide. nickel hydroxide; and at least one of a Sr compound, a Ca compound, and a compound of at least one element selected from the group consisting of Y and lanthanide elements of atomic number 62 (Sm) to 71 (Lu), characterized in that an A element as at least one element selected from the group consisting of Al, and Ga is held in solid solution in a crystallite of the nickel hydroxide; the content of the A element, /([Ni] +), is 5% or more and 16% or less (where represents the molarity of the A element and [Ni] represents the molarity of Ni in the crystallite); and the nickel hydroxide includes α-phase nickel hydroxide and β-phase nickel hydroxide.
Bridle or saddle assembly, comprising a multi-piece bridle strap or saddle strap, comprising a first strap piece and a second strap piece, which two strap pieces (2, 5) are detachably connected to one another by a strap connector, wherein the bridle strap or saddle strap (1, 16) comprises several second strap pieces (5, 5.1), which are held together in an arrangement above one another with a distance interval to their end pointing towards the first strap piece, wherein, in a first possible use, both of the second strap pieces (5, 5.1) can be secured jointly in the arrangement above one another in the strap connector of the first strap piece so as to connect this to the first strap piece, characterised in that, in a second possible use, one of the second strap pieces (5.1) is connected to the first strap piece, and the other strap piece is connected to another part of the bridle or saddle assembly.
Central valve for a pivoting motor adjuster, comprising a housing tube which has a first working port, a supply port, a second working port and a tank outlet port, wherein each of the two working ports (A, B) is assigned a radial recess (97 or 99) which is able to be covered by a ring-shaped web (60, 61) of a piston which is arranged inside the housing tube so as to be axially displaceable in relation thereto, wherein in a first position of the hollow piston, the first working port is connected to the supply port in that the one ring-shaped web opens up to the supply port the one radial recess, wherein in said first position, the second working port is opened up to the tank outlet port by the other ring-shaped web, wherein in a second position of the piston, said piston is positioned in a middle position, wherein in a third position of the hollow piston, the second working port is connected to the supply port in that the other ring-shaped web opens up to the supply port the other radial recess, wherein in said third position, the first working port is opened up to the tank outlet port by the one ring-shaped web, wherein, on its outer side, the piston bears one or more first check valves which open a flow path from the first working port to the second working port whenever the piston is in its third position and a pressure which exceeds a threshold value prevails at the first working port, and, on its outer side, the piston bears one or more second check valves which open a flow path from the second working port to the first working port whenever the piston is in its first position and a pressure which exceeds a threshold value prevails at the second working port, wherein in the middle position, both radial recesses (97, 99) are covered with covers (59, 56) towards the tank outlet port by the ring-shaped webs (60, 61), with the result that pressure peaks above the threshold values are intensely throttled from the working ports (A, B) to the check valves (104, 105), characterized in that the first and second check valve (104, 105) or the first or second check valves are arranged in each case in a sleeve (93, 94) which surrounds the piston and on which the respective ring-shaped web (60, 61) is formed.
Method for operating an internal combustion engine which comprises a combustion unit, a generator coupled to the combustion unit, a fresh gas line, an exhaust gas line, an exhaust gas recirculation line which branches off from the exhaust gas line and opens into the fresh gas line, and at least one electric heating device which is integrated into the exhaust gas line or into the exhaust gas recirculation line, characterized in that during an overrun mode of the combustion unit, the heating device is operated with energy provided by the generator, and exhaust gas heated by means of the heating device is partially or completely guided via the exhaust gas recirculation line.
A lithographic printing plate support comprising: an aluminum plate; and an aluminum anodized film formed on the aluminum plate and having micropores which extend in a depth direction of the anodized film from a surface of the anodized film opposite from the aluminum plate, wherein each of the micropores has a large-diameter portion which extends to a depth of 5 to 60 nm, depth A, from the surface of the anodized film and a small-diameter portion which communicates with a bottom of the large-diameter portion and extends to a depth of 900 to 2,000 nm from a communication position, wherein an average diameter of the large-diameter portion at the surface of the anodized film is from 10 to 60 nm and a ratio of the depth A to the average diameter, depth A / average diameter, is from 0.1 to 4.0, wherein a communication position average diameter of the small-diameter portion is more than 0 but less than 20 nm, and wherein a ratio of the communication position average diameter of the small-diameter portion to the average diameter of the large-diameter portion, small-diameter portion diameter / large-diameter portion diameter, is up to 0.85.
A wireless earphone, comprising an earbud part, an earbud stem part, and an antenna unit disposed in the earbud part and the earbud stem part, wherein the antenna unit comprises: a first antenna radiator, wherein the first antenna radiator comprises a first end; a first feeding unit, wherein the first feeding unit is electrically connected to the first end, to feed the first antenna radiator; a second antenna radiator, wherein the second antenna radiator comprises a second end, and the second end of the second antenna radiator and the first end of the first antenna radiator are disposed at intervals; a second feeding unit, wherein the second feeding unit is electrically connected to the second end, to feed the second antenna radiator; and a third antenna radiator, wherein the third antenna radiator comprises a first ground point, at least a part of the third antenna radiator is located in the earbud part, the third antenna radiator comprises a third end, the third end is configured with a first distance from the first end, and the third end is configured with a second distance from the second end, wherein at least a part of one of the first antenna radiator and the second antenna radiator is located in the earbud part, and the other is located in the earbud stem part; or at least a part of the first antenna radiator and at least a part of the second antenna radiator both are located in the earbud stem part. a first antenna radiator, wherein the first antenna radiator comprises a first end; a first feeding unit, wherein the first feeding unit is electrically connected to the first end, to feed the first antenna radiator; a second antenna radiator, wherein the second antenna radiator comprises a second end, and the second end of the second antenna radiator and the first end of the first antenna radiator are disposed at intervals; a second feeding unit, wherein the second feeding unit is electrically connected to the second end, to feed the second antenna radiator; and a third antenna radiator, wherein the third antenna radiator comprises a first ground point, at least a part of the third antenna radiator is located in the earbud part, the third antenna radiator comprises a third end, the third end is configured with a first distance from the first end, and the third end is configured with a second distance from the second end, wherein at least a part of one of the first antenna radiator and the second antenna radiator is located in the earbud part, and the other is located in the earbud stem part; or at least a part of the first antenna radiator and at least a part of the second antenna radiator both are located in the earbud stem part.
A conveyance seat configured such that an additional member is able to be installed on the conveyance seat, and including a seat cushion; a seat back that is connected to the seat cushion such that the seat back is tiltable, wherein the seat cushion includes a seat pad that forms a seat outer shape, and a seat cover that covers a seating surface of the seat pad; wherein when the additional member is installed on a seating side of the seat cushion, a pair of engaging portions that are columnar and protrude from a rear surface of the additional member is moved toward the seat back while being in contact with the seat cushion, and the pair of engaging portions is inserted between the seat cushion and the seat back, and is engaged with a pair of engaged portions disposed between the seat cushion and the seat back;wherein the seat pad includes a general portion that elastically supports an occupant, and a pair of compression portions that are compressed more easily than the general portion; wherein the pair of compression portions contacts and supports the seat cover, and is disposed on movement paths of the pair of engaging portions such that the pair of engaging portions is moved toward the pair of engaged portions and is engaged with the pair of engaged portions while compressing the pair of compression portions; the conveyance seat characterized in that: each compression portion is provided between a pair of slit portions (21a, 22a; 21b, 22b) that are grooves extending along the movement path of a respective one of the pair of engaging portions, such that the compression portion is separated from the general portion by the pair of slit portions (21a, 22a; 21b, 22b); and each compression portion is compressed while being expanded toward the slit portions (21a, 22a; 21b, 22b). each compression portion is provided between a pair of slit portions (21a, 22a; 21b, 22b) that are grooves extending along the movement path of a respective one of the pair of engaging portions, such that the compression portion is separated from the general portion by the pair of slit portions (21a, 22a; 21b, 22b); and each compression portion is compressed while being expanded toward the slit portions (21a, 22a; 21b, 22b).
A method for three-dimensional graphical representation of a runway on a display screen of an on-board display system for aircraft, said graphical representation being displayed in a synthetic view of an outdoor landscape, characterised in that said graphical representation comprises a strip disposed in the approach axis of the runway, said strip being a straight strip inclined by an angle ( α) equalling 1 degree relative to the horizontal, said strip beginning at the threshold of the runway and being located under the approach axis of the aircraft.
Feeding apparatus for feeding bulk material into a screw machine, having - a feed pipe for conducting a bulk material flowing in a delivery direction, - an induction coil for detecting a metal particle in the bulk material, - a removal device for removing the detected metal particle from the bulk material, and - a control device for activating the removal device, characterized in that the removal device has a displaceable screen element by means of an actuating drive of the feeding apparatus having a multiplicity of through-openings for the bulk material. - a feed pipe for conducting a bulk material flowing in a delivery direction, - an induction coil for detecting a metal particle in the bulk material, - a removal device for removing the detected metal particle from the bulk material, and - a control device for activating the removal device,
A camera arrangement for image detection comprising a plurality of radiation-sensitive sensor elements (10a, 10b, 10c) arranged in order to record a common object plane in offset fields of view (12a, 12b, 12c), comprising: a balancer implemented, for balancing the sensor elements, to post-process for each sensor element (10a, 10b, 10c) a sensor signal (AW n I)) of the respective sensor elements n (10a, 10b, 10c) by means of balancing information (f n) determined in balancing and stored, so that a variation of an intensity I of incoming radiation in the respective field of view (12a, 12b, 12c) leads to a change of the respective post-processed sensor signal according to a desired mapping function F n (a n I), wherein the mapping functions F n () of all factory-balanced sensor elements (10a, 10b, 10c) are equal to each other and an is a sensor element-individual factor; and a shading corrector implemented to change the sensor element-individual factors a n on the basis of a recording under current temperature and illumination recording conditions generated by means of the camera arrangement with the sensor elements (10a, 10b, 10c) so that intensity differences of the recording are balanced across the common object plane. a balancer implemented, for balancing the sensor elements, to post-process for each sensor element (10a, 10b, 10c) a sensor signal (AW n I)) of the respective sensor elements n (10a, 10b, 10c) by means of balancing information (f n) determined in balancing and stored, so that a variation of an intensity I of incoming radiation in the respective field of view (12a, 12b, 12c) leads to a change of the respective post-processed sensor signal according to a desired mapping function F n (a n I), wherein the mapping functions F n () of all factory-balanced sensor elements (10a, 10b, 10c) are equal to each other and an is a sensor element-individual factor; and a shading corrector implemented to change the sensor element-individual factors a n on the basis of a recording under current temperature and illumination recording conditions generated by means of the camera arrangement with the sensor elements (10a, 10b, 10c) so that intensity differences of the recording are balanced across the common object plane.
Method of communication implemented by a base station, SB, of an access network to allocate spectral resources between terminals (CU, D2D) identified by the station, the station having allocated all its spectral resources to terminals CU i identified having a communication established via the base station, these terminals are termed served, comprising for any peer D2D j of terminals that are candidates to a D2D communication: - a check of admission of the peer D2D j comprising the determination of a set R j of served terminals CU i that are candidates for the sharing of their respective spectral resources with the peer D2D j under the sole constraint of the compliance of the candidate terminal CU i and of the peer D2D j with their respective QoS criteria, characterized in that a terminal CU i belongs to the set R j if it satisfies the following system of equations calculated at the base station: { 0 ≤ g j ξ i, min c + h j, B ξ i, min c ξ j, min d σ N 2 g j g i, B − ξ i, min c ξ j, min d h i, j h j, B ≤ P max 0 ≤ h i, j ξ i, min c ξ j, min d + g i, B ξ j, min d σ N 2 g j g i, B − ξ i, min c ξ j, min d h i, j h j, B ≤ P max with: g j, the channel gain between the terminals of the peer D2D j, g i,B, the uplink channel gain between the terminal CU i and the base station, h j,B, the channel gain of the interference link at the base station because of the transmitter of the peer D2D j, h i,j, the channel gain of the interference link at the receiver of the peer D2D j because of a terminal CU i, σ N, the power of the additive Gaussian white noise on each channel, P max, the maximum transmission power of a terminal, ξ d j,min the minimum SINR level requested by the peer D2D j, ξ c i,min the minimum SINR level requested by a terminal CU i. - a check of admission of the peer D2D j comprising the determination of a set R j of served terminals CU i that are candidates for the sharing of their respective spectral resources with the peer D2D j under the sole constraint of the compliance of the candidate terminal CU i and of the peer D2D j with their respective QoS criteria, g j, the channel gain between the terminals of the peer D2D j, g i,B, the uplink channel gain between the terminal CU i and the base station, h j,B, the channel gain of the interference link at the base station because of the transmitter of the peer D2D j, h i,j, the channel gain of the interference link at the receiver of the peer D2D j because of a terminal CU i, σ N, the power of the additive Gaussian white noise on each channel, P max, the maximum transmission power of a terminal, ξ d j,min the minimum SINR level requested by the peer D2D j, ξ c i,min the minimum SINR level requested by a terminal CU i.
A yarn comprising a plurality of bicomponent filaments, the bicomponent filaments having a first region comprising a first polymer composition and a second region comprising a second polymer composition, each of the first and second regions being distinct in the bicomponent filaments; each bicomponent filament comprising 5 to 60 weight percent of the first polymer composition and 95 to 40 weight percent of the second polymer composition; wherein the first polymer composition comprises aramid polymer containing 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in the first composition, homogeneously dispersed in the first region in the filament; and wherein the second polymer composition comprises modacrylic polymer being free of discrete carbon particles; the yarn having a total content of 0.1 to 5 weight percent discrete carbon particles. the bicomponent filaments having a first region comprising a first polymer composition and a second region comprising a second polymer composition, each of the first and second regions being distinct in the bicomponent filaments; each bicomponent filament comprising 5 to 60 weight percent of the first polymer composition and 95 to 40 weight percent of the second polymer composition; wherein the first polymer composition comprises aramid polymer containing 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in the first composition, homogeneously dispersed in the first region in the filament; and wherein the second polymer composition comprises modacrylic polymer being free of discrete carbon particles; the yarn having a total content of 0.1 to 5 weight percent discrete carbon particles.
A nanoswitch catenane comprising: (a) a single-stranded nucleic acid comprising (i) a first terminal domain comprising a first functional group, a first binding partner, and a second functional group; (ii) a second terminal domain comprising a third functional group, a second binding partner, and a fourth functional group, wherein the first and second terminal domains are linked to form a host ring, wherein the first and fourth functional groups react in the presence of a reaction agent to form a link, wherein the first and second binding partners specifically bind to a biomolecule of interest to form a link, and wherein the second and third functional groups form a link that breaks in the presence of a dissociation agent, and wherein the single-stranded nucleic acid has a length of 100 nucleotides to 10,000 nucleotides; and (b) at least two circular nucleic acid guest rings catenated with the host ring. (a) a single-stranded nucleic acid comprising (i) a first terminal domain comprising a first functional group, a first binding partner, and a second functional group; (ii) a second terminal domain comprising a third functional group, a second binding partner, and a fourth functional group, wherein the first and second terminal domains are linked to form a host ring, wherein the first and fourth functional groups react in the presence of a reaction agent to form a link, wherein the first and second binding partners specifically bind to a biomolecule of interest to form a link, and wherein the second and third functional groups form a link that breaks in the presence of a dissociation agent, and wherein the single-stranded nucleic acid has a length of 100 nucleotides to 10,000 nucleotides; and (i) a first terminal domain comprising a first functional group, a first binding partner, and a second functional group; (ii) a second terminal domain comprising a third functional group, a second binding partner, and a fourth functional group, (b) at least two circular nucleic acid guest rings catenated with the host ring.
Vehicle, comprising an electric or hybrid-electric traction drive supported by an ungrounded vehicle frame, a current collector which can be electrically connected to the traction drive and which can be brought into galvanic contact with a contact line of a grounded contact line system to supply traction energy, and an electrical protection system for preventing dangerous contact voltages on the vehicle frame or on a vehicle part conductively connected thereto, wherein the protection system has a second protection stage, which is constituted by electrically single-insulated mounting at least of the traction drive on the vehicle frame, and a first protection stage, which is additionally constituted by an electrically isolating DC-DC converter which is connected between current collector and traction drive, and has a switching element by means of which the protection system can be switched between the first and the second protection stage (A, B) through the optional connection in circuit or bypassing of the DC-DC converter, wherein the first protection stage provides a higher degree of safety from dangerous contact voltages than the second protection stage, and wherein the traction drive can be supplied with traction energy from the contact line in both protection stages (A, B).