mhurhangee/ep-ind-claims huggingface dataset:
A riding-type mower, comprising: a body frame movably supported by front wheels and rear wheels; a cockpit arranged over the body frame, the cockpit having an operator's seat; a pair of pillars fixed to the body frame, each of the pillars extending upwardly towards a space above the operator's seat, having a base end part attached to the body frame and a free end part at which a coupling part is formed, and being spaced out from each other with respect to the width direction of the mower; a linkage mechanism coupled to the pair of pillars at positions below the coupling part of each pillar; and a grass container held by the linkage mechanism; characterized by an upper unit disposed between mutually-facing inner side surfaces of the free end part of each pillar, the upper unit being swingably coupled to the coupling part of each pillar about a swing axis extending along the width direction of the mower, and being configured to swing within a predetermined swing range between an extended swung position and an retracted swung position. a body frame movably supported by front wheels and rear wheels; a cockpit arranged over the body frame, the cockpit having an operator's seat; a pair of pillars fixed to the body frame, each of the pillars extending upwardly towards a space above the operator's seat, having a base end part attached to the body frame and a free end part at which a coupling part is formed, and being spaced out from each other with respect to the width direction of the mower; extending upwardly towards a space above the operator's seat, having a base end part attached to the body frame and a free end part at which a coupling part is formed, and being spaced out from each other with respect to the width direction of the mower; a linkage mechanism coupled to the pair of pillars at positions below the coupling part of each pillar; and a grass container held by the linkage mechanism; characterized by an upper unit disposed between mutually-facing inner side surfaces of the free end part of each pillar, the upper unit being swingably coupled to the coupling part of each pillar about a swing axis extending along the width direction of the mower, and being configured to swing within a predetermined swing range between an extended swung position and an retracted swung position.
A method of operating an elevator system comprising: identifying one or more components (46, 48, 50, 52) in an elevator hoistway requiring periodic maintenance and/or inspection; programming hoistway component locations of the one or more components (46, 48, 50, 52) into an elevator car control system; driving the elevator car to a programmed hoistway component location of a selected component (46, 48, 50, 52) of the one or more components (46, 48, 50, 52) utilizing the hoistway component location programmed into the elevator car control system; and accessing the selected component (46, 48, 50, 52) from inside the elevator car to perform maintenance and/or inspection of the selected component (46, 48, 50, 52); characterized in that programming the hoistway component locations of the one or more components (46, 48, 50, 52) comprises: driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system, the sensed hoistway component location indicative of the hoistway component location. identifying one or more components (46, 48, 50, 52) in an elevator hoistway requiring periodic maintenance and/or inspection; programming hoistway component locations of the one or more components (46, 48, 50, 52) into an elevator car control system; driving the elevator car to a programmed hoistway component location of a selected component (46, 48, 50, 52) of the one or more components (46, 48, 50, 52) utilizing the hoistway component location programmed into the elevator car control system; and accessing the selected component (46, 48, 50, 52) from inside the elevator car to perform maintenance and/or inspection of the selected component (46, 48, 50, 52); characterized in that programming the hoistway component locations of the one or more components (46, 48, 50, 52) comprises: driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system, the sensed hoistway component location indicative of the hoistway component location. driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system, the sensed hoistway component location indicative of the hoistway component location.
Method of lubrication of a motorised hub intended for the electric drive of an axle of a motor vehicle, said vehicle also having another traction source, said motorised hub comprising a hub intended to receive a wheel, the hub being mounted rotating in relation to a hub carrier, the motorised hub comprising an electric traction machine, the electric machine comprising an external stator linked to the hub carrier and an internal rotor, the motorised hub comprising reduction means acting between the rotor of the electric machine and the hub, the motorised hub comprising coupling/decoupling means able to adopt a coupled position, in which the rotation of the electric machine is coupled to the rotation of the hub, and a decoupled position, in which the rotation of the electric machine is decoupled from the rotation of the hub, the reduction means and the coupling/decoupling means being contained in a housing, the housing also containing a lubricant, lubrication of the motorised hub being provided by rotation of the electric machine, said method being characterised in that it comprises a lubrication phase consisting of causing the electric machine to rotate when the coupling/decoupling means are in the decoupled position and the vehicle is propelled by the other traction source.
A cold rolled and heat treated steel sheet having a composition comprising of the following elements, expressed in percentage by weight: 0.11 % ≤ Carbon ≤ 0.15 % 1.1 % ≤ Manganese ≤ 1.8 % 0.5 % ≤ Silicon ≤ 0.9 % 0.002 % ≤ Phosphorus ≤ 0.02 % Sulfur ≤ 0.003 %. 0 % ≤ Aluminum ≤ 0.05 % Nitrogen ≤ 0.007 % and can contain one or more of the following optional elements 0.05 % ≤ Chromium ≤ 1 % 0.001 % ≤ Molybdenum ≤ 0. 5 % 0.001 % ≤ Niobium ≤ 0.1 % 0.001 % ≤ Titanium ≤ 0.1 % 0.01 % ≤ Copper ≤ 2 % 0.01 % ≤ Nickel ≤ 3 % 0.0001 % ≤ Calcium ≤ 0.005 % 0 % ≤ Vanadium ≤ 0.1 % 0 % ≤ Boron ≤ 0.003 % 0 % ≤ Cerium ≤ 0.1 % 0 % ≤ Magnesium ≦ 0.010 % 0 % ≤ Zirconium ≦ 0.010 % the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel sheet consisting of in area fraction, 50 to 80% Ferrite, 10 to 30% Bainite, 1 to 10% Residual Austenite, and 1% to 5% Martensite, wherein the cumulated amounts of Bainite and Ferrite less than 94% and an ultimate tensile strength of 630 MPa or more, and a total elongation of 26% or more measured according to JIS Z2241 standard. following elements, expressed in percentage by weight: 0.11 % ≤ Carbon ≤ 0.15 % 1.1 % ≤ Manganese ≤ 1.8 % 0.5 % ≤ Silicon ≤ 0.9 % 0.002 % ≤ Phosphorus ≤ 0.02 % Sulfur ≤ 0.003 %. 0 % ≤ Aluminum ≤ 0.05 % Nitrogen ≤ 0.007 % and can contain one or more of the following optional elements 0.05 % ≤ Chromium ≤ 1 % 0.001 % ≤ Molybdenum ≤ 0. 5 % 0.001 % ≤ Niobium ≤ 0.1 % 0.001 % ≤ Titanium ≤ 0.1 % 0.01 % ≤ Copper ≤ 2 % 0.01 % ≤ Nickel ≤ 3 % 0.0001 % ≤ Calcium ≤ 0.005 % 0 % ≤ Vanadium ≤ 0.1 % 0 % ≤ Boron ≤ 0.003 % 0 % ≤ Cerium ≤ 0.1 % 0 % ≤ Magnesium ≦ 0.010 % 0 % ≤ Zirconium ≦ 0.010 % the remainder composition being composed of iron and unavoidable impurities caused by processing, the microstructure of said steel sheet consisting of in area fraction, 50 to 80% Ferrite, 10 to 30% Bainite, 1 to 10% Residual Austenite, and 1% to 5% Martensite, wherein the cumulated amounts of Bainite and Ferrite less than 94% and an ultimate tensile strength of 630 MPa or more, and a total elongation of 26% or more measured according to JIS Z2241 standard.
A forming method of an inertial sensor, comprising: providing a first substrate with a first conducting material layer and a second substrate with a second conducting material layer, wherein the second conducting material layer has a comb tooth region, a trench is formed in a surface of the comb tooth region, and a thin film layer is further formed at a bottom of the trench; mutually bonding the second conducting material layer and the first conducting material layer; and etching at least the comb tooth region of the second conducting material layer, and stopping etching at the thin film layer to form a movable comb tooth structure, wherein bottoms of comb teeth in the movable comb tooth structure are all fixed to the thin film layer; and removing the thin film layer. providing a first substrate with a first conducting material layer and a second substrate with a second conducting material layer, wherein the second conducting material layer has a comb tooth region, a trench is formed in a surface of the comb tooth region, and a thin film layer is further formed at a bottom of the trench; mutually bonding the second conducting material layer and the first conducting material layer; and etching at least the comb tooth region of the second conducting material layer, and stopping etching at the thin film layer to form a movable comb tooth structure, wherein bottoms of comb teeth in the movable comb tooth structure are all fixed to the thin film layer; and removing the thin film layer.
Security thread or stripe, preferably for the incorporation into or onto a value-document or currency substrate, comprising a first plastic foil which carries a first imprinting comprising oriented magnetic or magnetizable pigment particles, the orientation of said pigment particles representing graphic information, wherein said graphic information is a repetitive seamless pattern of suitable repetition length, the security thread or stripe being characterized in that said first imprinting is a hardened structured coating in the form of indicia.
A communication apparatus comprising: a receiver adapted to receive a control channel element, CCE, in a physical downlink control channel, PDCCH, and circuitry adapted to demodulate the PDCCH; characterized in that the CCE is formed of 6 resource-element groups, REGs, in a control-resource set, CORESET, the 6 REGs being bundled into REG bundles, and a REG bundle size of the REG bundles is different according to a number of symbols of the CORESET, wherein the number of symbols of the CORESET is indicated by a higher layer signaling. a receiver adapted to receive a control channel element, CCE, in a physical downlink control channel, PDCCH, and circuitry adapted to demodulate the PDCCH; characterized in that the CCE is formed of 6 resource-element groups, REGs, in a control-resource set, CORESET, the 6 REGs being bundled into REG bundles, and a REG bundle size of the REG bundles is different according to a number of symbols of the CORESET, wherein the number of symbols of the CORESET is indicated by a higher layer signaling.
A positive electrode active material for a lithium secondary battery, comprising a lithium-containing composite metal oxide in the form of secondary particles formed by aggregation of primary particles capable of being doped and undoped with lithium ions, each of the secondary particles having on its surface a coating layer, the positive electrode active material satisfying the following requirements to: the lithium-containing composite metal oxide has an α-NaFeO 2 type crystal structure represented by the following formula: Li a (Ni b Co c M 1 1-b-c)O 2 wherein 0.9 ≦ a ≦ 1.2, 0.9 ≦ b < 1, 0 < c ≦ 0.1, 0.9 < b + c ≦ 1, and M 1 represents at least one metal selected from the group consisting of Mg, Al, Ca, Sc, Ti, V, Cr, Mn, Fe, Cu, Zn, Ga, Ge, Sr, Y, Zr, Nb, Mo, Tc, Ru, Rh, Pd, Ag, Cd, In and Sn; the coating layer comprises Li and M 2, wherein M 2 represents at least one optional metal selected from the group consisting of Al, Ti, Zr and W; and the positive electrode active material has an average secondary particle diameter of 2 μm to 20 μm, a BET specific surface area of 0.1 m 2 / g to 2.5 m 2 / g, and a value of 1.0 to 2.0 as obtained by dividing a tamped density of the positive electrode active material by the untamped density of the positive electrode active material. the lithium-containing composite metal oxide has an α-NaFeO 2 type crystal structure represented by the following formula: Li a (Ni b Co c M 1 1-b-c)O 2 wherein 0.9 ≦ a ≦ 1.2, 0.9 ≦ b < 1, 0 < c ≦ 0.1, 0.9 < b + c ≦ 1, and M 1 represents at least one metal selected from the group consisting of Mg, Al, Ca, Sc, Ti, V, Cr, Mn, Fe, Cu, Zn, Ga, Ge, Sr, Y, Zr, Nb, Mo, Tc, Ru, Rh, Pd, Ag, Cd, In and Sn; the coating layer comprises Li and M 2, wherein M 2 represents at least one optional metal selected from the group consisting of Al, Ti, Zr and W; and the positive electrode active material has an average secondary particle diameter of 2 μm to 20 μm, a BET specific surface area of 0.1 m 2 / g to 2.5 m 2 / g, and a value of 1.0 to 2.0 as obtained by dividing a tamped density of the positive electrode active material by the untamped density of the positive electrode active material.
A gas-adsorbing material comprising: a gas-adsorbing composition comprising a metal that adsorbs nitrogen gas and that is inactivated by moisture, which is at least one of Li, V, and Zr, or an alloy comprising the same; and an additive in a form of a plurality of particles capable of absorbing moisture; wherein the gas adsorbing material further comprises a moisture absorbing material (11,14) coating the gas-adsorbing composition (12,13) of metal and additive and the moisture absorbing material (11,14) is disposed in a region for being exposed to a target gas in a target gas adsorption region of the gas-adsorbing composition; characterised in that the metal is attached to a surface of the particles of additive, the particles of the additive being covered and coated with the metal; a gas-adsorbing composition comprising a metal that adsorbs nitrogen gas and that is inactivated by moisture, which is at least one of Li, V, and Zr, or an alloy comprising the same; and an additive in a form of a plurality of particles capable of absorbing moisture; wherein the gas adsorbing material further comprises a moisture absorbing material (11,14) coating the gas-adsorbing composition (12,13) of metal and additive and the moisture absorbing material (11,14) is disposed in a region for being exposed to a target gas in a target gas adsorption region of the gas-adsorbing composition; characterised in that the metal is attached to a surface of the particles of additive, the particles of the additive being covered and coated with the metal;
A video encoder for an image block, the video encoder is configured to encode all color components of the video signal data, wherein the encoder is configured to use a luminance coding algorithm and common interpolation filters for B and P frames for all of the color components of the video signal data, and wherein said encoder is configured to encode all of the color components of the video signal data without applying a residual color transform thereto, and wherein color components of the video signal data input to the encoder are color components of YUV, YCrCb or YCOCG, characterized in that the video encoder is configured to encode each color component of the video signal data using a respective one of three separate spatial predictors.
A method in a network comprising a plurality of nodes for monitoring an object, wherein a first node of the plurality of nodes performs or triggers the steps of: • providing, in the network, a first rank value for monitoring the object by the first node; • determining a comparison result by comparing the first rank value with at least a second rank value provided by another node of the plurality of nodes, or receiving the comparison result from a server, wherein the first rank value and the second rank value are based on a monitoring capability and a communication capability of the first node and the another node, wherein the monitoring capability comprises a precision and reliability of measurements by the first node and the another node, and wherein the communication capability comprises: a bandwidth, latency, and a reliability of a communication link involving the first node or the another node; and • transferring or assuming a monitoring responsibility based on the comparison result. • providing, in the network, a first rank value for monitoring the object by the first node; • determining a comparison result by comparing the first rank value with at least a second rank value provided by another node of the plurality of nodes, or receiving the comparison result from a server, wherein the first rank value and the second rank value are based on a monitoring capability and a communication capability of the first node and the another node, wherein the monitoring capability comprises a precision and reliability of measurements by the first node and the another node, and wherein the communication capability comprises: a bandwidth, latency, and a reliability of a communication link involving the first node or the another node; and • transferring or assuming a monitoring responsibility based on the comparison result.
Device for shaping at least one thread-like material, which is formed in a forming unit and is deposited on a transporting device for the subsequent thermosetting process, characterised in that a retaining means (4, 14, 15) and a drivable, curved depositing tube are arranged one after the other in the yarn transporting direction, the device being alternatively switchable between straight set yarn or frieze yarn production.
A system for exploration and production drilling for oil and gas or other fluids that are to be recovered from bedrock, including a non-rotatable drill string formed from several connectable drill-string sections (31, 31a, 31b), a bottom-hole assembly provided with a rotatable drill bit connected to a drill-bit drive, the drill string being provided with first and second line grooves (34a, 34b) arranged to receive, respectively, a fluid line and a power and signal line, characterised in that at their respective end portions, the drill-string sections (31, 31a, 31b) are provided with an asymmetric drill-string connection of the groove and tongue type, a groove and a matching complementary tongue being connectable by sliding the drill string section (31, 31a, 31b) transverse of the drill string's axial direction, wherein a drilling rig is provided with a line feeder and stuffing boxes (231, 232) arranged for passing the fluid line and the power and signal line from the line feeder into abutment in the respective line grooves (34a, 34b) of the drill string.
Tyre comprising a tread comprising a plurality of blocks separated when new in the circumferential direction by grooves and provided with contact faces each forming part of the tread surface of said tread, each block of said plurality of blocks being provided with at least one sipe extending from said contact face, having a depth Pc and having a width that can vary in the direction of the depth Pc, and known as a complex sipe, said width being at a maximum in a distal part of said complex sipe, the tread when new comprises a first layer of material delimiting the tread surface and at least one second layer of material radially on the inside of said first layer, the first layer of material being formed in a first rubber composition and said second layer of material being formed in a second rubber composition different from the first rubber composition, said complex sipe and the grooves separating the blocks are formed entirely in the first layer of material, characterized in that laterally on each side of said complex sipe, the second layer of material extends, when viewed in transverse section in said block, beyond the bottom of said complex sipe in the direction of the contact face of said block.
A controlled environment system for storing articles in a controlled environment, comprising a container system, a humidity regulation system, a temperature regulation system and an electronic control system connected to the humidity and temperature regulation systems for control thereof, the container system comprising a controlled environment chamber in which the temperature and degree of humidity is regulated by the temperature and humidity regulation systems, the humidity regulation system comprising at least one chamber humidity sensor arranged to measure the humidity of the gas in the controlled environment chamber, a humidity reducing system adapted to reduce the humidity of the gas in the controlled environment chamber and a humidity increasing system adapted to increase the humidity of the gas in the controlled environment chamber, wherein the humidity increasing system comprises a water condenser and an evaporation pad, the water condenser comprising a cooling element in contact with air external to the container system and configured to collect water from the external air by cooling the cooling element below the dew point of the external air and collecting said water on the evaporation pad, the evaporation pad being mounted in the container system in gaseous communication with the controlled environment chamber, and wherein the humidity reducing system comprises a water condenser including a condenser element and a cooling element, the water condenser configured to collect water from the gaseous environment inside the controlled environment chamber by cooling of the condenser element and cooling element below the dew point of the gas inside the controlled environment chamber.
An anti-FcRn antibody or FcRn-binding fragment thereof comprising a heavy chain or heavy chain fragment having a variable region, wherein said variable region comprises three CDRs wherein CDR H1 has the sequence given in SEQ ID NO: 1, CDR H2 has the sequence given in SEQ ID NO: 2 and CDR H3 has the sequence given in SEQ ID NO: 3, and wherein the antibody or FcRn-binding fragment thereof further comprises a light chain or light chain fragment having a variable region, wherein said variable region comprises three CDRs, wherein CDR L1 has the sequence given in SEQ ID NO: 4, CDR L2 has the sequence given in SEQ ID NO: 5 and CDR L3 has the sequence given in SEQ ID NO: 6.
Shading device for a glazed vehicle opening, having a pull-out bar, which is guided in opposite slide rails, and a shading element, which is mounted on the pull-out bar and which can be adjusted between a retracted position and an extended position by sliding the pull-out bar along the slide rails, wherein the pull-out bar has at least one toothed wheel drive (38, 40) having toothed wheels (38a, 40a), which are arranged at opposite ends of the pull-out bar and which each mesh with a set of teeth formed along the slide rails, and wherein the toothed wheels (38a, 40a) are connected to one another for conjoint rotation, characterized in that the pull-out bar has a first toothed wheel drive and a second toothed wheel drive, which is arranged at a spacing in the direction of adjustment of the pull-out bar.