mhurhangee/ep-ind-claims huggingface dataset:
. Stamped sheet metal part for the internal structure and mechanical strength of a front foot of a motor vehicle body, comprising a lateral surface to be positioned vertically and, with respect to the vehicle, longitudinally in the volume of the front foot between the wheel passage and the door recess, said lateral surface being bounded by a front flank and a rear flank, and carrying an interface for passage of cart elements A lower front door end, characterized in that said side surface further carries first and second ribs (N1, N2) below the lower door hinge passage interface extending transversely from the approach of the front flank to the approach of the rear flank.
A method for wireless communication performed by a wireless device at a user equipment, UE, comprising: transmitting capability signaling information to a base station associated with a UE capability of the UE of maintaining coherence within bundled demodulation reference signals, DM-RS, when the transmission is interrupted; determining to transmit bundled DM-RS to the base station within a plurality of uplink transmissions within a time interval, the time interval comprising a first interval corresponding to a first uplink transmission of the plurality of uplink transmissions, a second interval corresponding to a second uplink transmission of the plurality of uplink transmissions, and an intervening third interval corresponding to a third uplink transmission of the plurality of uplink transmissions; determining to drop at least one symbol within the third interval; and transmitting DM-RS in the first interval and the second interval, wherein whether the DM-RS in the second interval is transmitted such that the DM-RS in the second interval is bundled with the DM-RS in the first interval is based on the UE capability. transmitting capability signaling information to a base station associated with a UE capability of the UE of maintaining coherence within bundled demodulation reference signals, DM-RS, when the transmission is interrupted; determining to transmit bundled DM-RS to the base station within a plurality of uplink transmissions within a time interval, the time interval comprising a first interval corresponding to a first uplink transmission of the plurality of uplink transmissions, a second interval corresponding to a second uplink transmission of the plurality of uplink transmissions, and an intervening third interval corresponding to a third uplink transmission of the plurality of uplink transmissions; determining to drop at least one symbol within the third interval; and transmitting DM-RS in the first interval and the second interval, wherein whether the DM-RS in the second interval is transmitted such that the DM-RS in the second interval is bundled with the DM-RS in the first interval is based on the UE capability.
Switch, suitable for a polarity-independent multipole DC operation with at least two interrupters (11a, 11b), each of the two interrupters (11a, 11b) comprising a double interlock with two separate immobile contacts with, in each case, a first contact region (21, 22), a movable, electrically conductive contact piece with two second contact regions (31, 32) for producing an electrically conducting connection between the first and second contact regions (21, 22, 31, 32) in the ON state of the switch and, for separating the first and second contact areas (21, 22, 31, 32) in the OFF state of the switch and at least two extinguishing devices (41, 42, 43) for extinguishing arcs, which may occur when the OFF state is produced between the first and second contact areas (21, 22, 31, 32); as well as at least two magnets (71, 72) for producing a magnetic field at least in the region of the first and second contact regions (21, 22, 31, 32) of the interrupters (11a, 11b) for exerting a magnetic force on the arcs, so that at least one of the arcs, independently of the direction of the current in the arc is driven in the direction of the extinguishing devices (41, 42, 43), the contact pieces of the interrupters (11a, 11b) being disposed so that the second contact areas (31, 32) are in a line, which is essentially perpendicular to the direction of movement of the arcs, at least two of the interrupters (11a, 11b) being disposed in one plane and two further extinguishing divisors (42, 43) extending to the other first and second contact regions (22, 32), wherein at least one of the two extinguishing chambers (42, 43) is constructed as a second extinguishing chamber and two arc deflectors extend from the second e xtinguishing chamber to the first and second contact areas (22, 32).
A hydraulic inclined jacking installation system for offshore wind turbines, the system comprising a wind turbine installation vessel, stern posts, a rotating device, a hydraulic system and wind turbine arrangement lifting devices, wherein: the stern posts are vertically mounted on the stern of a deck of the wind turbine installation vessel, and the stern posts are provided with vertical stern guide rails; the rotating device comprises gear lifting mechanisms, rotating arms and machine hands, the gear lifting mechanisms are matched with the stern guide rails and can move up and down along the stern guide rails, the tail ends of the rotating arms are hinged to the gear lifting mechanisms, and the machine hands are mounted on the rotating arms; the hydraulic system comprises hydraulic power units and telescopic hydraulic cylinders mounted on the deck, the bottom ends of the telescopic hydraulic cylinders are hinged to the deck, the top ends of the telescopic hydraulic cylinders are hinged to the head ends of the rotating arms, and the hydraulic power units are configured to drive the telescopic hydraulic cylinders to extend and contract in the axial direction, thereby jacking the rotating arms to rotate; and the wind turbine arrangement lifting devices are mounted on the deck of the wind turbine installation vessel, and are correspondingly arranged below the rotating arms, wind turbines waiting to be installed are horizontally arranged on the wind turbine arrangement lifting devices, and the machine hands are used to hold towers of the wind turbines. comprising a wind turbine installation vessel, stern posts, a rotating device, a hydraulic system and wind turbine arrangement lifting devices, wherein: the stern posts are vertically mounted on the stern of a deck of the wind turbine installation vessel, and the stern posts are provided with vertical stern guide rails; the rotating device comprises gear lifting mechanisms, rotating arms and machine hands, the gear lifting mechanisms are matched with the stern guide rails and can move up and down along the stern guide rails, the tail ends of the rotating arms are hinged to the gear lifting mechanisms, and the machine hands are mounted on the rotating arms; the hydraulic system comprises hydraulic power units and telescopic hydraulic cylinders mounted on the deck, the bottom ends of the telescopic hydraulic cylinders are hinged to the deck, the top ends of the telescopic hydraulic cylinders are hinged to the head ends of the rotating arms, and the hydraulic power units are configured to drive the telescopic hydraulic cylinders to extend and contract in the axial direction, thereby jacking the rotating arms to rotate; and the wind turbine arrangement lifting devices are mounted on the deck of the wind turbine installation vessel, and are correspondingly arranged below the rotating arms, wind turbines waiting to be installed are horizontally arranged on the wind turbine arrangement lifting devices, and the machine hands are used to hold towers of the wind turbines.
A method of providing files from a server to a client device using a channel, the method comprising: receiving, by a server, a request to download a file, the server configured to deliver the file to a client device via a plurality of modes of delivery; determining, by the server, a first mode of delivery and a second mode of delivery in which to transfer the file using a channel between the server and the client device, the first mode of delivery including download of the file onto the client device and the second mode of delivery including virtualization of the file by streaming the file between the server and the client device; initiating, by the server, a first download of a portion of the file for a length of time less than a total time to download the file and based on the first download, determining the size of the file and an amount of available bandwidth of the channel; selecting (340, 345, 360), by the server using the size of the file and the amount of available bandwidth, one of the first mode of delivery or the second mode of delivery; and providing (350, 355,375), by the server responsive to the request, the file via the selected mode of delivery, wherein the selected mode of delivery provides access to the file for the client device in a first time period that is less than a second time period for the other of the first mode of delivery or second mode of delivery. receiving, by a server, a request to download a file, the server configured to deliver the file to a client device via a plurality of modes of delivery; determining, by the server, a first mode of delivery and a second mode of delivery in which to transfer the file using a channel between the server and the client device, the first mode of delivery including download of the file onto the client device and the second mode of delivery including virtualization of the file by streaming the file between the server and the client device; initiating, by the server, a first download of a portion of the file for a length of time less than a total time to download the file and based on the first download, determining the size of the file and an amount of available bandwidth of the channel; selecting (340, 345, 360), by the server using the size of the file and the amount of available bandwidth, one of the first mode of delivery or the second mode of delivery; and providing (350, 355,375), by the server responsive to the request, the file via the selected mode of delivery, wherein the selected mode of delivery provides access to the file for the client device in a first time period that is less than a second time period for the other of the first mode of delivery or second mode of delivery.
Plug connection element for releasable connecting two adjacent wall elements (44, 45), in particular for a transportation box, having a first U-shaped receptacle for an edge region of the first wall element, which is formed from a first base plate and an inner leg angled to the latter and an adjoined angled outer leg, and a second U-shaped receptacle for an edge region of the second wall element, which is formed from a second base plate and an inner leg angled to the latter and an adjoined angled outer leg, wherein the first and second U-shaped receptacle (12, 14) are identically aligned, and the first and second receptacle (12, 14) are connected to each other by means of a bending joint, so that the U-shaped receptacles (12, 14) is adjustable in terms of their angular position to each other, characterized in that the bending joint is formed by virtue of one or more cutouts aligned in a row, which extend perpendicular to the first base plate or second base plate and form a bending line between the two adjacent inner legs (17, 22) or outer legs (18, 23).
A communication method, comprising: obtaining (110, 210), by a central unit, CU, a quality of service, QoS, parameter of a QoS data flow; performing (120, 220), by the CU, mapping between the QoS data flow and a bearer based on the QoS parameter of the QoS data flow; determining, by the CU, a QoS parameter of the bearer based on a QoS parameter of a QoS data flow corresponding to the bearer; and sending (140, 230), by the CU, a context setup request message to a distributed unit, DU, wherein the context setup request message comprises the QoS parameter of the bearer, the QoS parameter of the QoS data flow and the mapping relationship between the QoS data flow and the bearer, wherein the CU and the DU are comprised in a base station. obtaining (110, 210), by a central unit, CU, a quality of service, QoS, parameter of a QoS data flow; performing (120, 220), by the CU, mapping between the QoS data flow and a bearer based on the QoS parameter of the QoS data flow; determining, by the CU, a QoS parameter of the bearer based on a QoS parameter of a QoS data flow corresponding to the bearer; and sending (140, 230), by the CU, a context setup request message to a distributed unit, DU, wherein the context setup request message comprises the QoS parameter of the bearer, the QoS parameter of the QoS data flow and the mapping relationship between the QoS data flow and the bearer, wherein the CU and the DU are comprised in a base station.
A method of producing all or a portion of a CRM protein comprising; providing a recombinant cell that contains an expression vector, wherein the recombinant cell has a reduced activity of one or more disulfide reductase enzymes which shifts the redox state of the cytoplasm of the recombinant cell to an oxidative state as compared with a non-recombinant cell, the expression vector contains a promoter functionally linked to a CRM coding sequence; expressing the CRM protein or a portion of the CRM from the CRM coding sequence cytoplasmically; and isolating the CRM protein or the portion of the CRM protein expressed, wherein the CRM protein or the portion of CRM protein expressed is soluble, wherein the portion of a CRM protein produced is a single or multiple domain of CRM
Compound of the following formula: wherein: • R 1 represents an aryl group, optionally substituted by one or more (C 1 -C 2)alkyl groups, one or more halogens, one or more -OH, -CN or CF 3 groups, and a combination thereof; and • R 2 represents a (C 1 -C 6)alkyl group or a hydroxy(C 1 -C 6)alkyl group or a (C 1 -C 4)alkoxy(C 1 -C 6)alkyl group; or a pharmaceutically acceptable hydrate or solvate thereof. • R 1 represents an aryl group, optionally substituted by one or more (C 1 -C 2)alkyl groups, one or more halogens, one or more -OH, -CN or CF 3 groups, and a combination thereof; and • R 2 represents a (C 1 -C 6)alkyl group or a hydroxy(C 1 -C 6)alkyl group or a (C 1 -C 4)alkoxy(C 1 -C 6)alkyl group;
Lysozyme for use in the prevention or treatment of disease related to an excessively high blood uric acid level, wherein the excessively high blood uric acid level is higher than normal blood uric acid level, and the normal blood uric acid level is about less than 420 μmol/L for male and about less than 360 μmol/L for female.
Fuel tank, particularly a bladder-free tank, constituting a reservoir in its inside area, which is limited to an outside area by a double-walled structure, wherein said double-walled structure comprises an outer wall and an inner wall, a rib-structure (36, 56) of a plurality of ribs extending inwardly into said inside area from said double-walled structure, and whereby within an overlapping region, edge portions of outer wall segments, overlap each other and are sealingly connected via fixture elements, characterized in that said double-walled structure comprises on the inner wall and/or on inner wall segments (72, 74), respectively, or on the outer wall or on outer wall segments (78, 80), respectively, dome-shaped elements defining a width of a hollow space of said double-walled structure and mounting areas for further fixture elements.
A valve body, comprising: a passage forming body having a passage through which a gas flows, bearing fixing portions (6, 7) configured to fix bearings (8, 9) rotatably supporting a shaft of a valve which adjusts a cross-sectional area of the passage, and a flow path forming body, which comprises a groove released in a flowing direction of gas and surrounding the passage and a plate, is adapted to form a flow path through which a heat-exchange-medium flows, whereby a passage cross-sectional area of a space from positions of an inlet pipe and an outlet pipe to a periphery of the bearings (8, 9) is formed to be larger than a passage cross-sectional area of a space of a portion close to the bearing. a passage forming body having a passage through which a gas flows, bearing fixing portions (6, 7) configured to fix bearings (8, 9) rotatably supporting a shaft of a valve which adjusts a cross-sectional area of the passage, and a flow path forming body, which comprises a groove released in a flowing direction of gas and surrounding the passage and a plate, is adapted to form a flow path through which a heat-exchange-medium flows, whereby a passage cross-sectional area of a space from positions of an inlet pipe and an outlet pipe to a periphery of the bearings (8, 9) is formed to be larger than a passage cross-sectional area of a space of a portion close to the bearing.
Silicone elastomer, comprising a plasticizer component formed by oil or an oil blend or else comprising a plasticizer component containing oil or an oil blend, wherein the oil or at least one oil of the oil blend has a viscosity that is equal to or less than 350 mm 2 /s, determined at a temperature of 25°C according to DIN 53019-1:2008-09, characterized in that the percentage by weight of the plasticizer component is at least 30% of the total weight of the silicone elastomer.
A honeycomb having cell walls comprising paper having an average specific tensile index of 60 (lbs/in)/opsy (310Nm/g) as measured according to the description or greater; the paper comprising 30 to 50 parts by weight aliphatic polyamide binder and 50 to 70 parts by weight poly(paraphenylene terephthalamide) fiber having a modulus of 600 grams per denier (550 grams per dtex) as measured according to the description or greater, based on the total amount of aliphatic polyamide binder and PPD-T fiber in the paper; and voids in the paper being filled with the aliphatic polyamide binder.
A filter module for filtering a fluid flow having a plurality of filter elements (1, 2, 3) arranged in parallel to one another in a fluid channel, wherein a sensor is attached to each filter element (1, 2, 3) for determining the condition, in particular the loading condition, of the respective filter element (1, 2, 3), wherein the sensors are designed as flow rate sensors and the sensors measure the differential pressure, wherein the filter elements (1, 2, 3) are embodied as filter cartridges having pleated filter medium (8.2), characterized in that the sensors are positioned on the clean gas side of a respective filter element (1, 2, 3), and the filter cartridges each have a round flange (8.1) having a central opening and the sensor is attached in each case in the area of the flange (8.1).
Device for processing a carcass-part of slaughtered poultry in a processing line, which carcass-part is supported on a carrier that is movable in said processing line and comprises wing-joints, coracoids, a wishbone embodied with two legs (9', 9") that merge into each other at an acute angle, a keelbone, at least one membrana and/or ligament that connects at least to the wishbone, and naturally present meat including inner and outer fillets, which device comprises means (12, 15, 16) for cutting and/or removing of said wishbone from the carcass-part, wherein said means (12, 15, 16) for cutting and/or removing of said wishbone comprise an arrow-shaped knife and two blades (15, 16) arranged on opposite sides of said knife, which blades (15, 16) are independently movable with respect to the knife and are arranged with forward edges (17, 18) for cutting, characterized in that said forward cutting edges (17, 18) of the two blades (15, 16) are provided with forwardly projecting teeth (20, 21).
A catalytic article comprising a substrate having an inlet and outlet and coated with a first coating comprising a blend of platinum on a support with low ammonia storage with a first SCR catalyst; a second coating comprising a second SCR catalyst; wherein the second coating at least partially overlaps the first coating, and wherein the first SCR catalyst is a Cu-SCR catalyst or a Fe-SCR catalyst, wherein the support with low ammonia storage is a siliceous support comprising a zeolite with silica-to-alumina ratio of ≥100; and wherein the support with low ammonia storage is a support that stores less than 0.001 mmol NH 3 per m 3 of support.
A segment coil manufacturing method for manufacturing a segment coil by bending a flat rectangular conductor by use of a forming die (M1-M5, 20), the segment coil including a circular-arc shaped section, a crank-shaped section, and a protrusion section at a coil end, wherein the forming die includes a first forming die and a second forming die, the method includes forming the circular-arc shaped section, the crank-shaped section, and the protrusion section while holding at least two surfaces of outer surfaces of the flat rectangular conductor by the first forming die and the second forming die, the forming die further includes a third forming die and a fourth forming die, the first forming die, the second forming die, the third forming die, and the fourth forming die, are placed in positions facing each other, the method includes moving a set of the first forming die and the fourth forming die and a set of the second forming die and the third forming die in a direction coming close to each other to cause the second forming die and the third forming die to respectively face the first forming die and the fourth forming die, to form an outer periphery of the circular-arc shaped section by the circular-arc shaped section forming faces (M11, M31) of the first forming die and the third forming die and an inner periphery of the circular-arc shaped section by circular-arc shaped section forming faces (M21, M41) of the second forming die and the fourth forming die, to form the crank-shaped section in the flat rectangular conductor by the crank-shaped section forming faces (M12, M22) of the first forming die and the second forming die and the crank-shaped section forming faces (M32, M42) of the third forming die and the fourth forming die, the crank-shaped section forming faces (M12, M22, M32, M42) being provided so that centers of circular-arcs defining crank-shaped section forming faces are different from each other, and to form an outer surface of the protrusion section by the protrusion section forming faces (M13, M43) of the first forming die and the fourth forming die and an inner surface of the protrusion section is formed by protrusion section forming faces (M23, M33) of the second forming die and the third forming die.
A copper alloy consisting of: 5% by mass to 25% by mass of Ni; 5% by mass to 10% by mass of Sn; 0.005% by mass to 0.5% by mass of element A, element A being at least one selected from the group consisting of Nb, Zr and Ti; 0.005% by mass or more of carbon, wherein the mole ratio of the carbon to the element A is 10.0 or less; optionally, 0.01% by mass to 1% by mass of an additive element, the additive element being at least one selected from the group consisting of Mn, Zn, Mg, Ca, Al, Si, P, and B, and the balance of the composition of the copper alloy is Cu and inevitable impurities. 5% by mass to 25% by mass of Ni; 5% by mass to 10% by mass of Sn; 0.005% by mass to 0.5% by mass of element A, element A being at least one selected from the group consisting of Nb, Zr and Ti; 0.005% by mass or more of carbon, wherein the mole ratio of the carbon to the element A is 10.0 or less; optionally, 0.01% by mass to 1% by mass of an additive element, the additive element being at least one selected from the group consisting of Mn, Zn, Mg, Ca, Al, Si, P, and B, and the balance of the composition of the copper alloy is Cu and inevitable impurities.