mhurhangee/ep-ind-claims huggingface dataset:
An electrode structure comprising: a current collector; an active material layer comprising a main surface and a first end face other than the main surface; and a separator layer, wherein the separator layer comprises a solid electrolyte and a binder, the active material layer covers a first part of at least one surface of the current collector, the separator layer covers the main surface of the active material layer, at least a part of the first end face and a second part of the at least one surface of the current collector, and the separator layer comprises a first end part which is brought into contact with the second part of the at least one surface of the current collector, and wherein the electrode structure satisfies a ratio b/a falling within a range of 0.0001 to 0.5, where a is a distance from the first end face of the active material layer to the first end part of the separator layer, and b is a distance in a direction parallel to the at least one surface of the current collector, which is from a first edge of the active material layer to a surface of the separator layer, the main surf ace of the active material layer and the first end face of the active material layer intersect at the first edge of the active material layer. a current collector; an active material layer comprising a main surface and a first end face other than the main surface; and a separator layer, wherein the separator layer comprises a solid electrolyte and a binder, the active material layer covers a first part of at least one surface of the current collector, the separator layer covers the main surface of the active material layer, at least a part of the first end face and a second part of the at least one surface of the current collector, and the separator layer comprises a first end part which is brought into contact with the second part of the at least one surface of the current collector, and wherein the electrode structure satisfies a ratio b/a falling within a range of 0.0001 to 0.5, where a is a distance from the first end face of the active material layer to the first end part of the separator layer, and b is a distance in a direction parallel to the at least one surface of the current collector, which is from a first edge of the active material layer to a surface of the separator layer, the main surf ace of the active material layer and the first end face of the active material layer intersect at the first edge of the active material layer.
A method of filling a gas canister with pressurized or liquified gas from a canister filling machine, the method comprising: inserting a valve of a gas canister, that is configured to hold a pressurized or liquefied gas for carbonating a liquid, into an interior space of an adapter (150, 170), through an opening of the adapter that is shaped to enable insertion of the valve, the adapter enabling a fluidic connection of the gas canister valve to a filling port of the filling machine, and comprising at least one channel (152, 162, 164) that is configured, when the valve is inserted into the opening, to conduct pressurized or liquified gas from the filling port to the valve, the valve comprising: a canister port facing, and open to, an interior of the gas canister; at least one exterior port that opens laterally to a longitudinal axis of the valve for facilitating inflow of the gas into and outflow of the gas out of the canister when the valve is in an open position, and to prevent the inflow or the outflow when the valve is in a closed position; and a gas release mechanism for causing the valve to change between the open position and the closed position; activating the gas release mechanism to put the valve into the open position; and filling the gas canister with the pressurized or liquified gas while maintaining the valve in the open position. inserting a valve of a gas canister, that is configured to hold a pressurized or liquefied gas for carbonating a liquid, into an interior space of an adapter (150, 170), through an opening of the adapter that is shaped to enable insertion of the valve, the adapter enabling a fluidic connection of the gas canister valve to a filling port of the filling machine, and comprising at least one channel (152, 162, 164) that is configured, when the valve is inserted into the opening, to conduct pressurized or liquified gas from the filling port to the valve, the valve comprising: a canister port facing, and open to, an interior of the gas canister; at least one exterior port that opens laterally to a longitudinal axis of the valve for facilitating inflow of the gas into and outflow of the gas out of the canister when the valve is in an open position, and to prevent the inflow or the outflow when the valve is in a closed position; and a gas release mechanism for causing the valve to change between the open position and the closed position; a canister port facing, and open to, an interior of the gas canister; at least one exterior port that opens laterally to a longitudinal axis of the valve for facilitating inflow of the gas into and outflow of the gas out of the canister when the valve is in an open position, and to prevent the inflow or the outflow when the valve is in a closed position; and a gas release mechanism for causing the valve to change between the open position and the closed position; activating the gas release mechanism to put the valve into the open position; and filling the gas canister with the pressurized or liquified gas while maintaining the valve in the open position.
An inverter device which includes a cylindrical ferrite core, disposed in a manner such that a wire passes through a hollow portion of the ferrite core, in a condition in which the ferrite core is housed in a housing recess portion of a case body, the inverter device being characterized by including: a support piece, extending in a manner such as to project from one housing side portion configuring the housing recess portion, which, with its own elastic resilience, supports the ferrite core between a housing bottom portion configuring the housing recess portion and the housing side portion; a first projecting portion, formed in a manner such as to project from the housing bottom portion, which abuts against one portion of one edge face of the ferrite core; and a second projecting portion, formed in a manner such as to project from the support piece, which abuts against one portion of the other edge face of the ferrite core. a support piece, extending in a manner such as to project from one housing side portion configuring the housing recess portion, which, with its own elastic resilience, supports the ferrite core between a housing bottom portion configuring the housing recess portion and the housing side portion; a first projecting portion, formed in a manner such as to project from the housing bottom portion, which abuts against one portion of one edge face of the ferrite core; and a second projecting portion, formed in a manner such as to project from the support piece, which abuts against one portion of the other edge face of the ferrite core.
A method comprising: a transmitting peer mobile wireless device transmitting an indication to a receiving peer mobile wireless device when a next active direct data transfer period between the devices will start so that the devices can remain in power save mode in a direct data transfer link until that time; and receiving from the receiving peer mobile wireless device, a trigger signal based on said indication, the trigger signal indicating that the next period is about to start, so that the transmitting peer mobile wireless device can start transmitting data to the receiving peer mobile wireless device via the direct data transfer link. a transmitting peer mobile wireless device transmitting an indication to a receiving peer mobile wireless device when a next active direct data transfer period between the devices will start so that the devices can remain in power save mode in a direct data transfer link until that time; and receiving from the receiving peer mobile wireless device, a trigger signal based on said indication, the trigger signal indicating that the next period is about to start, so that the transmitting peer mobile wireless device can start transmitting data to the receiving peer mobile wireless device via the direct data transfer link.
A LIDAR measuring device for determining the velocity of particles in a measuring volume with a narrow-band continuous-wave laser light source emitting light, which is coupled into a measuring branch and a reference branch, wherein the light coupled into the measuring branch is at least partially emitted towards the measuring volume via a transmitting device in such way, that the emitted light is at least partially scattered and/or reflected by the particles in the measuring volume and that at least part of the scattered and/or reflected light is received by a receiving device, is coherently superimposed with the light exiting the reference branch, and the light radiation resulting herefrom is directed onto a detector for generating a detector signal characteristic for the resulting light radiation, wherein the velocity of the particles in the measuring volume is determined in an analysis unit considering the detector signal, wherein the frequency of the light emitted by the laser light source is varied with a control device and the analysis unit is configured to determine the velocity of the particles in at least one measuring range of the measuring volume on the basis of a spectral analysis of the detector signal considering the predetermined frequency modulation, characterized in that the control device is designed to generate a control signal, which corresponds to a pseudo-noise signal caused by a predetermined function of frequency, and which is taken as the basis for the variation of the frequency of the light emitted by the laser light source.
A metal article of a valve metal substrate for use in electrocatalytic processes, said valve metal substrate having an electrocatalytic surface coating thereon, wherein said coating consisting of a mixture of ruthenium oxide, titanium oxide and one or more of tin oxides or antimony oxides, said mixture providing from at least about 10 mole percent up to about 30 mole percent ruthenium, and at least about 50 mole percent up to about 85 mole percent titanium, basis 100 mole percent of the metal content in the coating, wherein said coating has a surface morphology characterized by minimal mudcracks, said surface morphology of said coating providing, as measured by scanning electron microscopy, less than or equal to 16,000 platelets/mm 2, said surface morphology being obtainable by producing the coating from a water-based coating composition, said water-based coating composition being prepared by adding the respective amounts of chloride salts of ruthenium, titanium and tin or antimony to a solution of 18% HCl containing 5 volume % isopropanol and mixing to dissolve all of the chloride salts, followed by applying the solution to the valve metal substrate.
A tube comprising a multi-layer laminate material comprising, in order: (a) a base film having one or more layers of a polyolefin; (b) an aluminum foil layer; and (c) a sealing layer, the aluminum foil layer having a tensile strength of at least 70 megapascals (MPa), wherein (i) overlapping portions of the sealing layer and a layer of the polyolefin base film are bonded to form a lap seal over at least a portion of the length of the tube, and wherein (ii) overlapping portions of the sealing layer are bonded to form a fin seal over at least a portion of the width of the tube, the tube optionally comprising a tube head attached to an open end of the tube. (a) a base film having one or more layers of a polyolefin; (b) an aluminum foil layer; and (c) a sealing layer,
A method for producing a colour image in a support of substantially planar main direction, said support comprising an arrangement of pixels, each pixel comprising sub-pixels (4c,4m,4j,4n,4b) of elementary colour, characterized in that said method comprises a perforation step of some sub-pixels (4c, 4m, 4j, 4n, 4b) carrying out selective, partial or total destruction of said sub-pixels (4c, 4m, 4j, 4n, 4b).
A vehicle charging connector comprising a first elongate conductor providing a high power charging connection and a second elongate conductor providing a pilot or earth connection, the first and second elongate conductors having longitudinal axes running parallel with each other, and the first and second elongate conductors being spaced from each other in a direction perpendicular to their longitudinal axes, the second elongate conductor having a charging position, in which the longitudinal axes of the first and second elongate conductors define a common plane, and a rest position, in which the longitudinal axis of the first elongate conductor is in the common plane defined for the charging position, but the longitudinal axis of the second elongate conductor is perpendicularly offset from the common plane defined in the charging position, the second elongate conductor being biased into the rest position by a biasing arrangement (44, 210) and being movable out of the rest position to the charging position on application of a force to the second elongate conductor, so that in use a connection is made to the second conductor before a connection is made to the first elongate conductor when a second charging connector comprising a pair of conductors (16, 18) in a fixed position relative to each other and extending with their longitudinal axes along a common axis, which is parallel to the common plane defined by the first and second elongate conductors in the charging position, is moved towards the vehicle charging connector, in a direction perpendicular to the common plane. the second elongate conductor having a charging position, in which the longitudinal axes of the first and second elongate conductors define a common plane, and a rest position, in which the longitudinal axis of the first elongate conductor is in the common plane defined for the charging position, but the longitudinal axis of the second elongate conductor is perpendicularly offset from the common plane defined in the charging position, the second elongate conductor being biased into the rest position by a biasing arrangement (44, 210) and being movable out of the rest position to the charging position on application of a force to the second elongate conductor, so that in use a connection is made to the second conductor before a connection is made to the first elongate conductor when a second charging connector comprising a pair of conductors (16, 18) in a fixed position relative to each other and extending with their longitudinal axes along a common axis, which is parallel to the common plane defined by the first and second elongate conductors in the charging position, is moved towards the vehicle charging connector, in a direction perpendicular to the common plane.
An Angptl4 polypeptide derivative having decreased LPL inhibitory activity and increased resistance to cleavage, wherein the Angptl4 polypeptide has at least 95% sequence homology with SEQ ID NO: 9; and wherein positions 39-40 are DK and positions 161-164 are AAVV; positions 39-40 are DA and positions 161-164 are GVVA; positions 39-40 are KE and positions 161-164 are SGGG; or positions 39-40 are AE and positions 161-164 are VAVA. positions 39-40 are DK and positions 161-164 are AAVV; positions 39-40 are DA and positions 161-164 are GVVA; positions 39-40 are KE and positions 161-164 are SGGG; or positions 39-40 are AE and positions 161-164 are VAVA.
An imaging device for producing images of scenes, said device including at least: - a set of optical and/or electromagnetic elementary sensors which are mounted on flying controllable carriers; - processing means; - a communication link between each elementary sensor and said processing means; - command means configured to determine the relative positions of the various sensors and to pilot the flight of said carriers so as to form an array of sensors (100, 200, 300), where: the configuration of said array is determined dynamically as a function of an image of a given scene to be produced, said configuration being able to be dynamically modified during the flight of said carriers, and said processing means fusing the signals transmitted by said sensors in order to deliver said image of said scene, said signals being representative of said scene. - a set of optical and/or electromagnetic elementary sensors which are mounted on flying controllable carriers; - processing means; - a communication link between each elementary sensor and said processing means; - command means configured to determine the relative positions of the various sensors and to pilot the flight of said carriers so as to form an array of sensors (100, 200, 300), the configuration of said array is determined dynamically as a function of an image of a given scene to be produced, said configuration being able to be dynamically modified during the flight of said carriers, and said processing means fusing the signals transmitted by said sensors in order to deliver said image of said scene, said signals being representative of said scene.
High-intensity active composition for a pyrotechnic decoy, comprising a fuel, an oxidizer for the fuel and optionally a binder, the oxidizer being a partially fluorinated pyrene or a partially fluorinated carbon compound having a carbon chain at least 100 carbon atoms long or having repeating units that comprise carbon atoms and form a polymer, the unit comprising at least one aromatic structure or polyaromatic structure, or at least one of the carbon atoms in the carbon chain or in each of the units having at least one bonding site not occupied by a different carbon atom, with more than one bonding site of a plurality of the carbon atoms being occupied by atoms other than fluorine and than carbon, these bonding sites each being differently occupied, the other atoms comprising at least one bromine or iodine atom, and at least one hydrogen atom at bonding sites of adjacent carbon atoms.
A compound of formula: Xaa 1 -Xaa 2 -Xaa 3 -Xaa 4 -Xaa 5 -Xaa 6 -Xaa 7 -Xaa 8 -Xaa 9 -Xaa 10 -NH-(CH 2) n -R wherein Xaa 1, Xaa 2, Xaa 3, Xaa 8 and Xaa 10 are independently selected from the group consisting of lysine, 3-hydroxylysine, 4-hydroxylysine, 5-hydroxylysine, 3,4-dihydroxylysine, 3,5-dihydroxylysine, 4,5-dihydroxylysine, ornithine, 3-hydroxyornithine, 4-hydroxyornithine, 3,4-dihydroxyornithine, 2,4-diaminobutanoic acid, 3-hydroxy-2,4-diaminobutanoic acid, arginine, histidine, serine, and threonine; Xaa 4 is glycine; Xaa 5 is ornithine Xaa 6 is proline, 3-hydroxyproline, 4-hydroxyproline, aziridine-2-carboxylic acid, azetidine-2-carboxylic acid, pipecolic acid, 4-oxaproline, 3-thiaproline, 4-thiaproline, 3,4-dehydroproline, 4-aminoproline, 4-fluoroproline, α-methylproline, or α-allylproline; Xaa 7 is histidine Xaa 9 is arginine, 2,3-dehydroarginine, citrulline, 2,3-dehydrocitrulline, canavanine, or 2,3-dehydrocanavanine; n is 2, 3, 4, 5, 6, 7, 8, 9, or 10; and R is -OH, -NH 2, or -COOH. Xaa 1, Xaa 2, Xaa 3, Xaa 8 and Xaa 10 are independently selected from the group consisting of lysine, 3-hydroxylysine, 4-hydroxylysine, 5-hydroxylysine, 3,4-dihydroxylysine, 3,5-dihydroxylysine, 4,5-dihydroxylysine, ornithine, 3-hydroxyornithine, 4-hydroxyornithine, 3,4-dihydroxyornithine, 2,4-diaminobutanoic acid, 3-hydroxy-2,4-diaminobutanoic acid, arginine, histidine, serine, and threonine; Xaa 4 is glycine; Xaa 5 is ornithine Xaa 6 is proline, 3-hydroxyproline, 4-hydroxyproline, aziridine-2-carboxylic acid, azetidine-2-carboxylic acid, pipecolic acid, 4-oxaproline, 3-thiaproline, 4-thiaproline, 3,4-dehydroproline, 4-aminoproline, 4-fluoroproline, α-methylproline, or α-allylproline; Xaa 7 is histidine Xaa 9 is arginine, 2,3-dehydroarginine, citrulline, 2,3-dehydrocitrulline, canavanine, or 2,3-dehydrocanavanine; n is 2, 3, 4, 5, 6, 7, 8, 9, or 10; and R is -OH, -NH 2, or -COOH.
Truck-mounted concrete pump having at least one travelling-drive motor and a hydraulic pumping device for delivering liquid concrete, wherein at least one electric motor is provided and the hydraulic pumping device can be driven selectively by the at least one travelling-drive motor or the at least one electric motor, wherein the travelling-drive motor is connected by way of a power take-off of a transfer gearbox of the travelling-drive train of the truck-mounted concrete pump to a branching gearbox, wherein a first gearbox input of the branching gearbox is coupled with the power take-off of the travelling-drive motor and a second gearbox input is coupled with the electric motor, and the gearbox output of the branching gearbox is connected to at least one hydraulic pump of the hydraulic pumping device, characterized in that the power take-off of the transfer gearbox is an engine-dependent power take-off which is connected directly to the crankshaft of the travelling-drive motor, wherein a first input A of the branching gearbox is connected by way of a shaft connection to the power take-off of the transfer gearbox.
Device for holding a separation element, in particular a glass panel, with a mounting element that is connectable to the separation element, that comprises a C-profile-shaped guide profile and that is mountable laterally at the upper edge of the separation element, and with a carriage having a carriage body, which comprises a flange plate that is displaceably held in the guide profile and is lockable by means of locking elements (350, 92) and which holds at least one wheel axle (1241; 1251) perpendicularly aligned to the flange plate with a wheel (124, 125), which is guidable on a track element of a rail, characterised in that the guide profile, whose C-profile reduces in height (c1, c2) from one end to the other, comprises a lower profile end element with a lower receiving groove and an upper profile end element with an upper receiving groove and that the flange plate, which comprises a lower flange element held in the lower receiving groove and an upper flange element held in the upper receiving groove and adjoining a first guide surface, is formed wedge-shaped.
Process for preparing compounds containing isocyanate groups and cyclic carbonate structures, by reacting at least A) a monomeric diisocyanate having aliphatically, cycloaliphatically, araliphatically and/or aromatically bonded isocyanate groups with B) a hydroxy-functional cyclic carbonate, characterized in that component A) is reacted with component B) in a ratio of equivalents of isocyanate groups to hydroxyl groups of at least 8:1. A) a monomeric diisocyanate having aliphatically, cycloaliphatically, araliphatically and/or aromatically bonded isocyanate groups with B) a hydroxy-functional cyclic carbonate,
A method comprising: generating, by a traffic monitor operating on a network device (102, 104, 200), an IPFIX exception packet comprising: a unique exception code that identifies a cause for a forwarding component in the network device to discard a transit packet, and a nexthop index identifying a forwarding path that the transit packet experiencing the exception would take, the nexthop index identifying information for an egress path the transit packet would take from the network device to a destination network device, the information comprising outgoing interface information and forwarding features for the egress path; and forwarding the exception packet to a collector to be processed. a unique exception code that identifies a cause for a forwarding component in the network device to discard a transit packet, and a nexthop index identifying a forwarding path that the transit packet experiencing the exception would take, the nexthop index identifying information for an egress path the transit packet would take from the network device to a destination network device, the information comprising outgoing interface information and forwarding features for the egress path; and forwarding the exception packet to a collector to be processed.