mhurhangee/ep-ind-claims huggingface dataset:
A waterproofing membrane comprising a reinforcing material coated with a coating formulation comprising: i) 40-90% w/w bitumen and plasticizer blend; ii) 5-50% w/w petroleum coke (petcoke); and iii) 2-25% w/w elastomeric block polymer and/or plastomeric polymer. i) 40-90% w/w bitumen and plasticizer blend; ii) 5-50% w/w petroleum coke (petcoke); and iii) 2-25% w/w elastomeric block polymer and/or plastomeric polymer.
Suspension comprising a pair of shock absorbers (30a, 40a), a first gas accumulator and a connecting duct by means of which said pair of shock absorbers (30a, 40a) are in fluid connection with each other, said connecting duct being in turn in fluid connection with said first gas accumulator, characterized in that said suspension further comprises a second accumulator having a variable volume, amd in that said second accumulator is formed inside said first gas accumulator.
An electrode assembly, characterized in that the electrode assembly comprises a negative electrode plate, a positive electrode plate, and a separator, and the negative electrode plate, the separator, and the positive electrode plate are laminated and wound around a winding center, wherein the negative electrode plate comprises a first inner layer section, the positive electrode plate comprises a second inner layer section, and the first inner layer section and the second inner layer section are immediately adjacent to the winding center; and the first inner layer section is provided with a notch portion, and the notch portion runs through the first inner layer section in a width direction, so that the second inner layer section of the positive electrode plate is exposed through the notch portion, wherein the width direction is a direction in which the negative electrode plate, the positive electrode plate, and the separator are laminated. wherein the negative electrode plate comprises a first inner layer section, the positive electrode plate comprises a second inner layer section, and the first inner layer section and the second inner layer section are immediately adjacent to the winding center; and the first inner layer section is provided with a notch portion, and the notch portion runs through the first inner layer section in a width direction, so that the second inner layer section of the positive electrode plate is exposed through the notch portion, wherein the width direction is a direction in which the negative electrode plate, the positive electrode plate, and the separator are laminated.
A method implemented by a router for executing an internet protocol fast reroute process in response to a network event invalidating a current route to a destination node without degrading forwarding plane functionality or performance, the method comprising the steps of: receiving or generating the network event by the router, the network event associated with a network event identifier; looking up the network event identifier in an event table to determine routes that are affected by the network event; determining whether a route with a fast reroute forwarding object is affected by the network event in the routing information base by determining whether a primary route to a destination node with a fast reroute forwarding object is valid after the network event and, if the primary route is determined to be no longer valid, checking whether a backup route is valid, wherein the fast reroute forwarding object includes a replica primary next hop forwarding object and a replica backup next hop forwarding object, and overwriting a current next hop forwarding object in the forwarding information base with the replica backup next hop forwarding object from the routing information base if the backup route has been determined to be valid. receiving or generating the network event by the router, the network event associated with a network event identifier; looking up the network event identifier in an event table to determine routes that are affected by the network event; determining whether a route with a fast reroute forwarding object is affected by the network event in the routing information base by determining whether a primary route to a destination node with a fast reroute forwarding object is valid after the network event and, if the primary route is determined to be no longer valid, checking whether a backup route is valid, wherein the fast reroute forwarding object includes a replica primary next hop forwarding object and a replica backup next hop forwarding object, and overwriting a current next hop forwarding object in the forwarding information base with the replica backup next hop forwarding object from the routing information base if the backup route has been determined to be valid.
Method for producing containers from successive initial preforms made of a thermoplastic material, comprising the steps of: - feeding successive initial preforms to a heating station, - heating the successive initial preforms in said heating station to deliver successive heated preforms, - feeding the heated preforms to a forming station - injecting an incompressible liquid into each heated preform to shape said successive heated preforms into containers and to fill said containers with said incompressible liquid in said forming station, characterized in that the method further comprises defining at least one stress parameter correlated to the internal stress of the thermoplastic material and defining a range of acceptable values for said stress parameter, the method comprising an analyzing step of each one of the successive initial preforms and each of the successive heated preforms, said analyzing step comprising the steps of: - determining a value of said stress parameter for the analyzed preform, - comparing the determined value to the acceptable values range, - emitting an output signal when the determined value is outside the acceptable values range. - feeding successive initial preforms to a heating station, - heating the successive initial preforms in said heating station to deliver successive heated preforms, - feeding the heated preforms to a forming station - injecting an incompressible liquid into each heated preform to shape said successive heated preforms into containers and to fill said containers with said incompressible liquid in said forming station, - determining a value of said stress parameter for the analyzed preform, - comparing the determined value to the acceptable values range, - emitting an output signal when the determined value is outside the acceptable values range.
A document comprising an integrated display device which comprises several activatable display elements, wherein each of the display elements is designed to emit an optical signal for a rendering of first data stored in the document, wherein the display device is designed for cyclical activation of the display elements for rendering the first data in sequential image regeneration periods, and wherein the display device is designed in such a way that the emission of the optical signals of at least a subset of the display elements takes place with a chronological delay, wherein it is not possible to visually perceive the chronological delay, wherein information is coded in the length of the chronological delay, wherein the display elements of the subset have a response characteristic which differs from the response characteristic of the remaining display elements and which leads to the delay, and wherein the display elements comprise a luminescent substance for generating the optical signal, characterised in that the display elements of the subset have a first host crystal for the luminescent substance, and wherein the remaining display elements that do not belong to the subset have a second host crystal for receiving the luminescent substance, wherein the first and second host crystals are different.
A cross linked polymer obtainable from the polymerization of: (i) at least one monomer of formula (CH 2 =CR 1)CO-K wherein: - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C1-C6 alkyl; (ii) at least between 0.1 and 50% mol, advantageously between 1 and 30% mol, more advantageously between 1 and 20 mol % of a cyclic monomer having an exo-methylene group of formula: wherein: - R6, R7, R8 and R9 represent independently H or a C5-C7 aryl group or R6 and R9 are absent and R7 and R8 form together with the carbon atom on which they are bonded a C 5 -C 7 aryl group; - i and j represent independently an integer chosen between 0 and 2; - X represents either O or X is not present and in this latter case, CR6R7 and CR8R9 are linked via a single bond C-C and (iii) at least one bio-resorbable block copolymer cross-linker, wherein the bio-resorbable block copolymer cross-linker is linear and presents (CH 2 =(CR 10))- groups at both its extremities, wherein R 10 independently represents H or a C 1 -C 6 alkyl. (i) at least one monomer of formula (CH 2 =CR 1)CO-K wherein: - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C1-C6 alkyl; - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C1-C6 alkyl; (ii) at least between 0.1 and 50% mol, advantageously between 1 and 30% mol, more advantageously between 1 and 20 mol % of a cyclic monomer having an exo-methylene group of formula: wherein: - R6, R7, R8 and R9 represent independently H or a C5-C7 aryl group or R6 and R9 are absent and R7 and R8 form together with the carbon atom on which they are bonded a C 5 -C 7 aryl group; - i and j represent independently an integer chosen between 0 and 2; - X represents either O or X is not present and in this latter case, CR6R7 and CR8R9 are linked via a single bond C-C and - R6, R7, R8 and R9 represent independently H or a C5-C7 aryl group or R6 and R9 are absent and R7 and R8 form together with the carbon atom on which they are bonded a C 5 -C 7 aryl group; - i and j represent independently an integer chosen between 0 and 2; - X represents either O or X is not present and in this latter case, CR6R7 and CR8R9 are linked via a single bond C-C (iii) at least one bio-resorbable block copolymer cross-linker, wherein the bio-resorbable block copolymer cross-linker is linear and presents (CH 2 =(CR 10))- groups at both its extremities, wherein R 10 independently represents H or a C 1 -C 6 alkyl.
A propulsion system for controlling the orbit of a satellite in an earth orbit moving at a displacement speed along an axis V tangential to the orbit, characterised in that it comprises two propulsion modules (50a, 50b) attached to the satellite and facing each other relative to the plane of the orbit, each of the propulsion modules successively comprising: - a motorised link rotating about an axis (R1a) parallel to the axis V; - an offset arm; and - a plate supporting two thrusters (54a, 55a), each of the two thrusters being designed to deliver a thrust along a thrust axis of the thruster, the thrusters being disposed on the plate either side of a plane P perpendicular to the axis V passing through a centre of mass CM of the satellite, each of the two thrusters (54a, 55a) being oriented so that the thrust axes of the two thrusters (54a, 55a) are parallel to each other and are perpendicular to the axis V. - a motorised link rotating about an axis (R1a) parallel to the axis V; - an offset arm; and - a plate supporting two thrusters (54a, 55a), each of the two thrusters being designed to deliver a thrust along a thrust axis of the thruster, the thrusters being disposed on the plate either side of a plane P perpendicular to the axis V passing through a centre of mass CM of the satellite, each of the two thrusters (54a, 55a) being oriented so that the thrust axes of the two thrusters (54a, 55a) are parallel to each other and are perpendicular to the axis V.
Hydraulically driven precision blanking press, with a main cylinder space, which is arranged in the bottom unit and guided in which is the main piston/plunger, which can be subjected to hydraulic fluid by way of pressure spaces (23a, 23b), performs a stroke movement between top dead centre and bottom dead centre in the direction of the stroke axis and bears a die plate, with double-acting fast stroke pistons, which are guided in fast stroke cylinders, can be subjected to hydraulic fluid by way of pressure spaces (15a, 15b) and have piston rods for the rapid-traversing/probing stroke of the main piston and the die plate, and with a hydraulic system, comprising at least one hydraulic pump unit, for supplying the pressure spaces (15a, 15b; 23a, 23b) with the hydraulic fluid set to a preset working pressure by a central controller, wherein the main piston has working faces (22a, 22b), which protrude in a discus-like manner and partition the first, upper and second, lower pressure space (23a, 23b) lying above one another in the main cylinder space with a small stroke, assigned to which are first, upper fluid channels (24a, 24b, 24c, 24d) and second, lower fluid channels (24e, 24f, 24g, 24h) in the bottom unit, which are in connection with the hydraulic system, wherein the first fluid channels (24a to 24d) are connected to the second fluid channels (24e to 24f) by a respective bypass channel arranged in the bottom unit, characterized in that the bypass channel forms with these fluid channels (24a to 24h) and the pressure spaces (23a, 23b) an inner hydraulic system, which is open in rapid traversing mode by pressure-controlled proportional valves (25a, 25b, 25c, 25d) when the hydraulic fluid is forced out of the first pressure space into the second pressure space and is closed in the power stroke, and in that during the power stroke at least one second fluid channel is a power stroke channel and the first pressure space is connected to a relieving channel, wherein, for feeding hydraulic fluid of a preset pressure into the second pressure space, this fluid channel is in connection with a feed-line channel and a branch-off channel and, for discharging the hydraulic fluid forced out of the first pressure space, the relieving channel is in connection with a collecting tank by way of a tank valve.
A cross-chain data processing method, wherein the method comprises: receiving, by a TEE, trusted execution environment, application, a cross-chain data request sent by a first blockchain; determining, by the TEE application, a corresponding Simplified Payment Verification, SPV, application provided in the TEE application based on the cross-chain data request; obtaining (S202, S2), using the corresponding SPV application, cross-chain data from a second blockchain based on the cross-chain data request; verifying (S204, S4), using the corresponding SPV application, the cross-chain data using SPV; when the verification is passed, signing, by the TEE application, the cross-chain data by using a private key corresponding to a TEE policy adopted by the TEE application; and returning (S206, S6), by the TEE application, a signed request result to the first blockchain, wherein the signed request result comprises the cross-chain data and the signature of the cross-chain data. receiving, by a TEE, trusted execution environment, application, a cross-chain data request sent by a first blockchain; determining, by the TEE application, a corresponding Simplified Payment Verification, SPV, application provided in the TEE application based on the cross-chain data request; obtaining (S202, S2), using the corresponding SPV application, cross-chain data from a second blockchain based on the cross-chain data request; verifying (S204, S4), using the corresponding SPV application, the cross-chain data using SPV; when the verification is passed, signing, by the TEE application, the cross-chain data by using a private key corresponding to a TEE policy adopted by the TEE application; and returning (S206, S6), by the TEE application, a signed request result to the first blockchain, wherein the signed request result comprises the cross-chain data and the signature of the cross-chain data.
A method for manufacturing micro/nanofluidic devices comprising: a) depositing a thermosetting polymeric photoresin on two substrates of polymeric material covering the surface of a first wafer and a second wafer, b) photolithographing at a temperature of 80-95°C the layers of thermosetting polymeric photoresin deposited in step a), c) thereafter depositing metal components on said first wafer, d) microstructuring the metal components deposited in step c), e) depositing a layer of thermosetting polymeric photoresin on the microstructured metal components, f) at a temperature of 80-95°C photolithographing and developing the thermosetting polymeric photoresin deposited in step e) thereby defining microchannels and/or areas where the microstructured metal components with an outer medium are to be made, g) sealing at a temperature of 80-120°C the first wafer to the second wafer by means of superimposing them with the surfaces of the thermosetting polymeric photoresin facing one another, h) releasing the micro/nanofluidic devices thus formed between the first wafer and the second wafer from the substrates of polymeric material, and i) cutting the devices. a) depositing a thermosetting polymeric photoresin on two substrates of polymeric material covering the surface of a first wafer and a second wafer, b) photolithographing at a temperature of 80-95°C the layers of thermosetting polymeric photoresin deposited in step a), c) thereafter depositing metal components on said first wafer, d) microstructuring the metal components deposited in step c), e) depositing a layer of thermosetting polymeric photoresin on the microstructured metal components, f) at a temperature of 80-95°C photolithographing and developing the thermosetting polymeric photoresin deposited in step e) thereby defining microchannels and/or areas where the microstructured metal components with an outer medium are to be made, g) sealing at a temperature of 80-120°C the first wafer to the second wafer by means of superimposing them with the surfaces of the thermosetting polymeric photoresin facing one another, h) releasing the micro/nanofluidic devices thus formed between the first wafer and the second wafer from the substrates of polymeric material, and i) cutting the devices.
A drug delivery device comprising: a substrate; a hydrophilic polymer layer disposed on the substrate; and coated therapeutic agent particles disposed on the hydrophilic polymer layer, the coated therapeutic agent particles comprising a particulate hydrophobic therapeutic agent; and a vinyl amine polymer component comprising a copolymer including N-vinyl amine and 1-vinyl-2-pyrrolidone subunits. a substrate; a hydrophilic polymer layer disposed on the substrate; and coated therapeutic agent particles disposed on the hydrophilic polymer layer, the coated therapeutic agent particles comprising a particulate hydrophobic therapeutic agent; and a vinyl amine polymer component comprising a copolymer including N-vinyl amine and 1-vinyl-2-pyrrolidone subunits.
A method for determining the efficacy of treatment in a subject that has an autoimmune disease, wherein the subject has been administered a treatment comprising a composition comprising an anti-FcRn antibody that inhibits signaling mediated by interaction between FcRn and IgG; the method comprising: a. providing a sample obtained from the subject; b. assaying the level of TNF-α in the sample; and c. determining that the treatment is efficacious if the level of TNF-α in the sample from the subject is lower relative to the level in a reference sample, or determining that the treatment is not efficacious if the level of TNF-α in the sample from the subject is higher relative to the level in a reference sample. a. providing a sample obtained from the subject; b. assaying the level of TNF-α in the sample; and c. determining that the treatment is efficacious if the level of TNF-α in the sample from the subject is lower relative to the level in a reference sample, or determining that the treatment is not efficacious if the level of TNF-α in the sample from the subject is higher relative to the level in a reference sample.
Dynamic power supply system without interruption (ADSI) comprising a synchronous machine with two shaft ends (2, 2') inserted between two kinetic energy accumulators (4, 19) with the aim of doubling the unit power, each of the two kinetic energy accumulators (4,19) being equipped with a rotating mass, which freely rotates around the shaft of the synchronous machine, the ADSI comprising a single double-power power alternator associated to the two kinetic energy accumulators (4,19) in a single machine and using a setting that maintains a rotation speed identical to the rotation speed of the rotating masses of the two accumulators when kinetic energy is transferred from the kinetic energy accumulators (4, 19) to the synchronous machine to power a critical load in the event of a power failure of the grid or of a different power source, the dynamic power supply system, moreover, comprising an adjustable electromagnetic coupling between each of the rotating masses and the shaft of the synchronous machine, so as to be able to control the transfer of kinetic energy of each rotating mass to the alternator in order to maintain the rotation speed of the synchronous machine constant in the event of a power failure of the grid or of a different power source.