mhurhangee/ep-ind-claims huggingface dataset:
A rubber composition, comprising a rubber component, silica, and a liquid resin having a softening point of -20 to 20°C, wherein the rubber component contains, based on 100% by mass of the rubber component, not less than 5% by mass of a conjugated diene polymer containing a constituent unit based on a conjugated diene and a constituent unit represented by formula below, at least one terminal of the polymer being modified with at least one compound selected from the group consisting of a compound represented by formula below, a compound containing a group represented by formula below, a compound represented by formula below, a silicon compound containing at least one of a group represented by formula below and a group represented by formula below, and a compound containing a group represented by formula below, and an amount of the silica is 5 to 150 parts by mass per 100 parts by mass of the rubber component, wherein X 1, X 2, and X 3 each independently represent a group represented by formula (Ia) below, a hydroxyl group, a hydrocarbyl group, or a substituted hydrocarbyl group, and at least one of X 1, X 2, and X 3 is a hydroxyl group or a group represented by the following formula (Ia): wherein R 1 and R 2 each independently represent a C 1-6 hydrocarbyl group, a C 1-6 substituted hydrocarbyl group, a silyl group, or a substituted silyl group, and R 1 and R 2 may be bonded to each other to form a cyclic structure together with the nitrogen atom; wherein n represents an integer of 1 to 10; R 11, R 12, and R 13 each independently represent a C 1-4 hydrocarbyl group or a C 1-4 hydrocarbyloxy group, and at least one of R 11, R 12, and R 13 is a hydrocarbyloxy group; and A 1 represents a nitrogen atom-bearing functional group; wherein p represents an integer of 0 or 1; T represents a C 1-20 hydrocarbylene group or a C 1-20 substituted hydrocarbylene group; and A 2 represents a nitrogen atom-bearing functional group; wherein g represents an integer of 1 to 10; R 21 represents a hydrogen atom, a C 1-6 hydrocarbyl group, or a C 1-6 substituted hydrocarbyl group; A 3 represents an oxygen atom or the following group: -NR 22 - where R 22 represents a hydrogen atom or a C 1-10 hydrocarbyl group; and A 4 represents a functional group bearing at least one of a nitrogen atom and an oxygen atom; wherein w represents an integer of 1 to 11, and A 5 represents a nitrogen atom-bearing functional group.
A phosphate ester compound of hydroxy acid substituted phenol ester represented by the following structure formula: wherein Y is a C 1-4 straight saturated carbon chain, M 1 and M 2 are the same or independently represent hydrogen, alkali metal ion, protonated amino or protonated amino acid.
Process for producing a composite between an outer fabric and a thermally fusible textile sheet material while at the same time applying a design by thermal transfer printing, comprising the steps of a) providing the components: 1) a thermal transfer printed with a design, 2) a thermally fusible textile sheet material provided with an adhesive compound, preferably constructed as lining and/or interlining fabric, and 3) an outer fabric; b) combining the components while simultaneously subjecting the composite to heat and pressure at a temperature of 160 to 240°C whereby the design is provided to at least one outside surface of the textile sheet material and there is simultaneous fusing of the sheet material to the outer fabric. a) providing the components: 1) a thermal transfer printed with a design, 2) a thermally fusible textile sheet material provided with an adhesive compound, preferably constructed as lining and/or interlining fabric, and 3) an outer fabric; 1) a thermal transfer printed with a design, 2) a thermally fusible textile sheet material provided with an adhesive compound, preferably constructed as lining and/or interlining fabric, and 3) an outer fabric; b) combining the components while simultaneously subjecting the composite to heat and pressure at a temperature of 160 to 240°C whereby the design is provided to at least one outside surface of the textile sheet material and there is simultaneous fusing of the sheet material to the outer fabric.
A method for thermally processing and consolidating unprocessed components within a thermal processing and consolidation system, comprising: positioning a first tool (300; 818) on a lower assembly, the first tool (300; 818) positioned in alignment with an upper assembly, wherein the first tool (300; 818) contacts and supports a first set of unprocessed components; coupling the upper assembly and the lower assembly to form a plenum, the plenum operable to maintain a pressurized environment about the first tool (300; 818); providing services to the first tool (300; 818) and the plenum via a service interface, the service interface comprising an automatic coupling system; thermally processing and consolidating the first set of unprocessed components within the first tool (300; 818) wherein the services are supplied to the first tool (300; 818) as directed by a set of process parameters; disengaging the services from the first tool (300; 818) and the plenum via the service interface; uncoupling the upper assembly from the lower assembly to form a separation between the upper assembly and the lower assembly; and withdrawing the first tool (300; 818) via the separation, wherein a height between the upper assembly and the lower assembly is the same or greater than a height of the first tool (300; 818), wherein the set of process parameters comprises a temperature, pressure and/or vacuum profile to be applied to the first set of unprocessed components. positioning a first tool (300; 818) on a lower assembly, the first tool (300; 818) positioned in alignment with an upper assembly, wherein the first tool (300; 818) contacts and supports a first set of unprocessed components; coupling the upper assembly and the lower assembly to form a plenum, the plenum operable to maintain a pressurized environment about the first tool (300; 818); providing services to the first tool (300; 818) and the plenum via a service interface, the service interface comprising an automatic coupling system; thermally processing and consolidating the first set of unprocessed components within the first tool (300; 818) wherein the services are supplied to the first tool (300; 818) as directed by a set of process parameters; disengaging the services from the first tool (300; 818) and the plenum via the service interface; uncoupling the upper assembly from the lower assembly to form a separation between the upper assembly and the lower assembly; and withdrawing the first tool (300; 818) via the separation, wherein a height between the upper assembly and the lower assembly is the same or greater than a height of the first tool (300; 818), wherein the set of process parameters comprises a temperature, pressure and/or vacuum profile to be applied to the first set of unprocessed components.
Fastening element for fastening insulating boards to building walls, comprising a shank for anchoring the fastening element in a hole in the building wall and a retaining plate for securing an insulating board to the shank, characterised in that the retaining plate has a one-part design and is formed entirely of a foam material, the retaining plate having, in particular, a foamed core structure and a solid outer layer.
A precursor source comprising: a heated thermally conductive source body providing a heated area; a first pulsing valve comprising an inlet and two outlets and a second pulsing valve comprising an outlet and two inlets, the first pulsing valve and the second pulsing valve being attached to the heated thermally conductive source body; a bypass conduit leading from the first pulsing valve to the second pulsing valve, the bypass conduit comprising a flow restrictor, and a gas route from the first pulsing valve via a precursor cartridge space to the second pulsing valve, wherein the first and second pulsing valves are diaphragm valves. a heated thermally conductive source body providing a heated area; a first pulsing valve comprising an inlet and two outlets and a second pulsing valve comprising an outlet and two inlets, the first pulsing valve and the second pulsing valve being attached to the heated thermally conductive source body; a bypass conduit leading from the first pulsing valve to the second pulsing valve, the bypass conduit comprising a flow restrictor, and a gas route from the first pulsing valve via a precursor cartridge space to the second pulsing valve, wherein the first and second pulsing valves are diaphragm valves.
A method of fabricating a composite material part comprising fiber reinforcement densified by a matrix, said method comprising the steps of: - making a fiber preform consolidated by impregnating a fiber texture made up of yarns with a liquid consolidation composition containing a precursor for a consolidating material, and by transforming the precursor into consolidating material by pyrolysis so as to obtain a consolidated preform that is held in shape; and - densifying the consolidated fiber preform by chemical vapor infiltration; the method being characterized in that the fiber structure comprises a plurality of yarns, each yarn being constituted by a plurality of fibers or filaments with intra-yarn spaces between them, and in that said method includes, prior to impregnation of the fiber texture with the consolidation liquid composition, a step of filling the intra-yarn spaces in said fiber texture by means of a liquid filler composition, said liquid filler composition being eliminated prior to the step of densifying the fiber preform by chemical vapor infiltration. - making a fiber preform consolidated by impregnating a fiber texture made up of yarns with a liquid consolidation composition containing a precursor for a consolidating material, and by transforming the precursor into consolidating material by pyrolysis so as to obtain a consolidated preform that is held in shape; and - densifying the consolidated fiber preform by chemical vapor infiltration;
Transistor provided with at least a source electrode (104, 204, 304) and a drain electrode (106, 206, 306), the source electrode and the drain electrode being separated by a region of an active layer (102, 302) based on at least one semiconductor polymer material, the region of the active layer (102, 302) separating the electrodes (104, 204, 304, 106, 206, 306) having a variable critical dimension, the transistor further comprising a gate electrode opposite said region of semiconductor polymer material separating said source and drain electrodes and at least one portion of source and drain electrodes, characterized in that, the electrodes are arranged according to one or the other following alternatives: a) the source electrode and the drain electrode having the form of a prism with triangular bases orthogonal to the principal plane of the layer of polymer material, so that the critical dimension, being the distance separating the source electrode and the drain electrode, increases as the gate electrode is approached, or b) the critical dimension being the distance separating the source electrode and the drain electrode, increasing in a direction parallel to the principal plane of the active layer, the source electrode and the drain electrode (106, 206) having the form of a prism with triangular bases parallel to the principal plane of the layer of polymer material. a) the source electrode and the drain electrode having the form of a prism with triangular bases orthogonal to the principal plane of the layer of polymer material, so that the critical dimension, being the distance separating the source electrode and the drain electrode, increases as the gate electrode is approached, or b) the critical dimension being the distance separating the source electrode and the drain electrode, increasing in a direction parallel to the principal plane of the active layer, the source electrode and the drain electrode (106, 206) having the form of a prism with triangular bases parallel to the principal plane of the layer of polymer material.
A bioreactor for aerobic hydrogenotrophic fermentation, comprising an upper part comprising a top, a bottom part comprising a bottom, an intermediate part comprising a circumferential side face, and a loop adapted to allow flow of a fermentation broth from an exit point in the bottom part to an entry point in the upper part, which bioreactor has an inner diameter and a height (h) defined by the vertical distance between the top and the bottom, and which bioreactor is characterized by - a pump adapted to provide a circular flow of the fermentation broth from the upper part through the intermediate part to the bottom part of the reactor, and through the loop from the exit point in the bottom part to the entry point in the upper part; - a first gas inlet, adapted to provide hydrogen bubbles; - a second gas inlet located at the same height or below the first gas inlet, adapted to provide oxygen; wherein the intermediate part is defined as the part between the first gas inlet and the entry point in the upper part, and wherein the circumferential side face of the intermediate part comprises a conical portion defined by an inner diameter which varies with the height (h) such that a lower height results in a larger diameter. - a pump adapted to provide a circular flow of the fermentation broth from the upper part through the intermediate part to the bottom part of the reactor, and through the loop from the exit point in the bottom part to the entry point in the upper part; - a first gas inlet, adapted to provide hydrogen bubbles; - a second gas inlet located at the same height or below the first gas inlet, adapted to provide oxygen;
A handle switch device having an inner casing disposed on an outer periphery of a handle of a vehicle and an outer casing (30, 50) disposed on an outer periphery of the inner casing, comprising: a plurality of switches disposed on the inner casing; a plurality of ribs provided on the inner casing and each configured to partition between corresponding ones of said switches; and a plurality of passages (rt) defined by said ribs to correspond to respective ones of said switches and each configured to have a drain passage function and a wiring guide function for corresponding ones of electric cords (41 to 44) connected to said switches. a plurality of switches disposed on the inner casing; a plurality of ribs provided on the inner casing and each configured to partition between corresponding ones of said switches; and a plurality of passages (rt) defined by said ribs to correspond to respective ones of said switches and each configured to have a drain passage function and a wiring guide function for corresponding ones of electric cords (41 to 44) connected to said switches.
A rotary compressor having a compression part and a driving part, the rotary compressor comprising: a first case of the rotary compressor; a second case located inside the first case, the compression part and the driving part located on an inner side of the second case; a supporting member configured to support the second case inside the first case; a first suction port provided within the first case and allowing the inside of the first case to communicate with the inside of the second case; and a suction pipe connected to the first suction port and provided with an inlet formed at an upper portion of the inside of the first case for the introduction of a refrigerant, wherein a low pressure chamber is provided in between the first case and the second case, and a high pressure chamber is provided inside the second case, wherein the rotary compressor further comprises a discharging part configured to discharge gas to an outer side of the low pressure chamber from the high pressure chamber, and wherein the suction pipe comprises a section which is arranged to be submerged in oil stored within the first case, wherein the section is provided with an oil hole located such that the oil is introduced to an inside of the second case and wherein the supporting member comprises a first elastic member configured to support at least one lateral side of the second case. a first case of the rotary compressor; a second case located inside the first case, the compression part and the driving part located on an inner side of the second case; a supporting member configured to support the second case inside the first case; a first suction port provided within the first case and allowing the inside of the first case to communicate with the inside of the second case; and a suction pipe connected to the first suction port and provided with an inlet formed at an upper portion of the inside of the first case for the introduction of a refrigerant,
A multi-stage hyper-velocity kinetic energy missile (HVKEM), comprising: a flight missile including a body structure, a launch motor to launch the flight missile, a flight motor to sustain flight at velocities less than Mach 1.5, and a flight control system responsive to guidance commands to maneuver the missile to a target; and a kill missile in the body structure of the flight missile including a body structure, a boost motor, a KE-rod penetrator, and a range sensor to detect when the target is within a lethal range of the KE-rod penetrator to trigger separation of the kill missile from the flight missile and ignition of the boost motor to boost the kill missile to velocities greater than Mach 3 to impact the target; characterised in that the flight control system is adapted respond to guidance commands and to maneuver the flight missile to maintain the aimpoint up to the point of separation; and the kill missile is unguided once separated. a flight missile including a body structure, a launch motor to launch the flight missile, a flight motor to sustain flight at velocities less than Mach 1.5, and a flight control system responsive to guidance commands to maneuver the missile to a target; and a body structure, a launch motor to launch the flight missile, a flight motor to sustain flight at velocities less than Mach 1.5, and a flight control system responsive to guidance commands to maneuver the missile to a target; and a kill missile in the body structure of the flight missile including a body structure, a boost motor, a KE-rod penetrator, and a range sensor to detect when the target is within a lethal range of the KE-rod penetrator to trigger separation of the kill missile from the flight missile and ignition of the boost motor to boost the kill missile to velocities greater than Mach 3 to impact the target; characterised in that the flight control system is adapted respond to guidance commands and to maneuver the flight missile to maintain the aimpoint up to the point of separation; and the kill missile is unguided once separated. a body structure, a boost motor, a KE-rod penetrator, and a range sensor to detect when the target is within a lethal range of the KE-rod penetrator to trigger separation of the kill missile from the flight missile and ignition of the boost motor to boost the kill missile to velocities greater than Mach 3 to impact the target; characterised in that the flight control system is adapted respond to guidance commands and to maneuver the flight missile to maintain the aimpoint up to the point of separation; and the kill missile is unguided once separated.
An electrode foil, which is made of a belt-like foil, comprising: surface enlarged parts that are formed on a surface of the foil; a core part which is a part remained when excluding the surface enlarged parts within the foil; characterized by a plurality of separation parts that extends in a belt width direction in the surface enlarged parts, and divides the surface enlarged parts; and an dielectric film formed on surface of the surface enlarged parts and on inner surface of the separation parts, wherein the separation parts are provided at intervals of an average pitch of 2.1 mm or less. surface enlarged parts that are formed on a surface of the foil; a core part which is a part remained when excluding the surface enlarged parts within the foil; characterized by a plurality of separation parts that extends in a belt width direction in the surface enlarged parts, and divides the surface enlarged parts; and an dielectric film formed on surface of the surface enlarged parts and on inner surface of the separation parts, wherein the separation parts are provided at intervals of an average pitch of 2.1 mm or less.
A control device for a resonant converter, said converter comprising a switching circuit (Q1-Q2) adapted to drive a resonant load, said resonant load comprising at least one capacitor (Cr), said converter being adapted to convert a source signal (Vin) into an output signal (Vout), said switching circuit comprising at least a half bridge of first and second switches, the central point of said half bridge being connected to said resonant load, wherein said control device comprises generating means (201, 202, 300) adapted to generate at least a control signal (HSGD, LSGD) for the switching circuit, wherein said control device is configured to receive a signal (Vcr) representative of the energy (Ein) transferred from the source signal (Vin) to the resonant load, characterized in that said generating means (201, 202, 300) are configured to generate at least the control signal (HSGD, LSGD) by: - comparing said signal (Vcr) representative of the energy (Ein) transferred from the source signal (Vin) to the resonant load with a first (Vthp) and a second (Vthn) signal, the first signal having a higher value than the second signal, such that said switching circuit is configured to switch when said signal (Vcr) representative of the energy (Ein) transferred from the source signal (Vin) to the resonant load is equal to said first signal (Vthp) or said second signal (Vthn), and wherein said control device comprises further means (203, 204) configured to form said first signal (Vthp) and said second signal (Vthn) by adding to and subtracting from a reference signal (Vcm) a signal (fb) representative of an output quantity of the converter. - comparing said signal (Vcr) representative of the energy (Ein) transferred from the source signal (Vin) to the resonant load with a first (Vthp) and a second (Vthn) signal, the first signal having a higher value than the second signal, such that said switching circuit is configured to switch when said signal (Vcr) representative of the energy (Ein) transferred from the source signal (Vin) to the resonant load is equal to said first signal (Vthp) or said second signal (Vthn), and