mhurhangee/ep-ind-claims huggingface dataset:
A sheet comprising fibers and fibrids, the fibrids bonding individual fibers together to provide wet and/or dry strength to the sheet, wherein either the fibers and/or the fibrids comprise(s) a mixture of at least a first polymer and a second polymer; the first polymer having a structure derived from the reaction of one or more amine monomers and a plurality of acid monomers, wherein i) the one or more amine monomers includes at least 60 mole percent 5 -amino-2-(p-aminophenyl)benzimidazole, based on the total amount of amine monomers; and ii) the plurality of acid monomers include those having a structure of Cl-CO-Ar 1 -CO-Cl & Cl-CO-Ar 2 -CO-Cl wherein Ar 1 is an aromatic group having para-oriented linkages and Ar 2 is an aromatic group having meta-oriented linkages, and wherein the plurality of acid monomers has at least 50 mole percent of the monomer containing aromatic group Ar 2; and the second polymer having a structure derived from the reaction of metaphenylene diamine and isophthaloyl chloride. i) the one or more amine monomers includes at least 60 mole percent 5 -amino-2-(p-aminophenyl)benzimidazole, based on the total amount of amine monomers; and ii) the plurality of acid monomers include those having a structure of Cl-CO-Ar 1 -CO-Cl & Cl-CO-Ar 2 -CO-Cl wherein Ar 1 is an aromatic group having para-oriented linkages and Ar 2 is an aromatic group having meta-oriented linkages, and wherein the plurality of acid monomers has at least 50 mole percent of the monomer containing aromatic group Ar 2; and the second polymer having a structure derived from the reaction of metaphenylene diamine and isophthaloyl chloride.
A method of manufacturing a catalyst of a rhodium complex supported on a vinylpyridine resin, comprising: manufacturing a vinylpyridine resin to be used for a catalyst carrier, comprising: mixing an oil medium containing vinylpyridine monomers, divinylbenzene as a crosslinking agent, porous agents and polymerization initiators, and an aqueous medium; dispersing the oil medium in the aqueous medium homogeneously; and allowing the dispersed oil medium to polymerize by heating, wherein the temperature of the reactor is slowly raised so as to cause polymerization to take place at 50°C through 80°C, and then further raising the temperature to 85°C through 95°C for heat-treatment, wherein the porous agent is a combination of a good solvent, which is at least one selected from trimethylbenzene, toluene, xylene and 2-ethylhexanol, and a poor solvent, which is at least one selected from dioctyl phthalate, octane and nonane, the content of the good solvent is not less than 60 wt% and not more than 85 wt% relative to the total weight of the porous agent, the crosslinking agent is used at a ratio of 20 to 60 wt% relative to the monomer, and wherein the polymerization initiator is a combination of a main polymerization initiator and an auxiliary polymerization initiator having a 10-hour half-life temperature lower than that of the main polymerization initiator; and supporting a rhodium complex on the manufactured vinylpyridine resin. manufacturing a vinylpyridine resin to be used for a catalyst carrier, comprising: mixing an oil medium containing vinylpyridine monomers, divinylbenzene as a crosslinking agent, porous agents and polymerization initiators, and an aqueous medium; dispersing the oil medium in the aqueous medium homogeneously; and allowing the dispersed oil medium to polymerize by heating, wherein the temperature of the reactor is slowly raised so as to cause polymerization to take place at 50°C through 80°C, and then further raising the temperature to 85°C through 95°C for heat-treatment, wherein the porous agent is a combination of a good solvent, which is at least one selected from trimethylbenzene, toluene, xylene and 2-ethylhexanol, and a poor solvent, which is at least one selected from dioctyl phthalate, octane and nonane, the content of the good solvent is not less than 60 wt% and not more than 85 wt% relative to the total weight of the porous agent, the crosslinking agent is used at a ratio of 20 to 60 wt% relative to the monomer, and wherein the polymerization initiator is a combination of a main polymerization initiator and an auxiliary polymerization initiator having a 10-hour half-life temperature lower than that of the main polymerization initiator; and supporting a rhodium complex on the manufactured vinylpyridine resin.
A fluid dispenser device including at least one individual reservoir containing a single dose of fluid, such as powder, opening means being provided for opening an individual reservoir each time the device is actuated, the reservoirs being made in the form of an elongate strip comprising a plurality of individual reservoirs disposed one behind another, said opening means comprising perforator and/or cutter means and movable support means, the device being characterized in that said movable support means are adapted to displace an individual reservoir against said perforator and/or cutter means on each actuation, said displacement being performed automatically by the user inhaling, said movable support means being displaceable between a non-dispensing position and a dispensing position, said movable support means being urged towards their dispensing position by resilient means, such as a spring or a spring blade, and being held in their non-dispensing position by blocking means, said blocking means comprising a first element that is movable between a non-actuated position and an actuated position, said first element being secured to said movable support means, and a second element that is movable between a blocking position and an unblocking position, said second element being displaced towards its unblocking position while the user is inhaling, said second element co-operating with a displaceable and/or deformable unit that is adapted to be displaced and/or deformed during inhalation, said displaceable and/or deformable unit comprising a deformable air-chamber that is connected to an inhaler endpiece.
A method for injection blow molding a toothbrush using thermoplastic material, comprising: a) providing an injection mold having a cavity; b) injecting thermoplastic material into the injection mold cavity to form a toothbrush handle preform having an inner cavity and an outer surface, wherein the outer surface defines a cross-sectional dimension of the toothbrush handle preform; c) providing a blow mold having a longitudinal axis and a cavity, the cavity having a surface that defines a cross-sectional dimension having an area; wherein the cavity has at least one of a maximum cross-sectional dimension (C cdm) and the maximum cross-sectional dimension bordered by two smaller cross-sectional dimensions (C cd1, C cd2) along the longitudinal axis of the blow mold or a minimum cross sectional dimension (C cdmn) bordered by two greater cross-sectional dimensions (C cd3, C cd4) along the longitudinal axis (LA m) of the blow mold; d) positioning the toothbrush handle preform into the blow mold cavity; e) deforming the toothbrush handle preform using a fluid to produce a toothbrush handle; wherein a head of the toothbrush is molded during the injection molding step and is connected intrinsically to the handle which is also molded during the injection molding step. a) providing an injection mold having a cavity; b) injecting thermoplastic material into the injection mold cavity to form a toothbrush handle preform having an inner cavity and an outer surface, wherein the outer surface defines a cross-sectional dimension of the toothbrush handle preform; c) providing a blow mold having a longitudinal axis and a cavity, the cavity having a surface that defines a cross-sectional dimension having an area; wherein the cavity has at least one of a maximum cross-sectional dimension (C cdm) and the maximum cross-sectional dimension bordered by two smaller cross-sectional dimensions (C cd1, C cd2) along the longitudinal axis of the blow mold or a minimum cross sectional dimension (C cdmn) bordered by two greater cross-sectional dimensions (C cd3, C cd4) along the longitudinal axis (LA m) of the blow mold; d) positioning the toothbrush handle preform into the blow mold cavity; e) deforming the toothbrush handle preform using a fluid to produce a toothbrush handle;
A polyamide-imide precursor comprising: in a molecular structure thereof, a first block obtained by copolymerizing monomers including dianhydride and diamine; a second block obtained by copolymerizing monomers including an aromatic dicarbonyl compound and the diamine; and a third block obtained by copolymerizing monomers including the aromatic dicarbonyl compound and aromatic diamine, wherein the dianhydride for forming the first block includes 2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride, and the diamine for forming the first block and the second block includes 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), and wherein the aromatic diamine for forming the third block is different from 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), which is the diamine for forming the first block and the second block. in a molecular structure thereof, a first block obtained by copolymerizing monomers including dianhydride and diamine; a second block obtained by copolymerizing monomers including an aromatic dicarbonyl compound and the diamine; and a third block obtained by copolymerizing monomers including the aromatic dicarbonyl compound and aromatic diamine, wherein the dianhydride for forming the first block includes 2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride, and the diamine for forming the first block and the second block includes 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), and wherein the aromatic diamine for forming the third block is different from 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), which is the diamine for forming the first block and the second block.
Control unit for controlling turn lights (11, 12, 13, 14) in a vehicle (10, 33, 43), the control unit comprising: a communication interface, and a lighting controller coupled to the communication interface and configured to retrieve via the communication interface information about the vehicle surroundings and optionally additionally about the vehicle movement, wherein the lighting controller is further configured to control the turn lights (11, 12, 13, 14) of the vehicle (10, 33, 43, 53) based on the retrieved information about the vehicle surroundings and optionally additionally about the vehicle movement, characterized in that the information about the vehicle surroundings comprises road configuration information about the number of lanes (30, 31, 32, 40, 41, 42) of the road as stored in a navigation system or as detected by a camera system. a communication interface, and a lighting controller coupled to the communication interface and configured to retrieve via the communication interface information about the vehicle surroundings and optionally additionally about the vehicle movement, wherein the lighting controller is further configured to control the turn lights (11, 12, 13, 14) of the vehicle (10, 33, 43, 53) based on the retrieved information about the vehicle surroundings and optionally additionally about the vehicle movement, characterized in that the information about the vehicle surroundings comprises road configuration information about the number of lanes (30, 31, 32, 40, 41, 42) of the road as stored in a navigation system or as detected by a camera system.
A three-dimensional printing equipment assembly comprising: a) a three-dimensional printing build system comprising: (i) a conveyor system adapted to conduct plural build modules; (ii) plural build modules engaged with the conveyor system, each build module comprising an incrementally height adjustable platform adapted to receive and temporarily retain at least one incremental layer or plural stacked incremental layers of powder; (iii) at least one build station comprising: 1) at least one powder layering system adapted to form incremental powder layers directly onto the build plate within the build modules; and 2) at least one printing system adapted to apply a liquid according to a predetermined pattern to the incremental powder layers within the build modules; and b) a build plate loading system adapted to place one or more removable build plates on the incrementally height adjustable platform(s) of an empty build module; and wherein the conveyor system conducts an empty build module through the at least one build plate loading system, and repeatedly transports the plural build modules from the at least one powder layering system to the at least one printing system to form a three-dimensionally printed bed comprising one or more three-dimensionally printed articles in the build modules. a) a three-dimensional printing build system comprising: (i) a conveyor system adapted to conduct plural build modules; (ii) plural build modules engaged with the conveyor system, each build module comprising an incrementally height adjustable platform adapted to receive and temporarily retain at least one incremental layer or plural stacked incremental layers of powder; (iii) at least one build station comprising: 1) at least one powder layering system adapted to form incremental powder layers directly onto the build plate within the build modules; and 2) at least one printing system adapted to apply a liquid according to a predetermined pattern to the incremental powder layers within the build modules; and (i) a conveyor system adapted to conduct plural build modules; (ii) plural build modules engaged with the conveyor system, each build module comprising an incrementally height adjustable platform adapted to receive and temporarily retain at least one incremental layer or plural stacked incremental layers of powder; (iii) at least one build station comprising: 1) at least one powder layering system adapted to form incremental powder layers directly onto the build plate within the build modules; and 2) at least one printing system adapted to apply a liquid according to a predetermined pattern to the incremental powder layers within the build modules; and b) a build plate loading system adapted to place one or more removable build plates on the incrementally height adjustable platform(s) of an empty build module; and
An applique for applying a design to a fabric, the applique comprising: a substrate (1; 12; 22; 32; 42; 52) comprising polyurethane material, wherein the substrate includes a migration-resistant barrier; a flock (3; 10; 20; 30; 40; 50) in a pre-determined multi-colour pattern, the flock having fibres; a flock adhesive (2; 11; 21; 31; 41; 51) securing the flock fibers to the substrate, the flock adhesive being printed on the substrate; an application adhesive (4; 23; 33; 43; 53), adjacent to the substrate opposite the flock fibers, suitable for adhering the applique to a fabric; and a carrier layer (5; 13; 24; 44; 54), wherein the substrate, flock adhesive, and application adhesive are positioned between the flock and the carrier layer and, wherein the applique is formed without flock being deposited onto a release adhesive. a substrate (1; 12; 22; 32; 42; 52) comprising polyurethane material, wherein the substrate includes a migration-resistant barrier; a flock (3; 10; 20; 30; 40; 50) in a pre-determined multi-colour pattern, the flock having fibres; a flock adhesive (2; 11; 21; 31; 41; 51) securing the flock fibers to the substrate, the flock adhesive being printed on the substrate; an application adhesive (4; 23; 33; 43; 53), adjacent to the substrate opposite the flock fibers, suitable for adhering the applique to a fabric; and a carrier layer (5; 13; 24; 44; 54), wherein the substrate, flock adhesive, and application adhesive are positioned between the flock and the carrier layer and, wherein the applique is formed without flock being deposited onto a release adhesive.
A gas turbine with an apparatus for replacing a bearing coupled to a tie rod of a gas turbine comprising a compressor rotor having a plurality of compressor rotor disks installed therein and a turbine rotor having a plurality of turbine rotor disks installed therein, the tie rod extending through central axes of the plurality of compressor rotor disks and through central axes of the plurality of turbine rotor disks, the apparatus comprising: an insertion part configured to be coupled to an end of the tie rod extending toward the turbine rotor and cover the end of the tie rod; and a support part configured to be installed below the insertion part, the support part having a moving part to move the tie rod upward and downward while supporting the insertion part, characterised in that the support part further includes a support plate to be temporarily attached to a mounting member installed in a drain groove of an internal casing covering the outside of the tie rod through which lubricant oil supplied for smooth rotation of the tie rod drains. an insertion part configured to be coupled to an end of the tie rod extending toward the turbine rotor and cover the end of the tie rod; and a support part configured to be installed below the insertion part, the support part having a moving part to move the tie rod upward and downward while supporting the insertion part,
Splitting device of a food product-coating device for dividing a food product feed into multiple streams, wherein the splitting device comprises an inlet and multiple outlets, wherein the outlets are located below the inlets, wherein the device further comprises rip- or wall-like-shaped product feed splitting means located between two adjacent outlets and an oscillating vibrating, rotating and/or linearly moving element (9, 12, 13, 17) to remove the products from the feed splitting means, wherein the splitting device comprises a ramp from which the food product drops or slides wherein the ramp is in direct flow -connection with the infeed, so that the food product slides and/or falls along the ramp and is thus directed towards one of the outlets by gravitational force, characterized in, that the splitting device has the shape of a trough.
An operating device comprising: an operating lever to be tilted by a user; a holding member configured to hold the operating lever; a locking member configured to restrict the tilt of the operating lever; a driving source; a rack, driven by the driving source, and configured to move linearly in a first zone and a second zone, a hold driving mechanism, driven by the driving source, and configured to move the holding member between a hold position where the operating lever is held at a tilted position, and a return position where the operating lever returns to a predetermined position from the tilted position; and a lock driving mechanism, driven by the driving source, and configured to move the locking member between a lock position where the tilt of the operating lever is restricted, and a release position where restricting the tilt of the operating lever is released, wherein the driving source is configured to drive the hold driving mechanism and the lock driving mechanism at different timings, wherein the driving source drives the hold driving mechanism via the rack while the rack moves in the first zone, and wherein the driving source drives the lock driving mechanism, and the rack does not transmit a driving force from the driving source to the hold driving mechanism, while the rack moves in the second zone. an operating lever to be tilted by a user; a holding member configured to hold the operating lever; a locking member configured to restrict the tilt of the operating lever; a driving source; a rack, driven by the driving source, and configured to move linearly in a first zone and a second zone, a hold driving mechanism, driven by the driving source, and configured to move the holding member between a hold position where the operating lever is held at a tilted position, and a return position where the operating lever returns to a predetermined position from the tilted position; and a lock driving mechanism, driven by the driving source, and configured to move the locking member between a lock position where the tilt of the operating lever is restricted, and a release position where restricting the tilt of the operating lever is released, wherein the driving source is configured to drive the hold driving mechanism and the lock driving mechanism at different timings, wherein the driving source drives the hold driving mechanism via the rack while the rack moves in the first zone, and wherein the driving source drives the lock driving mechanism, and the rack does not transmit a driving force from the driving source to the hold driving mechanism, while the rack moves in the second zone.
A circuit board with cooling unit, wherein the cooling unit has at least one recess covered by the circuit board for a cooling fluid, characterized in that the circuit board is fastened in a sealed manner on the cooling unit and the space of the recess sealed in this manner is filled with the cooling fluid.
An instrument for applying a surgical fastener, comprising: an inner tubular shaft having a proximal end and a distal end; a delivery system contained within said inner tubular shaft for advancing at least one surgical fastener out of said distal end, wherein said delivery system includes a ratchet coupling; a pusher sleeve operatively associated with said ratchet coupling and said inner tubular shaft, wherein said inner tubular shaft includes a sidewall with at least one wall structure modification that is operatively associated with said delivery system; an actuator operatively associated with said delivery system; and an outer tubular shaft mounted about, and reinforcing, said inner tubular shaft along said at least one wall structure modification, characterised in that said at least one wall structure modification includes an opening that is adapted to cooperate with said delivery system for holding the pusher sleeve in an advanced position; and wherein said inner tubular shaft and said outer tubular shaft are fixedly positioned relative to each other along said at least one wall structure modification and wherein a needle extends from said ratchet coupling and through said pusher sleeve, the at least one surgical fastener being loaded onto the needle contained within the inner tubular shaft. an inner tubular shaft having a proximal end and a distal end; a delivery system contained within said inner tubular shaft for advancing at least one surgical fastener out of said distal end, wherein said delivery system includes a ratchet coupling; a pusher sleeve operatively associated with said ratchet coupling and said inner tubular shaft, wherein said inner tubular shaft includes a sidewall with at least one wall structure modification that is operatively associated with said delivery system; an actuator operatively associated with said delivery system; and an outer tubular shaft mounted about, and reinforcing, said inner tubular shaft along said at least one wall structure modification, characterised in that said at least one wall structure modification includes an opening that is adapted to cooperate with said delivery system for holding the pusher sleeve in an advanced position; and wherein said inner tubular shaft and said outer tubular shaft are fixedly positioned relative to each other along said at least one wall structure modification and wherein a needle extends from said ratchet coupling and through said pusher sleeve, the at least one surgical fastener being loaded onto the needle contained within the inner tubular shaft.
Fastener made of wood and/or wooden materials for joining at least two components (12, 13) made of wood, said fastener consisting of a shank and a tapering region arranged at one end of the shank, characterised in that the outer contour (K 1, K 2, K 3) around the circumference of the tapering region substantially corresponds to a ballistic curve, in that the free end of the tapering region is rounded, and in that the length of the tapering region is shorter than 1.3 times the shank diameter of the fastener.