mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a polyamide containing monomeric units of 1,4-butylene diamine, an aliphatic dicarboxylic acid which is adipic acid or 1,10-decanedioic acid and a fatty acid based dicarboxylic acid having 18 or 36 carbon atoms and/or diamine derived there from, which process comprises the steps of: a) making a salt mixture containing 1,4-butylene diamine, the aliphatic dicarboxylic acid which is adipic acid or 1,10-decanedioic acid and the fatty acid based dicarboxylic acid having 18 or 36 carbon atoms and/or diamine derived there from, the mixture containing less than 50 wt% water and distilling the mixture to less than 15 wt% of water at a pressure of less than 16 barg, while keeping the mixture at a temperature high enough to keep it liquid, b) starting the polymerization of the mixture obtained in step a) by increasing the temperature until to at least 180 °C until at least 80 % of the reactive groups has been converted, c) optionally supplying further 1,4-butylene diamine, an aliphatic dicarboxylic acid which is adipic acid or 1,10-decanedioic acid and a fatty acid based dicarboxylic acid having 18 or 36 carbon atoms and/or diamine derived there from to the reaction mixture. a) making a salt mixture containing 1,4-butylene diamine, the aliphatic dicarboxylic acid which is adipic acid or 1,10-decanedioic acid and the fatty acid based dicarboxylic acid having 18 or 36 carbon atoms and/or diamine derived there from, the mixture containing less than 50 wt% water and distilling the mixture to less than 15 wt% of water at a pressure of less than 16 barg, while keeping the mixture at a temperature high enough to keep it liquid, b) starting the polymerization of the mixture obtained in step a) by increasing the temperature until to at least 180 °C until at least 80 % of the reactive groups has been converted, c) optionally supplying further 1,4-butylene diamine, an aliphatic dicarboxylic acid which is adipic acid or 1,10-decanedioic acid and a fatty acid based dicarboxylic acid having 18 or 36 carbon atoms and/or diamine derived there from to the reaction mixture.
A system for securing a watercraft to a dock, the system comprising: a proximity sensor for automatically detecting a securing point to which to dock the watercraft; characterized in that said system further comprises: an arm for mounting to the watercraft; a cable housed inside the arm and having a proximal end secured to a reel, such that the cable is unwound from the reel by extension of the arm; and a grasping element mounted to a distal end of the cable and configured to engage the securing point, wherein the grasping element comprises: a cable end connected to the distal end of the cable; a cleat end positioned opposite the cable end; a bay defined between the cable end and the cleat end; and a gate that is moveable between the cable end and the cleat end to create a secure loop that reversibly locks the securing point within the bay. an arm for mounting to the watercraft; a cable housed inside the arm and having a proximal end secured to a reel, such that the cable is unwound from the reel by extension of the arm; and a grasping element mounted to a distal end of the cable and configured to engage the securing point, wherein the grasping element comprises: a cable end connected to the distal end of the cable; a cleat end positioned opposite the cable end; a bay defined between the cable end and the cleat end; and a gate that is moveable between the cable end and the cleat end to create a secure loop that reversibly locks the securing point within the bay. a cable end connected to the distal end of the cable; a cleat end positioned opposite the cable end; a bay defined between the cable end and the cleat end; and a gate that is moveable between the cable end and the cleat end to create a secure loop that reversibly locks the securing point within the bay.
A total heat exchanging element comprising: at least two partitioning components to which a water-soluble moisture-absorbing agent has been added that is a component partitioning between a first laminar air-flow path and a second laminar air-flow path that are layered; a spacing component that forms the first laminar air-flow path and the second laminar air-flow path and maintains a space between the partitioning components; and an adhesive agent that adheres the partitioning components and the spacing component, characterized in that the water-soluble moisture-absorbing agent has been disposed in the partitioning components, and the adhesive agent is a water-solvent-type adhesive agent impregnated with the water-soluble moisture-absorbing agent. at least two partitioning components to which a water-soluble moisture-absorbing agent has been added that is a component partitioning between a first laminar air-flow path and a second laminar air-flow path that are layered; a spacing component that forms the first laminar air-flow path and the second laminar air-flow path and maintains a space between the partitioning components; and an adhesive agent that adheres the partitioning components and the spacing component, characterized in that the water-soluble moisture-absorbing agent has been disposed in the partitioning components, and the adhesive agent is a water-solvent-type adhesive agent impregnated with the water-soluble moisture-absorbing agent.
A resonance damping system for a wind turbine having a generator connected to a power grid, the resonance damping system comprising: an adaptive resonance damper, operable to provide a control signal for the generator, wherein the variable torque signal of the adaptive resonance damper is automatically adjusted according to a parameter which represents a grid condition; characterised in that the resonance damping system further comprises: a dynamic observer, which is adapted to compare measured values with an internal model, and to update the internal model according to differences of measured values to parameters predicted from that model, and wherein the observer is further adapted to feed parameters of the internal model to the adaptive resonance damper, and wherein the measured values comprise: generator speed; rotor speed; and a torque signal for the generator. an adaptive resonance damper, operable to provide a control signal for the generator, wherein the variable torque signal of the adaptive resonance damper is automatically adjusted according to a parameter which represents a grid condition; characterised in that the resonance damping system further comprises: a dynamic observer, which is adapted to compare measured values with an internal model, and to update the internal model according to differences of measured values to parameters predicted from that model, and wherein the observer is further adapted to feed parameters of the internal model to the adaptive resonance damper, and wherein the measured values comprise: generator speed; rotor speed; and a torque signal for the generator. a dynamic observer, which is adapted to compare measured values with an internal model, and to update the internal model according to differences of measured values to parameters predicted from that model, and wherein the observer is further adapted to feed parameters of the internal model to the adaptive resonance damper, and wherein the measured values comprise: generator speed; rotor speed; and a torque signal for the generator. generator speed; rotor speed; and a torque signal for the generator.
A core substrate comprising: a glass plate; and a first conductor pattern that is provided on a first main surface of the glass plate, wherein the first conductor pattern includes: a first nickel plating layer that is provided on the first main surface of the glass plate and has a phosphorus content of 5 mass% or less, and a first copper plating layer that is provided on the first nickel plating layer; characterised in that the first conductor pattern further includes: a titanium layer that is disposed between the first nickel plating layer and the glass plate; and a copper layer that is disposed between the titanium layer and the first nickel plating layer. a glass plate; and a first conductor pattern that is provided on a first main surface of the glass plate, wherein the first conductor pattern includes: a first nickel plating layer that is provided on the first main surface of the glass plate and has a phosphorus content of 5 mass% or less, and a first copper plating layer that is provided on the first nickel plating layer; characterised in that the first conductor pattern further includes: a titanium layer that is disposed between the first nickel plating layer and the glass plate; and a copper layer that is disposed between the titanium layer and the first nickel plating layer. a first nickel plating layer that is provided on the first main surface of the glass plate and has a phosphorus content of 5 mass% or less, and a first copper plating layer that is provided on the first nickel plating layer; characterised in that the first conductor pattern further includes: a titanium layer that is disposed between the first nickel plating layer and the glass plate; and a copper layer that is disposed between the titanium layer and the first nickel plating layer.
Container for packaging thermally proceeded products obtained by folding a multilayer material in a semi-rigid sheet having hold and resistance to temperatures in excess of 124°C and high impermeability to gases and once folded defining an internal space for the packaging of thermally treated products wherein it comprises at least one external layer of a polymer material, outside the internal space, and one internal layer of a polymer material, inside the internal space, between which the multilayer material has low gas permeability such that there is a positive humidity sensitivity gradient of this gas permeability from the inside outwards, this gradient allowing the multilayer material to be dried by evaporation towards the outside during the multilayer material stabilisation phase following thermal treatment of packaged products and such that there is a positive gas permeability gradient from the inside towards the outside of the multilayer material when the multilayer material is placed in a humid atmosphere and a negative gas permeability gradient from the inside towards the outside of the multilayer material when the multilayer material is placed in a dry atmosphere, said gradient being created by inserting at least one EVOH layer (copolymer of ethylene and vinyl alcohol) of at least 10 μm between the two external and internal layers of the polymer material, and by inserting a differential material constituting a gas barrier and presenting humidity sensitivity that is lower than EVOH between the interior polymer material and EVOH layer, said differential material being a carrier polymer material coated with silicon oxide (SiOx) or aluminium oxide (AlOx), said differential material being positioned in such a way that the side positioned towards the inside is the side coated with SiOx or AlOx.
A stretchable electrode sheet comprising: a first insulating layer and a stretchable conductor layer provided on the first insulating layer, wherein the stretchable conductor layer has an electric resistance of 300 Ω/cm or less, and a load at stretching of a stretching rate of 10% of the electrode sheet is 100 N or less, wherein the stretchable conductor layer comprises a conductive filler in an amount of 15 to 45% by volume and a resin in an amount of 55 to 85% by volume, wherein the conductive filler is metal powder, wherein the resin contains at least a rubber containing a sulfur atom and/or a rubber containing a nitrile group, wherein the rubber containing a sulfur atom is selected from a polysulfide rubber, polyether rubber, polyacrylate rubber, and silicone rubber that contain a mercapto group, sulfide bond or disulfide bond, wherein the rubber containing a nitrile group is an acrylonitrile butadiene copolymer rubber, wherein the first insulating layer comprises at least one selected from a group consisting of polyurethane resin, silicone resin, vinyl chloride resin, and epoxy resin, and wherein the stretchable electrode sheet has a thickness of 200 μm or less. a first insulating layer and a stretchable conductor layer provided on the first insulating layer, wherein the stretchable conductor layer has an electric resistance of 300 Ω/cm or less, and a load at stretching of a stretching rate of 10% of the electrode sheet is 100 N or less, wherein the stretchable conductor layer comprises a conductive filler in an amount of 15 to 45% by volume and a resin in an amount of 55 to 85% by volume, wherein the conductive filler is metal powder, wherein the resin contains at least a rubber containing a sulfur atom and/or a rubber containing a nitrile group, wherein the rubber containing a sulfur atom is selected from a polysulfide rubber, polyether rubber, polyacrylate rubber, and silicone rubber that contain a mercapto group, sulfide bond or disulfide bond, wherein the rubber containing a nitrile group is an acrylonitrile butadiene copolymer rubber, wherein the first insulating layer comprises at least one selected from a group consisting of polyurethane resin, silicone resin, vinyl chloride resin, and epoxy resin, and wherein the stretchable electrode sheet has a thickness of 200 μm or less.
A dermatological composition comprising: a hydrated flavonoid, and a dermatologically acceptable carrier, wherein the flavanoid is selected from the group consisting of the flavones, flavonols, flavonones, flavonols (or catechins), anthocyanidins and isoflavones, and wherein said hydrated flavonoid is a precipitate formed by addition of an acid to an alkali metal salt of the flavonoid, or formed by addition of water to the flavonoid solubilized in a nontoxic organic solvent, said precipitate formed under conditions producing nanofibers consisting of the flavonoids, having an average size of 50-1000 nanometers. a hydrated flavonoid, and a dermatologically acceptable carrier, wherein the flavanoid is selected from the group consisting of the flavones, flavonols, flavonones, flavonols (or catechins), anthocyanidins and isoflavones, and wherein said hydrated flavonoid is a precipitate formed by addition of an acid to an alkali metal salt of the flavonoid, or formed by addition of water to the flavonoid solubilized in a nontoxic organic solvent, said precipitate formed under conditions producing nanofibers consisting of the flavonoids, having an average size of 50-1000 nanometers.
Light device comprising: - at least one source (2, 3, 4) arranged to emit a light beam, - an optical system arranged to send each light beam from a central zone in several possible directions contained in a light cone the vertex of which is located in the central zone, such that each light beam propagates in its light cone, said optical system comprising a reflective surface mounted in rotation in the central zone around an axis - a reflector system arranged to receive each light beam propagating in its light cone and to reflect each received light beam in a space and outside its light cone. characterized in that said reflector system is arranged to move between several positions so that a change of position modifies the trajectory of a light beam reflected by the reflector system, the device further comprising a control system arranged to move the reflector system between its positions. - at least one source (2, 3, 4) arranged to emit a light beam, - an optical system arranged to send each light beam from a central zone in several possible directions contained in a light cone the vertex of which is located in the central zone, such that each light beam propagates in its light cone, said optical system comprising a reflective surface mounted in rotation in the central zone around an axis - a reflector system arranged to receive each light beam propagating in its light cone and to reflect each received light beam in a space and outside its light cone.
A cutting tool comprising: a tool unit having an electric motor and a rotary cutting blade rotatably driven by the electric motor; wherein: a cutting direction that is a direction for moving the cutting tool is referred as a forward direction and a direction toward an operator with respect to the cutting tool is referred as a rearward direction, the forward and rearward direction corresponds to a horizontal direction, and the electric motor has a motor housing; characterized in that the motor housing has a flattened cylindrical configuration, so that a horizontal length of the motor housing is shorter than a vertical length of the motor housing. a tool unit having an electric motor and a rotary cutting blade rotatably driven by the electric motor; wherein: a cutting direction that is a direction for moving the cutting tool is referred as a forward direction and a direction toward an operator with respect to the cutting tool is referred as a rearward direction, the forward and rearward direction corresponds to a horizontal direction, and the electric motor has a motor housing; characterized in that the motor housing has a flattened cylindrical configuration, so that a horizontal length of the motor housing is shorter than a vertical length of the motor housing. a cutting direction that is a direction for moving the cutting tool is referred as a forward direction and a direction toward an operator with respect to the cutting tool is referred as a rearward direction, the forward and rearward direction corresponds to a horizontal direction, and the electric motor has a motor housing; characterized in that the motor housing has a flattened cylindrical configuration, so that a horizontal length of the motor housing is shorter than a vertical length of the motor housing.
A shielding needle assembly comprising: a needle cannula having a proximal end and a distal end with a puncture tip; a needle hub having a proximal end and a distal end and a passage between the ends, with an interior portion of the needle hub distal end supporting the needle cannula proximal end; a shielding member movable between a first position in which the puncture tip of the needle cannula is exposed and a second position in which the puncture tip of the needle cannula is shielded by the shielding member; a drive member biasing the shielding member toward the second position, the shielding member and the needle hub including an interference engagement therebetween for maintaining the shielding member in the first position against a biasing force of the drive member; and characterized by an activation material adapted to deform upon a fluid medium flowing through the needle cannula, thereby causing the activation material to deform and release the interference engagement between the shielding member and the needle hub and allowing the drive member to bias the shielding member toward the second position. a needle cannula having a proximal end and a distal end with a puncture tip; a needle hub having a proximal end and a distal end and a passage between the ends, with an interior portion of the needle hub distal end supporting the needle cannula proximal end; a shielding member movable between a first position in which the puncture tip of the needle cannula is exposed and a second position in which the puncture tip of the needle cannula is shielded by the shielding member; a drive member biasing the shielding member toward the second position, the shielding member and the needle hub including an interference engagement therebetween for maintaining the shielding member in the first position against a biasing force of the drive member; and characterized by an activation material adapted to deform upon a fluid medium flowing through the needle cannula, thereby causing the activation material to deform and release the interference engagement between the shielding member and the needle hub and allowing the drive member to bias the shielding member toward the second position.
Bearing pad support connection, comprising a bearing pad and a bearing pad support, whereby the bearing pad is connected to the bearing pad support by a pivot joint, whereby the pivot joint comprises a pivot pocket, and a pivot, whereby the pivot pocket comprises a sealing that abuts on the pivot of the pivot joint, characterized in that the pivot comprises a neck and a head, whereby the head comprises a rim with a wider dimension than the neck, and wherein the sealing abuts on the neck of the pivot, whereby the head is connected to the neck, and the head forms an end of the pivot, the head of the pivot is located in the pivot pocket of the pivot joint, when the bearing pad support connection is connected
A method of preparing a coating solution for gas barrier, containing an ammonium salt of a polymer including a carboxyl group, a particulate multivalent metallic compound and water, the method comprising mixing the ammonium salt, the multivalent metallic compound and water, followed by performing a dispersion treatment as needed, wherein: the ammonium salt is obtained by neutralizing a polymer including a carboxyl group with ammonia in water, and when the obtained ammonium salt is dissolved in water at a concentration of 10 mass%, the aqueous solution has a pH 7.0-9.0, wherein the polymer including a carboxyl group is polyacrylic acid, the content of the multivalent metallic compound is 0.5 to 2.0 times the chemical equivalent of the ammonium salt when and are mixed, wherein the chemical equivalent is defined by the number of the multivalent metal in the compound / (the number of the carboxyl groups in the compound x the valence of the multivalent metal), wherein the multivalent metallic compound in the coating solution has a mean particle size of 4 μm or less. the ammonium salt is obtained by neutralizing a polymer including a carboxyl group with ammonia in water, and when the obtained ammonium salt is dissolved in water at a concentration of 10 mass%, the aqueous solution has a pH 7.0-9.0, wherein the polymer including a carboxyl group is polyacrylic acid, the content of the multivalent metallic compound is 0.5 to 2.0 times the chemical equivalent of the ammonium salt when and are mixed, wherein the chemical equivalent is defined by the number of the multivalent metal in the compound / (the number of the carboxyl groups in the compound x the valence of the multivalent metal), wherein the multivalent metallic compound in the coating solution has a mean particle size of 4 μm or less.
Method for securing a railroad crossing, wherein - sensor data relating to a rail-borne vehicle approaching the railroad crossing is detected by a track-side sensor device, said sensor data comprising at least the current speed of the rail-borne vehicle, - the detected sensor data is transmitted by the track-side sensor device to a stationary control device, - a switch-on time is determined by the stationary control device taking into account the transmitted sensor data and track data, - upon reaching the switch-on time, securing of the railroad crossing is initiated by the stationary control device, and - after the railroad crossing has been successfully secured, a travel permission that extends beyond the railroad crossing is determined by a control device of a train control system and is transmitted to the rail-borne vehicle to replace a previous travel permission that expired prior to reaching the railroad crossing. - sensor data relating to a rail-borne vehicle approaching the railroad crossing is detected by a track-side sensor device, said sensor data comprising at least the current speed of the rail-borne vehicle, - the detected sensor data is transmitted by the track-side sensor device to a stationary control device, - a switch-on time is determined by the stationary control device taking into account the transmitted sensor data and track data, - upon reaching the switch-on time, securing of the railroad crossing is initiated by the stationary control device, and - after the railroad crossing has been successfully secured, a travel permission that extends beyond the railroad crossing is determined by a control device of a train control system and is transmitted to the rail-borne vehicle to replace a previous travel permission that expired prior to reaching the railroad crossing.