mhurhangee/patent-ind-claim-en huggingface dataset:
Shoe sole comprising a main structure that defines a tread surface intended to face the ground during use of said sole and opposing sides of said sole , said main structure comprising: • a forefoot portion in which is defined a forefoot through opening that extends between said opposing sides ; • a midfoot portion in which is defined a midfoot through opening that extends between said opposing sides ; • a hindfoot portion in which is defined a hindfoot through opening that extends between said opposing sides ; said forefoot portion , midfoot portion and hindfoot portion being contiguous with each other along said toe-to-heel direction (X) and being made of an elastic material, characterised in that said forefoot through opening and said hindfoot through opening partially overlap said midfoot through opening . • a forefoot portion in which is defined a forefoot through opening that extends between said opposing sides ; • a midfoot portion in which is defined a midfoot through opening that extends between said opposing sides ; • a hindfoot portion in which is defined a hindfoot through opening that extends between said opposing sides ; said forefoot portion , midfoot portion and hindfoot portion being contiguous with each other along said toe-to-heel direction (X) and being made of an elastic material, characterised in that said forefoot through opening and said hindfoot through opening partially overlap said midfoot through opening .
A thermoplastic resin composition comprising: a base resin comprising a rubber graft copolymer and a vinyl cyanide-aromatic vinyl-based copolymer; a first silicone oil having a viscosity of 100 mPa·s to 1,000 mPa·s (100 cPs to 1,000 cPs) as measured according to ASTM D445; and a second silicone oil having a viscosity of 5,000 mPa·s to 20,000 mPa·s (5,000 cPs to 20,000 cPs) as measured according to ASTM D445. a base resin comprising a rubber graft copolymer and a vinyl cyanide-aromatic vinyl-based copolymer; a first silicone oil having a viscosity of 100 mPa·s to 1,000 mPa·s (100 cPs to 1,000 cPs) as measured according to ASTM D445; and a second silicone oil having a viscosity of 5,000 mPa·s to 20,000 mPa·s (5,000 cPs to 20,000 cPs) as measured according to ASTM D445.
A double valve device for mounting in a flow channel of a sewer for the prevention of backflow, the sewer has an intake pipe and an outfall pipe for sewage and/or water, the double valve device comprises an elongated hollow valve body and an actuator wherein - the elongated hollow valve body includes a first elongate hollow member defining a first channel and a second elongate hollow member defining a second channel opposite the first channel , - the first elongate hollow member has a first flap valve pivotally movable between a closed state and an open state of a first valve opening of the first elongate hollow member , and - the second elongate hollow member has a second flap valve pivotally movable between a closed state and an open state of a second valve opening of the second elongate hollow member , which second valve opening faces the first valve opening - characterised in that - the actuator is operatively connected to the elongate hollow valve body to allow adjusting the distance between the first elongated hollow member and the second elongate hollow member upon actuation. - the elongated hollow valve body includes a first elongate hollow member defining a first channel and a second elongate hollow member defining a second channel opposite the first channel , - the first elongate hollow member has a first flap valve pivotally movable between a closed state and an open state of a first valve opening of the first elongate hollow member , and - the second elongate hollow member has a second flap valve pivotally movable between a closed state and an open state of a second valve opening of the second elongate hollow member , which second valve opening faces the first valve opening - characterised in that - the actuator is operatively connected to the elongate hollow valve body to allow adjusting the distance between the first elongated hollow member and the second elongate hollow member upon actuation.
An ink composition comprising: a) water; b) a water dispersible resin; c) a colorant; d) a water soluble resin, the water soluble resin comprising a water-soluble backbone wherein the backbone consists essentially of a polyethyleneglycol chain, a polypropyleneglycol chain, a polyethylene-propylene glycol chain, a polypyrrolidone chain, a polyvinylpyrrolidone chain, a polyvinylalcohol chain or a polysaccharide chain; and a stabilizing group, the stabilizing group being capable of forming intermolecular hydrogen-bonds the stabilizing group comprising a 2-pyrrolidone moiety, a salicylic acid moiety, a glutamate moiety, a 5-pyrrolidonecarboxylate moiety, a monosaccharide moiety or a disaccharide moiety, wherein the stabilizing group is different from the backbone or a unit of the backbone. a) water; b) a water dispersible resin; c) a colorant; d) a water soluble resin, the water soluble resin comprising a water-soluble backbone wherein the backbone consists essentially of a polyethyleneglycol chain, a polypropyleneglycol chain, a polyethylene-propylene glycol chain, a polypyrrolidone chain, a polyvinylpyrrolidone chain, a polyvinylalcohol chain or a polysaccharide chain; and a stabilizing group, the stabilizing group being capable of forming intermolecular hydrogen-bonds the stabilizing group comprising a 2-pyrrolidone moiety, a salicylic acid moiety, a glutamate moiety, a 5-pyrrolidonecarboxylate moiety, a monosaccharide moiety or a disaccharide moiety, wherein the stabilizing group is different from the backbone or a unit of the backbone.
A process of preparing a plurality of lithium aluminum ingots comprising: (a) preparing a master alloy comprising about 70 to 90 percent by weight lithium and 10 to 30 percent by weight aluminum and (b) dissolving the master alloy of step (a) in lithium at a temperature of from about 230°C to 360°C to provide a uniform alloy composition, (c) producing a plurality of lithium aluminum ingots from the uniform alloy composition wherein each lithium aluminum ingot has about 0.001 to about 1.0 percent aluminum. (a) preparing a master alloy comprising about 70 to 90 percent by weight lithium and 10 to 30 percent by weight aluminum and (b) dissolving the master alloy of step (a) in lithium at a temperature of from about 230°C to 360°C to provide a uniform alloy composition, (c) producing a plurality of lithium aluminum ingots from the uniform alloy composition wherein each lithium aluminum ingot has about 0.001 to about 1.0 percent aluminum.
A security element, comprising a luminescent substance of the general formula XZO 4 wherein X stands for Sc a Y b La c Ce d Pr e Sm g Eu h Tb k Dy l Ho m Tm o Sb(III) r Bi s Cr t Mn(III) u Fe(III) v and Z stands for Nb za Ta zb and a + b + c + d + e + g + h + k + l + m + o + r + s + t + u + v = 1 and a, b, c, d, e, g, h, k, l, m, o, r, s, t, u and v each range from 0 to 1 and za + zb = 1 and za and zb each range from 0 to 1, wherein as the X element at least one rare-earth element is present. X stands for Sc a Y b La c Ce d Pr e Sm g Eu h Tb k Dy l Ho m Tm o Sb(III) r Bi s Cr t Mn(III) u Fe(III) v and Z stands for Nb za Ta zb and a + b + c + d + e + g + h + k + l + m + o + r + s + t + u + v = 1 and a, b, c, d, e, g, h, k, l, m, o, r, s, t, u and v each range from 0 to 1 and za + zb = 1 and za and zb each range from 0 to 1, wherein as the X element at least one rare-earth element is present.
A buoyant immiscible pollutant remediation apparatus for use in a body of water comprising: a deck having a first end and a second end; a cryogenic fluid source adapted for providing a cryogenic fluid, the cryogenic fluid source supported by the deck; a cryogenic fluid dispenser structure coupled to the cryogenic fluid source and supported over the body water at a first end of the deck, the cryogenic fluid dispenser structure comprising at least one cryogenic fluid dispenser adapted for dispensing cryogenic fluid in a substantially condensed phase; a conveyor belt adapted to receive and transport at least some immiscible pollutant that was exposed to substantially condensed phase cryogenic fluid by the cryogenic fluid dispenser structure, wherein the conveyor belt causes a belt to travel in a direction from the first end of the deck toward the second end of the deck; transport structure, disposed proximate to the second end of the deck, adapted for transporting the immiscible pollutant from the conveyor belt to the waste tank; and a waste tank adapted for storing collected immiscible pollutant. a deck having a first end and a second end; a cryogenic fluid source adapted for providing a cryogenic fluid, the cryogenic fluid source supported by the deck; a cryogenic fluid dispenser structure coupled to the cryogenic fluid source and supported over the body water at a first end of the deck, the cryogenic fluid dispenser structure comprising at least one cryogenic fluid dispenser adapted for dispensing cryogenic fluid in a substantially condensed phase; a conveyor belt adapted to receive and transport at least some immiscible pollutant that was exposed to substantially condensed phase cryogenic fluid by the cryogenic fluid dispenser structure, wherein the conveyor belt causes a belt to travel in a direction from the first end of the deck toward the second end of the deck; transport structure, disposed proximate to the second end of the deck, adapted for transporting the immiscible pollutant from the conveyor belt to the waste tank; and a waste tank adapted for storing collected immiscible pollutant.
A process for deposition of indium or indium alloys comprising the steps i. providing a substrate having at least one metal or metal alloy surface, the at least one metal or metal alloy surface consisting of one or more than one selected from the group consisting of nickel, cobalt, ruthenium or alloys of any of the aforementioned; ii. depositing a first indium or indium alloy layer on at least one portion of said surface whereby a composed phase layer is formed of a part of the metal or metal alloy surface and a part of the first indium or indium alloy layer; iii. removing wholly the part of the first indium or indium alloy layer which has not been formed into the composed phase layer, wherein the composed phase layer is not substantially removed in step iii. of the process, wherein more than 90 wt.-% of the composed phase layer remain after step iii.; iv. depositing a second indium or indium alloy layer on the at least one portion of the surface obtained in step iii. i. providing a substrate having at least one metal or metal alloy surface, the at least one metal or metal alloy surface consisting of one or more than one selected from the group consisting of nickel, cobalt, ruthenium or alloys of any of the aforementioned; ii. depositing a first indium or indium alloy layer on at least one portion of said surface whereby a composed phase layer is formed of a part of the metal or metal alloy surface and a part of the first indium or indium alloy layer; iii. removing wholly the part of the first indium or indium alloy layer which has not been formed into the composed phase layer, wherein the composed phase layer is not substantially removed in step iii. of the process, wherein more than 90 wt.-% of the composed phase layer remain after step iii.; iv. depositing a second indium or indium alloy layer on the at least one portion of the surface obtained in step iii.
An in vitro method for assessing the risk that a subject suffers from prostate cancer comprising measuring the expression level of a miR set, in a urine sample from said subject, wherein a changed expression level of said miR set, as compared to healthy donors, indicates an increased probability of said subject suffering from prostate cancer, wherein the miR sets is hsa-miR-24-3p, hsa-miR-22-3p and hsa-miR30a-5p, and/or hsa-miR-24-3p, hsa-miR-22-3p and hsa-miR30c-5p. hsa-miR-24-3p, hsa-miR-22-3p and hsa-miR30a-5p, and/or hsa-miR-24-3p, hsa-miR-22-3p and hsa-miR30c-5p.
Collection system for forming a machine room of a stationary power generator and for collecting operating materials, in particular fuel, comprising a first collection container with a volume V1, and a second collection container with a volume V2, a fuel container with a volume K, and a generator with a fuel-powered motor, and a housing with a intermediate base which defines a first upper area and a second lower area , wherein the first collection container and the fuel container being arranged in the first upper area and the second collection container and the generator with the fuel-powered motor are arranged in the second lower area , wherein a spatial separation of the fuel container and generator and the collection containers (2; 3) arranged thereon is formed by the intermediate base , wherein the first collection container is arranged under the fuel container and above the generator and forms a separation of the fuel fuel container and the generator , wherein the volume V1 is configured for receiving a quantity M of fuel leaking from the fuel container , and the second collection container being arranged under the generator , and the first collection container being in fluid communication with the second collection container , wherein the second collection container is configured for receiving fuel from the first collection container via the fluid connection, which fuel exceeds the quantity M wherein the fuel container is arranged above the motor of the generator , and wherein a fuel connection to the motor of the generator is arranged at the bottom of the fuel container and wherein the fuel container is arranged at a distance of at least 50 cm above the level of an injection pump of the generator , for ensuring the pressure required for supplying the motor of the generator with fuel. wherein the second collection container is configured for receiving fuel from the first collection container via the fluid connection, which fuel exceeds the quantity M wherein the fuel container is arranged above the motor of the generator , and wherein a fuel connection to the motor of the generator is arranged at the bottom of the fuel container and wherein the fuel container is arranged at a distance of at least 50 cm above the level of an injection pump of the generator , for ensuring the pressure required for supplying the motor of the generator with fuel.
Screw connection having a mating connector and a screw part with an annular cross section, in particular a hollow screw or a nut which has a hollow-cylindrical main body which is injection-moulded from a plasticized polymer mass, wherein the main body has at least one internal duct for disposing and/or feeding through a line system element, and an internal thread and/or an external thread for screwing to the mating connector , wherein the screw part when rotating in an assembling direction of rotation (R) is able to be screwed to the mating connector in an assembling direction (M), wherein in a terminal position of the screw part the screw part is screwed to the mating connector so far in the assembling direction (M) that the tightness is sufficiently guaranteed and the number of screwed-in thread turns have such a load-bearing capability that a system pressure can be maintained, wherein at least one latching element is integrally moulded so as to be monolithic on the screw part , and a latching contour is fixedly formed in and counter to the assembling direction of rotation (R) and in the assembling direction (M) in the terminal position of the screw part on the mating connector , characterized in that at least in the terminal position a rotation of the screw part counter to the assembling direction of rotation (R) is blocked as a result of the latching element engaging in the latching contour in a form-fitting manner.
A system for selectively reducing neural activity in a duodenum of a subject, the system comprising: a catheter comprising an elongated catheter body having a proximal end and a distal end; a laser emitting element coupled with the catheter body at or near the distal end, wherein the laser emitting element comprises at least one optical fiber configured to emit a laser beam at a wavelength of 808nm-980nm and an intensity in the range of 100 mW- 10 Watts to a target area in the duodenum, the laser beam configured to be absorbed by the different layers of the target area; a cooling mechanism coupled with the catheter body, configured to lower a temperature of the target area; whereby the laser emitting element when active, selectively ablates sensory neurons within the target area, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; and a rotatable optical element coupled with the laser emitting element and configured to direct the laser beam to the different layers of the duodenum; wherein the catheter body has an outer diameter selected to fit through within a lumen of an endoscope. a catheter comprising an elongated catheter body having a proximal end and a distal end; a laser emitting element coupled with the catheter body at or near the distal end, wherein the laser emitting element comprises at least one optical fiber configured to emit a laser beam at a wavelength of 808nm-980nm and an intensity in the range of 100 mW- 10 Watts to a target area in the duodenum, the laser beam configured to be absorbed by the different layers of the target area; a cooling mechanism coupled with the catheter body, configured to lower a temperature of the target area; whereby the laser emitting element when active, selectively ablates sensory neurons within the target area, while maintaining functional activity of the mucosal layer and tissue layers adjacent the sensory neurons within the target area; and a rotatable optical element coupled with the laser emitting element and configured to direct the laser beam to the different layers of the duodenum; wherein the catheter body has an outer diameter selected to fit through within a lumen of an endoscope.
Method for operating an internal combustion engine with an exhaust gas aftertreatment device, wherein (a) in a first step a reducing agent-fuel consumption weighting q FD to be maintained during the operation of the internal combustion engine is communicated to a control system , wherein the reducing agent-fuel consumption weighting q FD is specified by means of an operator's control unit communicating with the control system , (b) in a second step a vector field of corresponding engine operating points ( n Eng i , M Eng i ) is determined by the control system based on the predetermined reducing agent-fuel consumption weighting q FD in order to derive a specific reducing agent-fuel consumption BSFC i for each of the engine operating points n Eng i M Eng i , BSFC i = m ̇ Fuel i + m ̇ DEF i ⋅ q FD P out , wherein m ̇ Fuel i represents the fuel consumption rate and m ̇ DEF i represents the reducing agent consumption rate for the ith engine operating point, q FD represents the predetermined reducing agent-fuel consumption weighting and P out represents a current gearbox output power, and (c) in a third step the control system selects the element i Set from the identified vector field to which a minimum specific reducing agent-fuel consumption BSFC Set corresponds as the setpoint engine operating point n Eng Set M Eng Set ), wherein a setpoint engine speed n Eng Set is specified by the control system based on the selected element i Set and from it a setpoint gear ratio r Set is specified while taking into account a current gearbox output speed n out . (a) in a first step a reducing agent-fuel consumption weighting q FD to be maintained during the operation of the internal combustion engine is communicated to a control system , wherein the reducing agent-fuel consumption weighting q FD is specified by means of an operator's control unit communicating with the control system , (b) in a second step a vector field of corresponding engine operating points ( n Eng i , M Eng i ) is determined by the control system based on the predetermined reducing agent-fuel consumption weighting q FD in order to derive a specific reducing agent-fuel consumption BSFC i for each of the engine operating points n Eng i M Eng i , BSFC i = m ̇ Fuel i + m ̇ DEF i ⋅ q FD P out , wherein m ̇ Fuel i represents the fuel consumption rate and m ̇ DEF i represents the reducing agent consumption rate for the ith engine operating point, q FD represents the predetermined reducing agent-fuel consumption weighting and P out represents a current gearbox output power, and (c) in a third step the control system selects the element i Set from the identified vector field to which a minimum specific reducing agent-fuel consumption BSFC Set corresponds as the setpoint engine operating point n Eng Set M Eng Set ), wherein a setpoint engine speed n Eng Set is specified by the control system based on the selected element i Set and from it a setpoint gear ratio r Set is specified while taking into account a current gearbox output speed n out .
Angle measurement probe on board an aircraft, comprising: - a fin , which can move in rotation about an axis , - at least one first optical encoder and one second optical encoder , each comprising at least one disk (80-83), each disk being fixed at right angles to the central axis and being provided with at least two circular concentric tracks , each track being provided with transparent successive slots (85 1 , 85 2 , 86 1 , 86 2 ) alternating with opaque zones,the slots of each track being offset relative to the slots of each other track, - means for processing the output signal from each encoder. - a fin , which can move in rotation about an axis , - at least one first optical encoder and one second optical encoder , each comprising at least one disk (80-83), each disk being fixed at right angles to the central axis and being provided with at least two circular concentric tracks , each track being provided with transparent successive slots (85 1 , 85 2 , 86 1 , 86 2 ) alternating with opaque zones,the slots of each track being offset relative to the slots of each other track, - at least one first optical encoder and one second optical encoder , each comprising at least one disk (80-83), each disk being fixed at right angles to the central axis and being provided with at least two circular concentric tracks , each track being provided with transparent successive slots (85 1 , 85 2 , 86 1 , 86 2 ) alternating with opaque zones,the slots of each track being offset relative to the slots of each other track, - means for processing the output signal from each encoder.