mhurhangee/patent-ind-claim-en huggingface dataset:
Gas distribution device comprising: - a main body passed through by an internal gas passage being used to channel a gas and - a mobile actuating member engaging with a flow selection system arranged on the internal gas passage, the actuating member being secured to said main body and movable by a user to select a desired gas flow, - the actuating member engaging with the flow selection system by way of a mobile drive element , - the actuating member comprising at least one housing and the mobile drive element comprising at least one abutment element protruding over a surface of said mobile drive element , or the mobile drive element comprising at least one housing and the actuating member comprising at least one abutment element protruding over a surface of said actuating member , and - said at least one abutment element being housed in said at least one housing to retain the actuating member fixed secured to said mobile drive element , characterised in that said housing(s) is/are bordered by one or more wall elements each forming a deformation and rupture zone designed to be broken during a disassembly of the actuating member of the mobile drive element . - a main body passed through by an internal gas passage being used to channel a gas and - a mobile actuating member engaging with a flow selection system arranged on the internal gas passage, the actuating member being secured to said main body and movable by a user to select a desired gas flow, - the actuating member engaging with the flow selection system by way of a mobile drive element , - the actuating member comprising at least one housing and the mobile drive element comprising at least one abutment element protruding over a surface of said mobile drive element , or the mobile drive element comprising at least one housing and the actuating member comprising at least one abutment element protruding over a surface of said actuating member , and - said at least one abutment element being housed in said at least one housing to retain the actuating member fixed secured to said mobile drive element ,
A method of manufacturing a porous polymer membrane , said method comprising the steps of: a) providing shaped articles , comprising a polymer matrix and particles dispersed within said matrix, by a solvent free process; b) converting said shaped articles into a non-porous polymer film by a solvent-free process; c) removing said particles from said film by contacting said film with an aqueous composition to thereby obtain the porous polymer membrane ; characterized in that : • said membrane having • an area of > 1 m 2 • a pore size of 0.005 um -15 um, and • said shaped articles comprise matrix and particles in a ratio of 90:10 to 10:90 (matrix : particles in wt%), and • said matrix comprises a thermoplastic or thermosetting polymer and optionally additives , • said particles are pre-manufactured; have a particle size in the range of 0.005 μm -10 μm; are selected from the group consisting of organic salts, metal salts, metal oxides; and are coated with a coating • the coating being selected from • hydrophobic coatings, preferably selected from C6-C24 carboxylic acids, C15-C40 alkanes, vegetable oils, polyesters and polyamides with m.p. 50-70°C, Poly(maleic anhydride) derivatives with linear or branched C6-C40 alkyl chains siloxanes in the form of nanoparticles or filaments, C6-C24alkyl-C1-C4alkoxy-silanes; or • hydrophilic coatings, preferably selected from polyol derivatives, PVP and chitosane. a) providing shaped articles , comprising a polymer matrix and particles dispersed within said matrix, by a solvent free process; b) converting said shaped articles into a non-porous polymer film by a solvent-free process; c) removing said particles from said film by contacting said film with an aqueous composition to thereby obtain the porous polymer membrane ; • said membrane having • an area of > 1 m 2 • a pore size of 0.005 um -15 um, and • an area of > 1 m 2 • a pore size of 0.005 um -15 um, and • said shaped articles comprise matrix and particles in a ratio of 90:10 to 10:90 (matrix : particles in wt%), and • said matrix comprises a thermoplastic or thermosetting polymer and optionally additives , • said particles are pre-manufactured; have a particle size in the range of 0.005 μm -10 μm; are selected from the group consisting of organic salts, metal salts, metal oxides; and are coated with a coating • the coating being selected from • hydrophobic coatings, preferably selected from C6-C24 carboxylic acids, C15-C40 alkanes, vegetable oils, polyesters and polyamides with m.p. 50-70°C, Poly(maleic anhydride) derivatives with linear or branched C6-C40 alkyl chains siloxanes in the form of nanoparticles or filaments, C6-C24alkyl-C1-C4alkoxy-silanes; or • hydrophilic coatings, preferably selected from polyol derivatives, PVP and chitosane. • hydrophobic coatings, preferably selected from C6-C24 carboxylic acids, C15-C40 alkanes, vegetable oils, polyesters and polyamides with m.p. 50-70°C, Poly(maleic anhydride) derivatives with linear or branched C6-C40 alkyl chains siloxanes in the form of nanoparticles or filaments, C6-C24alkyl-C1-C4alkoxy-silanes; or • hydrophilic coatings, preferably selected from polyol derivatives, PVP and chitosane.
Method for the call allocation in an elevator group using a call allocation unit of an elevator group control , in which call allocation unit passenger flow data in the elevator group is used to adapt parameters of elevator components to improve the performance of the elevator group, whereby traffic data is retrieved from at least one transportation system , which traffic data is used to supplement expected passenger flow data for the adaption of call allocation parameters, characterized in that the traffic data are public traffic data from a public transportation system , that the public traffic data are obtained via a data interface with the internet or a mobile phone network from the public transportation system in the GTFS format, and that the public traffic data are updated by real-time data about the current schedule and/or traffic density as forwarded by the public transportation system via the internet or said mobile phone network .
A compressor comprising: a case ; a stator , accommodated in the case , and including a stator core (no) and a stator coil ; a rotor rotatably disposed in an inside of the stator core ; a bracket coupled to a lower portion of the stator core ; a rotation shaft configured to rotate together with the rotor , and having a cavity for raising oil stored in the case ; a pickup shaft accommodated in the cavity ; and a support member connected to the pickup shaft to support the pickup shaft , and coupled to the bracket or the stator core ; and an insulator including a lower insulator disposed below the stator core and an upper insulator disposed between the stator core and the stator coil , wherein the bracket comprises a bumper portion to which a bumper member is coupled, and the bracket is disposed to be spaced outward from the insulator in a radial direction . a case ; a stator , accommodated in the case , and including a stator core (no) and a stator coil ; a rotor rotatably disposed in an inside of the stator core ; a bracket coupled to a lower portion of the stator core ; a rotation shaft configured to rotate together with the rotor , and having a cavity for raising oil stored in the case ; a pickup shaft accommodated in the cavity ; and a support member connected to the pickup shaft to support the pickup shaft , and coupled to the bracket or the stator core ; and an insulator including a lower insulator disposed below the stator core and an upper insulator disposed between the stator core and the stator coil , wherein the bracket comprises a bumper portion to which a bumper member is coupled, and the bracket is disposed to be spaced outward from the insulator in a radial direction .
A method performed by a server , the method comprising: receiving an input including an item selection from a client ; providing to the client generation information for generating a placeholder based on the received input, the placeholder having unique markings and being associated with the selected item; receiving visual data from the client , the visual data including an image of the placeholder in a context environment captured by a camera communicatively coupled to the client ; detecting placeholder information included with the visual data, the placeholder information associated with the placeholder ; determining placement information using the placeholder information; retrieving an image of the item from item images stored in a database based on the unique markings of the placeholder ; modifying the received visual data to include image data associated with the retrieved image into the visual data with reference to the placement information; and providing the modified visual data to the client . receiving an input including an item selection from a client ; providing to the client generation information for generating a placeholder based on the received input, the placeholder having unique markings and being associated with the selected item; receiving visual data from the client , the visual data including an image of the placeholder in a context environment captured by a camera communicatively coupled to the client ; detecting placeholder information included with the visual data, the placeholder information associated with the placeholder ; determining placement information using the placeholder information; retrieving an image of the item from item images stored in a database based on the unique markings of the placeholder ; modifying the received visual data to include image data associated with the retrieved image into the visual data with reference to the placement information; and providing the modified visual data to the client .
A solid solution pharmaceutical composition comprising: a) one or more propionic acid derivative non-steroidal anti-inflammatory drugs (NSAIDs) comprising 5% to 55% by weight of the pharmaceutical composition; b) one or more room temperature solid lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, the one or more room temperature solid lipids having a melting point of 40°C to 50°C and comprise one or more glycerolipids, wherein the one or more glycerolipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24 , two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24 , or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24 ; c) one or more room temperature liquid lipids that are liquid at 20°C comprising 8% to 30% by weight of the pharmaceutical composition, the one or more room temperature liquid lipids comprising a mixture of one or more partially hydrolyzed fats; d) one or more stabilizing agents, the one or more stabilizing agents comprising a liquid PEG polymer, wherein the solid solution pharmaceutical composition has a melting point of 30°C or higher. a) one or more propionic acid derivative non-steroidal anti-inflammatory drugs (NSAIDs) comprising 5% to 55% by weight of the pharmaceutical composition; b) one or more room temperature solid lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, the one or more room temperature solid lipids having a melting point of 40°C to 50°C and comprise one or more glycerolipids, wherein the one or more glycerolipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24 , two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24 , or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24 ; c) one or more room temperature liquid lipids that are liquid at 20°C comprising 8% to 30% by weight of the pharmaceutical composition, the one or more room temperature liquid lipids comprising a mixture of one or more partially hydrolyzed fats; d) one or more stabilizing agents, the one or more stabilizing agents comprising a liquid PEG polymer,
A surgical tool and control device comprising: a surgical power tool ; a control device comprising: a housing sized and configured to couple to the surgical power tool; an input surface provided at the housing for receiving a user input; and a control unit within the housing for sending user input information received at the input surface to the surgical power tool to control at least one of the speed, torque, direction, illumination, irrigation, or suction completed by the surgical power tool. a surgical power tool ; a control device comprising: a housing sized and configured to couple to the surgical power tool; an input surface provided at the housing for receiving a user input; and a control unit within the housing for sending user input information received at the input surface to the surgical power tool to control at least one of the speed, torque, direction, illumination, irrigation, or suction completed by the surgical power tool. a housing sized and configured to couple to the surgical power tool; an input surface provided at the housing for receiving a user input; and a control unit within the housing for sending user input information received at the input surface to the surgical power tool to control at least one of the speed, torque, direction, illumination, irrigation, or suction completed by the surgical power tool.
Print head for printing a suspension fluid comprising particles, the print head comprising a nozzle having one or more nozzle outlets for allowing the suspension fluid to be ejected from the nozzle, a flow path including a supply channel for supplying the suspension fluid to the one or more nozzle outlets , and a supply pump for establishing a flow within the flow path , wherein the nozzle further comprises an actuator for imparting pressure fluctuations on the suspension fluid at the one or more nozzle outlets for generating one or more droplets therefrom, wherein the flow path further comprises a shear section for locally increasing the shear rate at least at a location in the flow path upstream of the one or more nozzle outlets , and a return channel for allowing excess fluid not ejected from the nozzle to flow away from the one or more nozzle outlets , wherein the shear section is configured to locally increase the shear rate for imposing a shear force on said particles which is larger than an attractive force between said particles in a particle agglomeration, wherein at least one of the one or more nozzle outlets is located in a branch channel extending from the supply channel ; wherein the shear section comprises at least one element of: a flow constriction; a channel reduction of the supply channel, the channel reduction reducing at least one dimension of the supply channel; a structure present in said supply channel; or a bend in the supply channel. a flow constriction; a channel reduction of the supply channel, the channel reduction reducing at least one dimension of the supply channel; a structure present in said supply channel; or a bend in the supply channel.
A pin and bush pivot coupling for connecting a pair of mutually rotatable modules (15-16; 15-17; 16-17; 16-44; 16-43), the first module of the pair having at least one first coupling member (Z2) consisting of two bushes and the second module of the pair having at least one second coupling member (Z1) consisting of one bush which is located in the coupling between the bushes of the first module, characterized in that each coupling member (Z1, Z2) comprises at least one internal channel ending in an outlet opening and enabling flow of a pneumatic medium, the coupling further including a hollow pin extending through both coupling members (Z1, Z2), the pin being mounted in the coupling immovably with respectto one of the coupling members (Z1, Z2) and rotatably with respect to the other of the coupling members (Z1, Z2), and wherein the pin-rotatable coupling member (Z1, Z2) comprises a sealed chamber and the pin comprises: - a first hole thightly communicating with the outlet opening of the internal channel located in the pin-immovable coupling member (Z1, Z2) and - at least one second hole providing pneumatic communication via the sealed chamber with the outlet opening of the internal channel located in the pin-rotatable coupling member (Z1, Z2), so that the pin ensures a thigh pneumatic communication between the internal channels of neighboring modules during their movement. - a first hole thightly communicating with the outlet opening of the internal channel located in the pin-immovable coupling member (Z1, Z2) and - at least one second hole providing pneumatic communication via the sealed chamber with the outlet opening of the internal channel located in the pin-rotatable coupling member (Z1, Z2),
An imaging system , comprising: at least one camera configured to capture a target image scene, the at least one camera comprising an image sensor comprising an array of sensor elements; a primary light folding surface configured to direct a portion of received light in a first direction; a means for redirecting light configured to redirect light received from the primary light folding surface in a second direction to the image sensor; a lens assembly (115, L6; 130, L6) comprising at least one stationary lens (L6) positioned between the means for redirecting light and the image sensor, the at least one stationary lens having a first surface mechanically coupled to the means for redirecting light and a second surface, and at least one movable lens positioned between the primary light folding surface and the means for redirecting light; and means for moving the at least one movable lens to focus light propagating through the lens assembly onto the image sensor, characterised in that the second surface is mechanically coupled to the image sensor, and in that the at least one stationary lens comprises a field corrector lens. an image sensor comprising an array of sensor elements; a primary light folding surface configured to direct a portion of received light in a first direction; a means for redirecting light configured to redirect light received from the primary light folding surface in a second direction to the image sensor; a lens assembly (115, L6; 130, L6) comprising at least one stationary lens (L6) positioned between the means for redirecting light and the image sensor, the at least one stationary lens having a first surface mechanically coupled to the means for redirecting light and a second surface, and at least one movable lens positioned between the primary light folding surface and the means for redirecting light; and means for moving the at least one movable lens to focus light propagating through the lens assembly onto the image sensor, characterised in that the second surface is mechanically coupled to the image sensor, and in that the at least one stationary lens comprises a field corrector lens. at least one stationary lens (L6) positioned between the means for redirecting light and the image sensor, the at least one stationary lens having a first surface mechanically coupled to the means for redirecting light and a second surface, and at least one movable lens positioned between the primary light folding surface and the means for redirecting light; and means for moving the at least one movable lens to focus light propagating through the lens assembly onto the image sensor, characterised in that the second surface is mechanically coupled to the image sensor, and in that the at least one stationary lens comprises a field corrector lens.
Device for lifting and lowering a roof supported on telescopic stakes of a utility vehicle, wherein one stake has a housing element , a lifting element that is telescopic relative to the housing element , and a knee lever having a first hinged lever member foldable between a first folding and a first unfolding position and hinged to the housing element , and a second lever member connectable with the lifting element , wherein the knee lever is designed in such a way that lifting the lifting element can be realised with a folding movement from the folding and unfolding position, wherein the stake further has a first actuation element , with the actuation of which the lifting element can be lowered, and wherein the first lever member has a second actuation element for actuating the first actuation element , characterised in that the first and the second actuation element are arranged in such a way that the first actuation element is already actuated shortly before reaching the folding position by the second actuation element during a folding movement of the first lever member from the first unfolding position into the first folding position.
A semiconductor device (A1, A2, A3) comprising: a first semiconductor layer having a first conductivity type (n) and made of silicon carbide; a second semiconductor layer made of silicon carbide, provided on the first semiconductor layer and having a second conductivity type (p) opposite to the first conductivity type (n); a trench penetrating through the second semiconductor layer to reach the first semiconductor layer ; an insulating layer formed at a bottom and a side of the trench along an inner surface of the trench ; a gate electrode insulated by the insulating layer from the first semiconductor layer and the second semiconductor layer , at least part of the gate electrode being formed inside the trench ; and a semiconductor region made of silicon carbide, having the first conductivity type (n) and formed around the trench on the second semiconductor layer ; wherein the second semiconductor layer includes a channel region that is along the trench and in contact with the first semiconductor layer at a first end and the semiconductor region at a second end opposite to the first end, a size of the channel region in a depth direction of the trench is 0.1 to 0.5 μm, a peak impurity concentration along a depth of the channel region is in a range of 4x10 17 cm -3 to 2x10 18 cm -3 , an impurity concentration of the second semiconductor layer initially increases starting from the second end, reaches a maximum at a predetermined depth and decreases, as proceeding from the semiconductor region toward the first semiconductor layer in the depth direction of the trench . a first semiconductor layer having a first conductivity type (n) and made of silicon carbide; a second semiconductor layer made of silicon carbide, provided on the first semiconductor layer and having a second conductivity type (p) opposite to the first conductivity type (n); a trench penetrating through the second semiconductor layer to reach the first semiconductor layer ; an insulating layer formed at a bottom and a side of the trench along an inner surface of the trench ; a gate electrode insulated by the insulating layer from the first semiconductor layer and the second semiconductor layer , at least part of the gate electrode being formed inside the trench ; and a semiconductor region made of silicon carbide, having the first conductivity type (n) and formed around the trench on the second semiconductor layer ; wherein the second semiconductor layer includes a channel region that is along the trench and in contact with the first semiconductor layer at a first end and the semiconductor region at a second end opposite to the first end, a size of the channel region in a depth direction of the trench is 0.1 to 0.5 μm, a peak impurity concentration along a depth of the channel region is in a range of 4x10 17 cm -3 to 2x10 18 cm -3 , an impurity concentration of the second semiconductor layer initially increases starting from the second end, reaches a maximum at a predetermined depth and decreases, as proceeding from the semiconductor region toward the first semiconductor layer in the depth direction of the trench .