mhurhangee/ep-ind-claims huggingface dataset:
A cable-type secondary battery having a horizontal cross section of a predetermined shape and extending longitudinally, comprising: an inner electrode comprising a wire-type inner current collector having a first metal tab formed to be extended in a predetermined length at one end thereof, and an inner electrode active material layer formed on the surface of the inner current collector; a separator layer formed on the outer surface of the inner electrode active material layer; and an outer electrode formed on the outer surface of the separator layer, and comprising an outer electrode active material layer and an outer current collector having a second metal tab formed to be extended in a predetermined length at one end thereof, wherein the outer current collector is in the form of a wound wire, a wound sheet or a mesh, and is made of stainless steel, aluminum, nickel, titanium, or copper; stainless steel treated with carbon, nickel, titanium or silver on the surface thereof; an aluminum-cadmium alloy; a non-conductive polymer treated with a conductive material on the surface thereof; or a conductive polymer, the cable-type secondary battery further comprises a first electrolyte-leakage preventing layer formed on the outer surface of the first metal tab firmly binding with an external coating comprising a heat-shrinkable tube and that prevents the electrolyte to be leaked; a second electrolyte-leakage preventing layer formed on the outer surface of the second metal tab firmly binding with an external coating comprising a heat-shrinkable tube and that prevents the electrolyte to be leaked; and a protection coating closely surrounding the outer current collector and comprising a heat shrinkable tube, wherein the first electrolyte-leakage preventing layer and the second electrolyte-leakage preventing layer each independently comprise a thermal adhesive film or a heat shrinkable tube. an inner electrode comprising a wire-type inner current collector having a first metal tab formed to be extended in a predetermined length at one end thereof, and an inner electrode active material layer formed on the surface of the inner current collector; a separator layer formed on the outer surface of the inner electrode active material layer; and an outer electrode formed on the outer surface of the separator layer, and comprising an outer electrode active material layer and an outer current collector having a second metal tab formed to be extended in a predetermined length at one end thereof, wherein the outer current collector is in the form of a wound wire, a wound sheet or a mesh, and is made of stainless steel, aluminum, nickel, titanium, or copper; stainless steel treated with carbon, nickel, titanium or silver on the surface thereof; an aluminum-cadmium alloy; a non-conductive polymer treated with a conductive material on the surface thereof; or a conductive polymer,
An industrial safety helmet having a curved helmet shell with a circumferential brim, and a chin strap for fastening to the chin of a person wearing said helmet, characterized in that on opposite sides of said chin strap in the region of said brim a guard from a flexible material is attached such that at least chin, cheek and neck regions the person wearing said helmet are protected against electric arcs.
A quantum electronic device comprising: a carbon nanosphere adapted to store a qubit represented by an electron spin; and a control and readout device to set the qubit and read the qubit stored on the carbon nanosphere, wherein the quantum electronic device is characterized by the carbon nanosphere having a diameter of between 20nm and 55nm, and the carbon nanosphere not being hollow and comprising short graphitic fragments that are individually not curved and form unclosed shells following the curvature of the nanosphere, exhibiting an intricate array of interplanar bonding all the way to the centre of the nanosphere, thereby resulting in a conducting homogeneous material that is structurally highly non-crystalline, the carbon nanosphere thereby possessing metallic electron spin states delocalised over the entire diameter of the carbon nanosphere, the electron spin states being itinerant in nature with electron spin lifetimes at room-temperature of at least 115 nanoseconds. a carbon nanosphere adapted to store a qubit represented by an electron spin; and a control and readout device to set the qubit and read the qubit stored on the carbon nanosphere, wherein the quantum electronic device is characterized by the carbon nanosphere having a diameter of between 20nm and 55nm, and the carbon nanosphere not being hollow and comprising short graphitic fragments that are individually not curved and form unclosed shells following the curvature of the nanosphere, exhibiting an intricate array of interplanar bonding all the way to the centre of the nanosphere, thereby resulting in a conducting homogeneous material that is structurally highly non-crystalline, the carbon nanosphere thereby possessing metallic electron spin states delocalised over the entire diameter of the carbon nanosphere, the electron spin states being itinerant in nature with electron spin lifetimes at room-temperature of at least 115 nanoseconds.
A cooking device comprising a cooking chamber; a safety member which is fixed to at least one wall of the cooking chamber and which opens into the cooking chamber from one end such that water accumulating in the cooking chamber can enter through the safety member; a delivery pipe which is connected to the safety member for receiving and transferring water coming from the safety member; and a safety mechanism whereto the other end of the delivery pipe is connected, for detecting overflow of water from the cooking chamber by being activated when water transferred by the delivery pipe reaches on the safety mechanism, characterized that the safety member comprises a closed base which is provided at the end of the cylindrical safety member and which extends into the cooking chamber; a ceiling which is positioned opposite to the base; and opens outside the cooking chamber an opening having an inlet which is arranged on the lateral wall thereof and which opens into the cooking chamber and an outlet which extends from the inlet to the ceiling along the safety member and which into the ceiling where the delivery pipe is connected to the safety member and that the safety member which is mounted to the wall of the cooking chamber such that the inlet faces the base of the cooking chamber.
A kit of parts for dental use comprising Part A and Part B, Part A comprising: component(s) comprising an ascorbic acid moiety, stabilizer selected from an organic sulphite(s), organic phosphite(s) or mixtures thereof, optionally polymerizable component(s) without acidic moieties, optionally polymerizable component(s) with acidic moieties, optionally filler(s), optionally additive(s), Part B comprising: polymerizable component(s) without acidic moieties, polymerizable component(s) with acidic moieties, transition metal component(s), the transition metal component comprising as transition metal Ti, V, Cr, Mn, Co, Ni, Cu, Fe, Zn either in hydrated or in dry form and mixtures thereof, organic peroxide(s), optionally filler(s), optionally additive(s). Part A comprising: component(s) comprising an ascorbic acid moiety, stabilizer selected from an organic sulphite(s), organic phosphite(s) or mixtures thereof, optionally polymerizable component(s) without acidic moieties, optionally polymerizable component(s) with acidic moieties, optionally filler(s), optionally additive(s), component(s) comprising an ascorbic acid moiety, stabilizer selected from an organic sulphite(s), organic phosphite(s) or mixtures thereof, optionally polymerizable component(s) without acidic moieties, optionally polymerizable component(s) with acidic moieties, optionally filler(s), optionally additive(s), Part B comprising: polymerizable component(s) without acidic moieties, polymerizable component(s) with acidic moieties, transition metal component(s), the transition metal component comprising as transition metal Ti, V, Cr, Mn, Co, Ni, Cu, Fe, Zn either in hydrated or in dry form and mixtures thereof, organic peroxide(s), optionally filler(s), optionally additive(s). polymerizable component(s) without acidic moieties, polymerizable component(s) with acidic moieties, transition metal component(s), the transition metal component comprising as transition metal Ti, V, Cr, Mn, Co, Ni, Cu, Fe, Zn either in hydrated or in dry form and mixtures thereof, organic peroxide(s), optionally filler(s), optionally additive(s).
A speech recognition system (100, 900), comprising: a plurality of microphones to receive acoustic signals including speech signals; an input interface to generate multichannel inputs from the acoustic signals; one or more storages to store a multichannel speech recognition network, one or more processors, using the multichannel speech recognition network in association with the one or more storages, to generate a text from the multichannel inputs; and an output interface (122, 126, 130, 131) to render the text, characterized by the multichannel speech recognition network comprising: mask estimation networks (114, 350, 930) to generate time-frequency masks from the multichannel inputs; a MVDR, minimum variance distortionless response, beamformer network (112, 940) trained to select a reference channel input from the multichannel inputs using the time-frequency masks and generate an enhanced speech dataset based on the reference channel input; and an encoder-decoder network (110, 200) trained to transform the enhanced speech dataset into the text. a plurality of microphones to receive acoustic signals including speech signals; an input interface to generate multichannel inputs from the acoustic signals; one or more storages to store a multichannel speech recognition network, one or more processors, using the multichannel speech recognition network in association with the one or more storages, to generate a text from the multichannel inputs; and an output interface (122, 126, 130, 131) to render the text, characterized by the multichannel speech recognition network comprising: mask estimation networks (114, 350, 930) to generate time-frequency masks from the multichannel inputs; a MVDR, minimum variance distortionless response, beamformer network (112, 940) trained to select a reference channel input from the multichannel inputs using the time-frequency masks and generate an enhanced speech dataset based on the reference channel input; and an encoder-decoder network (110, 200) trained to transform the enhanced speech dataset into the text. mask estimation networks (114, 350, 930) to generate time-frequency masks from the multichannel inputs; a MVDR, minimum variance distortionless response, beamformer network (112, 940) trained to select a reference channel input from the multichannel inputs using the time-frequency masks and generate an enhanced speech dataset based on the reference channel input; and an encoder-decoder network (110, 200) trained to transform the enhanced speech dataset into the text.
Hybrid drive module for a motor vehicle drive train, comprising a housing, in which a torsional vibration damping system and an electric machine are received, the torsional vibration damping system consisting of a damping device and a vibration absorber which are provided between an input side and an output side of the torsional vibration damping system and are positioned in a wet space of the housing, the torsional vibration damping system being connected on its output side to a separating clutch, via which the torsional vibration damping system can be connected to an output side of the hybrid drive module, to which output side the electric machine is also connected, characterized in that the damping device comprises two torsional vibration dampers (17, 18).
An implantable prosthetic valve, comprising a radially collapsible and expandable annular frame, said frame having an outflow end and an inflow end and a row of cells formed by struts (160, 210) at the outflow end, wherein at an upper area between two frame sections (150, 152, 154) of the frame, the frame comprises a pair of vertical posts (404, 406) defining an opening therebetween for supporting commissures of a leaflet assembly, the upper area being located at the outflow end of the frame, and wherein the pair of vertical posts (404, 406) is positioned axially along the frame entirely within the row of cells formed by struts (160, 210) at the outflow end; a leaflet assembly positioned within the frame and configured to permit fluid flow through the implantable prosthetic valve in one direction along a structural axis of the frame and resist fluid flow in the opposite direction. a radially collapsible and expandable annular frame, said frame having an outflow end and an inflow end and a row of cells formed by struts (160, 210) at the outflow end, wherein at an upper area between two frame sections (150, 152, 154) of the frame, the frame comprises a pair of vertical posts (404, 406) defining an opening therebetween for supporting commissures of a leaflet assembly, the upper area being located at the outflow end of the frame, and wherein the pair of vertical posts (404, 406) is positioned axially along the frame entirely within the row of cells formed by struts (160, 210) at the outflow end; a leaflet assembly positioned within the frame and configured to permit fluid flow through the implantable prosthetic valve in one direction along a structural axis of the frame and resist fluid flow in the opposite direction.
A method of generating production strategy suitable for the exploitation of a reservoir of hydrocarbon in a natural environment, wherein said natural environment is limited in its surface by a domain (Ω), comprising the following steps: - determining a reference system in the domain (Ω), - determining an opportunity index OI as a function defined in the domain (Ω) providing the local production potential as a function of the location and the local properties; - determining a radius of drainage rd providing the radius of drainage of the hydrocarbon at the end of life of a production well as a function of the opportunity index rd=rd; - identifying production behavior zone cluster or clusters (C1, C2) as locations with similar local production behavior; - for each cluster (C1, C2) to be exploited: ∘ determining a representative value of the opportunity index OI (OI1, OI2) and its corresponding radius of drainage rd=rd, (rd1, rd2); ∘ providing an angle α (α1, α2); ∘ generating a discretization of the cluster according to a grid with a regular pattern wherein the distance between the closest nodes of the pattern is 2*rd, and the orientation of the grid, selecting a reference line in the grid, in the reference system is the angle α; ∘ determining the production well locations (P1, P2) in the cluster (C1, C2) as the coordinates of the nodes of the grid located within the cluster (C1, C2). - determining a reference system in the domain (Ω), - determining an opportunity index OI as a function defined in the domain (Ω) providing the local production potential as a function of the location and the local properties; - determining a radius of drainage rd providing the radius of drainage of the hydrocarbon at the end of life of a production well as a function of the opportunity index rd=rd; - identifying production behavior zone cluster or clusters (C1, C2) as locations with similar local production behavior; - for each cluster (C1, C2) to be exploited: ∘ determining a representative value of the opportunity index OI (OI1, OI2) and its corresponding radius of drainage rd=rd, (rd1, rd2); ∘ providing an angle α (α1, α2); ∘ generating a discretization of the cluster according to a grid with a regular pattern wherein the distance between the closest nodes of the pattern is 2*rd, and the orientation of the grid, selecting a reference line in the grid, in the reference system is the angle α; ∘ determining the production well locations (P1, P2) in the cluster (C1, C2) as the coordinates of the nodes of the grid located within the cluster (C1, C2). ∘ determining a representative value of the opportunity index OI (OI1, OI2) and its corresponding radius of drainage rd=rd, (rd1, rd2); ∘ providing an angle α (α1, α2); ∘ generating a discretization of the cluster according to a grid with a regular pattern wherein the distance between the closest nodes of the pattern is 2*rd, and the orientation of the grid, selecting a reference line in the grid, in the reference system is the angle α; ∘ determining the production well locations (P1, P2) in the cluster (C1, C2) as the coordinates of the nodes of the grid located within the cluster (C1, C2).
Front part of the body of a vehicle, including a motor vehicle, including a cross-section front beam of bumper with two opposite ends connected to the front end of a shock absorber with a rear end connected to the front of one of the two stretchers of the body, each end of the front beam with a nose end strong rigid attached to the front beam in extension of the beam and having a curvature directed towards the rear of the vehicle, characterized by the reinforcement tip being covered with a damping envelope, the damping envelope being a profile made of a composite material.
Method for operating a safety apparatus for a handling device, in particular an industrial robot, having a movable gripper device with gripper fingers (15 to 17), wherein the gripper fingers (15 to 17) are arranged on and fixed to a carrier by a force fit, and having at least one sensor device at least largely surrounding the gripper device for detecting at least possible collisions with objects located in the movement path (18, 19) of the gripper device, wherein, when a risk of a collision is detected, a signal to a control apparatus is generated, which results in a modified movement sequence of the gripper device on its movement path (18, 19), wherein the modified movement sequence is a controlled reduction of the speed of movement of the gripper device, wherein, in the event of collisions with objects located in the movement path (18, 19) of the gripper device, the gripper fingers (15 to 17) give way in the collision direction, so that at least serious injury to the object can be ruled out. having a movable gripper device with gripper fingers (15 to 17), wherein the gripper fingers (15 to 17) are arranged on and fixed to a carrier by a force fit, and having at least one sensor device at least largely surrounding the gripper device for detecting at least possible collisions with objects located in the movement path (18, 19) of the gripper device, wherein, when a risk of a collision is detected, a signal to a control apparatus is generated, which results in a modified movement sequence of the gripper device on its movement path (18, 19), wherein the modified movement sequence is a controlled reduction of the speed of movement of the gripper device, wherein, in the event of collisions with objects located in the movement path (18, 19) of the gripper device, the gripper fingers (15 to 17) give way in the collision direction, so that at least serious injury to the object can be ruled out.
Salicylic acid-based product for the use in the treatment of skin lesions and warts, characterized in that it comprises: - salicylic acid; - a polymer that acts as a film former and is suited to combine with the substances contained in the new product so as to create, once the product has been applied to the area to be treated, a water-repellent film suited to retain the substance and release it gradually, wherein said polymer acting as a film former is a polyurethane; - lactic acid; - Melaleuca Alternifolia Leaf Oil. - salicylic acid; - a polymer that acts as a film former and is suited to combine with the substances contained in the new product so as to create, once the product has been applied to the area to be treated, a water-repellent film suited to retain the substance and release it gradually, wherein said polymer acting as a film former is a polyurethane; - lactic acid; - Melaleuca Alternifolia Leaf Oil.
A connector for a tire inflation system comprising: a body including an air inlet receiving pressurized air from an air supply and an air outlet to communicate the pressurized air to at least one tire, said body including an internal cavity connecting said air inlet to said air outlet, said body adapted to be connected to a rotating wheel component; a seal assembly (62, 62') at least partially received within said internal cavity; and a tube having a first end supported by said seal assembly and a second end adapted for connection to a non-rotating axle component, said tube communicating pressurized air from the non-rotating axle component to said air inlet, and wherein said seal assembly and said tube are rotatable relative to each other, and said seal assembly is rotatable relative to said body. a body including an air inlet receiving pressurized air from an air supply and an air outlet to communicate the pressurized air to at least one tire, said body including an internal cavity connecting said air inlet to said air outlet, said body adapted to be connected to a rotating wheel component; a seal assembly (62, 62') at least partially received within said internal cavity; and a tube having a first end supported by said seal assembly and a second end adapted for connection to a non-rotating axle component, said tube communicating pressurized air from the non-rotating axle component to said air inlet, and wherein said seal assembly and said tube are rotatable relative to each other, and said seal assembly is rotatable relative to said body.