mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition, comprising: 35 to 75 % by weight of an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A) containing alkyl acrylate rubber having an average particle diameter of 40 to 120 nm; and 25 to 65 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer (B) having a weight average molecular weight of 50,000 to 180,000 g/mol, wherein the thermoplastic resin composition has an alkyl acrylate coverage value (X) of 70 % or more as calculated by Equation 1 below: X = G − Y / Y × 100 , wherein G represents the gel content (wt%) based on a total weight of the thermoplastic resin composition, and Y represents the content (wt%) of an alkyl acrylate in the gel based on a total weight of the thermoplastic resin composition, wherein the average particle diameter, the weight average molecular weight, the gel content and the content of an alkyl acrylate in the gel are measured as disclosed in the specification. 35 to 75 % by weight of an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A) containing alkyl acrylate rubber having an average particle diameter of 40 to 120 nm; and 25 to 65 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer (B) having a weight average molecular weight of 50,000 to 180,000 g/mol, wherein the thermoplastic resin composition has an alkyl acrylate coverage value (X) of 70 % or more as calculated by Equation 1 below: X = G − Y / Y × 100 , wherein G represents the gel content (wt%) based on a total weight of the thermoplastic resin composition, and Y represents the content (wt%) of an alkyl acrylate in the gel based on a total weight of the thermoplastic resin composition, wherein the average particle diameter, the weight average molecular weight, the gel content and the content of an alkyl acrylate in the gel are measured as disclosed in the specification.
A cable lug adapted to a L- or T-connector with a flexible fitting for offshore wind high voltage electrical system up to 72.5kV, comprising: a first portion comprising a receiving end for receiving a high-voltage cable, a second portion extending from the first portion and comprising a through hole configured and arranged such that a stud can be passed therethrough, the through hole extending transversally through two opposite surfaces (S1, S2) of the second portion , characterized in that the receiving end comprises at least one threaded bolt for attaching the high-voltage cable to the cable lug , at least one surface of the two opposite surfaces (S1, S2) of the second portion is provided with a protrusion projecting away from said surface and positioned between the through hole and the first portion , and the protrusion is spaced away from the first portion . a first portion comprising a receiving end for receiving a high-voltage cable, a second portion extending from the first portion and comprising a through hole configured and arranged such that a stud can be passed therethrough, the through hole extending transversally through two opposite surfaces (S1, S2) of the second portion , characterized in that the receiving end comprises at least one threaded bolt for attaching the high-voltage cable to the cable lug , at least one surface of the two opposite surfaces (S1, S2) of the second portion is provided with a protrusion projecting away from said surface and positioned between the through hole and the first portion , and the protrusion is spaced away from the first portion .
An orthotic device , comprising: a forearm section ; a powered hand portion coupled to a distal end of the forearm section ; a switching element configured to generate one or more input signals for adjusting operation of the powered hand portion ; and a controller configured to receive the input signals and, based on the input signals, generate control signals for the adjusting of the operation of the powered hand portion , wherein the switching element comprises a momentary switch for generating the input signals, and wherein, in response to the input signals indicating a first temporary activation of the momentary switch , the controller configures the control signals to cause the powered hand portion to alternate between an open position and a closed position, characterised in that the controller generates the control signals following a predetermined time delay, wherein the predetermined time delay commences upon release of the momentary switch after the first activation, wherein, in response to the input signals indicating one or more second temporary activations of the momentary switch within the predetermined delay, the controller configures the control signals to cause the powered hand portion to alternate between the open position and the closed position with an amount of force proportional to a number of the one or more second temporary activations. a forearm section ; a powered hand portion coupled to a distal end of the forearm section ; a switching element configured to generate one or more input signals for adjusting operation of the powered hand portion ; and a controller configured to receive the input signals and, based on the input signals, generate control signals for the adjusting of the operation of the powered hand portion , wherein the switching element comprises a momentary switch for generating the input signals, and wherein, in response to the input signals indicating a first temporary activation of the momentary switch , the controller configures the control signals to cause the powered hand portion to alternate between an open position and a closed position, characterised in that the controller generates the control signals following a predetermined time delay, wherein the predetermined time delay commences upon release of the momentary switch after the first activation, wherein, in response to the input signals indicating one or more second temporary activations of the momentary switch within the predetermined delay, the controller configures the control signals to cause the powered hand portion to alternate between the open position and the closed position with an amount of force proportional to a number of the one or more second temporary activations.
Hydrodynamic plain bearing with a rotor and a stator , wherein the rotor is rotatable relative to the stator , wherein a rotor bearing surface faces a counter surface of the stator for hydrodynamic pressure generation in the region of a converging gap, wherein the rotor bearing surface and/or the counter surface , when cut longitudinally and through the axis of rotation (R) in sectional view, form a continuous bearing contour formed of at least two contour sections (13.1 - 13.4, 21.1 - 21.4), the at least two contour sections (13.1 - 13.4, 21.1 - 21.4) being formed as at least one straight line and/or at least one curvature to generate hydrodynamic load carrying capacities in radial and axial direction, wherein the two or more contour sections (13.1 - 13.4, 21.1 - 21.4) of the rotor bearing surface and/or the counter surface bound the rotor bearing surface and/or the mating surface in the direction of the axis of rotation (R) and wherein one or more further contour sections (13.2, 21.2) are arranged between these contour sections (13.1 - 13.4, 21.1 - 21.4) in order to form a continuous continuously differentiable bearing contour. wherein the rotor bearing surface and/or the counter surface , when cut longitudinally and through the axis of rotation (R) in sectional view, form a continuous bearing contour formed of at least two contour sections (13.1 - 13.4, 21.1 - 21.4), the at least two contour sections (13.1 - 13.4, 21.1 - 21.4) being formed as at least one straight line and/or at least one curvature to generate hydrodynamic load carrying capacities in radial and axial direction, wherein the two or more contour sections (13.1 - 13.4, 21.1 - 21.4) of the rotor bearing surface and/or the counter surface bound the rotor bearing surface and/or the mating surface in the direction of the axis of rotation (R) and wherein one or more further contour sections (13.2, 21.2) are arranged between these contour sections (13.1 - 13.4, 21.1 - 21.4) in order to form a continuous continuously differentiable bearing contour.
Method for outputting a manufacturing file for producing an optical element from a curable material by using an additive manufacturing technology, comprising: - acquiring the desired geometry (C0) of the optical element , - obtaining a discretization of the desired geometry (C0) in volume units (U i ) described by data (x, y, z) relative to position parameters of the volume units and to the dimension of the volume units (U i ), further comprising: - associating at least a volume unit (U i ) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i ), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i ) for manufacturing at least the optical element , and - outputting said manufacturing file, wherein, for at least one volume unit (U i ), said kinetic parameter has a value that imposes the curing of the curable material in at least two curing steps and that is such that the solidification is not reached after the first of these two curing steps, each curing step comprising the providing of a non-null energy to said one volume unit (U i ) directly or indirectly through other volume units. - acquiring the desired geometry (C0) of the optical element , - obtaining a discretization of the desired geometry (C0) in volume units (U i ) described by data (x, y, z) relative to position parameters of the volume units and to the dimension of the volume units (U i ), further comprising: - associating at least a volume unit (U i ) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i ), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i ) for manufacturing at least the optical element , and - outputting said manufacturing file, - associating at least a volume unit (U i ) with a kinetic parameter that relates to the curing pace imposed to the curable material of the volume unit (U i ), - producing, using at least one processor, a manufacturing file comprising said data (x, y, z) and said kinetic parameter associated to each volume unit (U i ) for manufacturing at least the optical element , and - outputting said manufacturing file, wherein, for at least one volume unit (U i ), said kinetic parameter has a value that imposes the curing of the curable material in at least two curing steps and that is such that the solidification is not reached after the first of these two curing steps, each curing step comprising the providing of a non-null energy to said one volume unit (U i ) directly or indirectly through other volume units.
A light curing device comprising a base station and a handpiece , the handpiece having a light source , a light-conducting device , especially a light-conducting rod , the light-conducting device having a light entry surface , which extends in the light source emission direction, as viewed adjacent thereto, at least one light sensor which Is arranged adjacent to the light entry surface , and a control device , characterized in that the base station is provided with a second light source and a second light sensor for bidirectional optical communication with the handpiece via the light-conducting device , which bidirectional communication, especially in the visible light or UV light frequency ranges, occurs in a modulated manner.
A method for heating and/or cooling rooms using a hot water room heating system through which, in a heating water circuit connected to a heating boiler , heating water which is heated in a feed line in the heating boiler , flows into a distributor , and the heating water cooled as a result of the release of heat is returned in a return line from a collector to the heating boiler , in which method a gas flow is cooled by means of an extraction of heat as a result of thermal contact with an evaporator of a heat pump circuit and the extracted heat is discharged by means of thermal contact with a condenser of the heat pump circuit, characterised in that , by means of the cooled gas flow, heat is extracted from a first heat accumulator , which is operated in a first temperature range suitable for absorbing heat to cool rooms, and from which water used for cooling purposes is fed into heating circuits connected to the distributor and is returned, in the circuit, from the collector to the first heat accumulator .
A semiconductor device comprising: a substrate having a first conductivity type, the substrate having a top surface and a bottom surface ; a first buried layer disposed in the substrate at a first depth from the top surface, wherein the first buried layer has a second conductivity type and a first doping concentration; a second buried layer adjacent and surrounding the first buried layer at the first depth, wherein the second buried layer has the second conductivity type and a second doping concentration, wherein the second doping concentration is less than the first doping concentration; and an isolation trench disposed in the substrate and surrounding the second buried layer wherein the isolation trench extends from the top surface of the substrate to a second depth, the second depth exceeding the first depth. a substrate having a first conductivity type, the substrate having a top surface and a bottom surface ; a first buried layer disposed in the substrate at a first depth from the top surface, wherein the first buried layer has a second conductivity type and a first doping concentration; a second buried layer adjacent and surrounding the first buried layer at the first depth, wherein the second buried layer has the second conductivity type and a second doping concentration, wherein the second doping concentration is less than the first doping concentration; and an isolation trench disposed in the substrate and surrounding the second buried layer wherein the isolation trench extends from the top surface of the substrate to a second depth, the second depth exceeding the first depth.
An electrode comprising: a resin current collector containing a polymer material and a conductive filler; an active material layer disposed adjacent to the resin current collector ; and a second concavoconvex shape that coincides with a first concavoconvex shape formed on a surface of the active material layer that is in contact with the resin current collector , the second concavoconvex shape being formed on a surface of the resin current collector that is in contact with the active material layer , wherein the active material layer is disposed between the resin current collector and an electrolyte layer , the active material layer comprises a plurality of active materials and a first conductive member continuously arranged from a surface on the resin current collector side to a surface on the electrolyte layer side and having higher electron conductivity than the active material, and in the second concavoconvex shape in the resin current collector , at least a part of a second conductive member that is in electrical contact with the conductive filler exists in the resin current collector beyond the surface of the resin current collector . a resin current collector containing a polymer material and a conductive filler; an active material layer disposed adjacent to the resin current collector ; and a second concavoconvex shape that coincides with a first concavoconvex shape formed on a surface of the active material layer that is in contact with the resin current collector , the second concavoconvex shape being formed on a surface of the resin current collector that is in contact with the active material layer , wherein the active material layer is disposed between the resin current collector and an electrolyte layer , the active material layer comprises a plurality of active materials and a first conductive member continuously arranged from a surface on the resin current collector side to a surface on the electrolyte layer side and having higher electron conductivity than the active material, and in the second concavoconvex shape in the resin current collector , at least a part of a second conductive member that is in electrical contact with the conductive filler exists in the resin current collector beyond the surface of the resin current collector .
A flexible carrier for carrying a plurality of containers, comprising a flexible sheet and a plurality of primary apertures formed in the sheet for receiving portions of the containers, the flexible sheet comprising a polymer composition which includes: about 10% to about 95% by weight of a PCRP that includes recycled branched low-density polyethylene and recycled linear low-density polyethylene polymers; zero to about 90% by weight of a branched low-density polyethylene polymer that has not been recycled, having a density of about 0.910 to about 0.950 grams/cm 3 ; and greater than zero to about 65% by weight of an elastomeric ethylene copolymer that includes about 60% by weight to less than 100% by weight ethylene and greater than zero to about 40% by weight of a vinyl acetate comonomer. about 10% to about 95% by weight of a PCRP that includes recycled branched low-density polyethylene and recycled linear low-density polyethylene polymers; zero to about 90% by weight of a branched low-density polyethylene polymer that has not been recycled, having a density of about 0.910 to about 0.950 grams/cm 3 ; and greater than zero to about 65% by weight of an elastomeric ethylene copolymer that includes about 60% by weight to less than 100% by weight ethylene and greater than zero to about 40% by weight of a vinyl acetate comonomer.
Receiving space of a galley for the storage of rollable containers in a vehicle, having a receiving system with at least one transfer plate and at least one container which can be positioned on the transfer plate and has a rear container wall characterised by : - a rail system in the bottom region of the receiving space , - the transfer plate movable on the rail system in the floor region of the receiving space and occupying a storage position and a removal position for the container , - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container equipped with transport rollers into the receiving space , arranged opposite the rear wall , - the rail system has at least one guide rail which is arranged on the floor of the receiving space in the direction of movement of the transfer plate , and - moving bodies are arranged on the transfer plate engaging in the at least one guide rail . - a rail system in the bottom region of the receiving space , - the transfer plate movable on the rail system in the floor region of the receiving space and occupying a storage position and a removal position for the container , - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container equipped with transport rollers into the receiving space , arranged opposite the rear wall , - the rail system has at least one guide rail which is arranged on the floor of the receiving space in the direction of movement of the transfer plate , and - moving bodies are arranged on the transfer plate engaging in the at least one guide rail .
A tubular container with an applicator unit comprising: a tube body storing contents; a tube neck coupled to an upper portion of the tube body and supporting the tube body , and provided with a nozzle extending to an upper direction from the center portion of the tube body such that contents stored in the tube body can be discharged to the outside; an applicator unit detachably coupled to an inner side of the tube neck , further provided with an application surface which applies contents onto user's skin, a refrigerant storage part where refrigerant (M) is stored for maintaining coldness of the application surface , and a discharge hole through which contents moving through the nozzle are discharged; a sealing cap coupled to as encasing a lower portion of the applicator unit and sealing a lower end opened of the refrigerant storage part ; and an over cap detachably coupled to the tube neck as encasing the applicator unit . characterized in that at an inner side of the tube neck is formed a reception groove receiving a lower portion of the applicator unit such that only an application surface of the applicator unit can be exposed to the outside. a tube body storing contents; a tube neck coupled to an upper portion of the tube body and supporting the tube body , and provided with a nozzle extending to an upper direction from the center portion of the tube body such that contents stored in the tube body can be discharged to the outside; an applicator unit detachably coupled to an inner side of the tube neck , further provided with an application surface which applies contents onto user's skin, a refrigerant storage part where refrigerant (M) is stored for maintaining coldness of the application surface , and a discharge hole through which contents moving through the nozzle are discharged; a sealing cap coupled to as encasing a lower portion of the applicator unit and sealing a lower end opened of the refrigerant storage part ; and an over cap detachably coupled to the tube neck as encasing the applicator unit . characterized in that at an inner side of the tube neck is formed a reception groove receiving a lower portion of the applicator unit such that only an application surface of the applicator unit can be exposed to the outside.