mhurhangee/patent-ind-claim-en huggingface dataset:
A middle frame assembly for electronic devices such as cell phones, laptops, personal digital assistants and the like, comprising: a middle frame comprising a metal substrate and a non-metal substrate connected together; and an antenna radiator disposed at a fringe of the metal substrate , wherein the antenna radiator defines an escape space through the antenna radiator and configured to receive a functional component ; wherein, there is a gap between the antenna radiator and the metal substrate , the non-metal substrate is filled in the gap to integrally connect the antenna radiator with the metal substrate ; the escape space comprises at least one escape slot defined in the antenna radiator , and the at least one escape slot extends through the antenna radiator ; the metal substrate defines a receiving slot which is communicated to the at least one escape slot ; the escape space comprises a first bottom wall and two side walls cooperatively defining the at least one escape slot , a second bottom wall of the receiving slot is located in a same plane as the first bottom wall of the at least one escape slot ; the receiving slot and the at least one escape slot are configured to cooperatively receive the functional component . a middle frame comprising a metal substrate and a non-metal substrate connected together; and an antenna radiator disposed at a fringe of the metal substrate , wherein the antenna radiator defines an escape space through the antenna radiator and configured to receive a functional component ; wherein, there is a gap between the antenna radiator and the metal substrate , the non-metal substrate is filled in the gap to integrally connect the antenna radiator with the metal substrate ; the escape space comprises at least one escape slot defined in the antenna radiator , and the at least one escape slot extends through the antenna radiator ; the metal substrate defines a receiving slot which is communicated to the at least one escape slot ; the escape space comprises a first bottom wall and two side walls cooperatively defining the at least one escape slot , a second bottom wall of the receiving slot is located in a same plane as the first bottom wall of the at least one escape slot ; the receiving slot and the at least one escape slot are configured to cooperatively receive the functional component .
A method of producing a chemical product from a reaction mixture containing at least two components, comprising: I) providing a data set comprising a plurality of production instances, each production instance comprising data on (a) the composition of the reaction mixture and/or process conditions, (b) at least one climate parameter at the production site of the product, and (c) at least one target physical property of the product; II) generating a regression model for each target physical property of the product using the data set, wherein in the regression model a respective target physical property is the dependent variable and at least part of the other data in the data set, excluding any remaining target physical properties, are independent variables; III) transforming each regression model to obtain a transformed regression model where a) the composition of the reaction mixture and/or b) the process conditions of a reaction depends on at least one climate parameter at the production site of the product and each target physical property is assigned a desired value; IV) combining the transformed regression models to obtain a combined regression model; V) measuring, at the production site, the at least one climate parameter used in the combined regression model; VI) calculating a) the composition of the reaction mixture and/or b) the process conditions for the reaction, using the combined regression model and the at least one measured climate parameter; VII) composing the reaction mixture and/or process conditions according the calculation; and VIII) reacting the reaction mixture to obtain the chemical product. I) providing a data set comprising a plurality of production instances, each production instance comprising data on (a) the composition of the reaction mixture and/or process conditions, (b) at least one climate parameter at the production site of the product, and (c) at least one target physical property of the product; II) generating a regression model for each target physical property of the product using the data set, wherein in the regression model a respective target physical property is the dependent variable and at least part of the other data in the data set, excluding any remaining target physical properties, are independent variables; III) transforming each regression model to obtain a transformed regression model where a) the composition of the reaction mixture and/or b) the process conditions of a reaction depends on at least one climate parameter at the production site of the product and each target physical property is assigned a desired value; IV) combining the transformed regression models to obtain a combined regression model; V) measuring, at the production site, the at least one climate parameter used in the combined regression model; VI) calculating a) the composition of the reaction mixture and/or b) the process conditions for the reaction, using the combined regression model and the at least one measured climate parameter; VII) composing the reaction mixture and/or process conditions according the calculation; and VIII) reacting the reaction mixture to obtain the chemical product.
A denture adhesive composition, comprising: a) a denture adhesive component in an amount from about 20.0 % to about 70.0% by weight of the denture adhesive composition; wherein the denture adhesive component consists of a mixture of a partial salt of a copolymer of methyl vinyl ether-maleic acid or anhydride and sodium carboxy methyl cellulose; and b) a cohesion builder component in an amount from about 0.001% to about 10% by weight of the denture adhesive composition; wherein the cohesion builder component is di-basic sodium phosphate. a) a denture adhesive component in an amount from about 20.0 % to about 70.0% by weight of the denture adhesive composition; wherein the denture adhesive component consists of a mixture of a partial salt of a copolymer of methyl vinyl ether-maleic acid or anhydride and sodium carboxy methyl cellulose; and b) a cohesion builder component in an amount from about 0.001% to about 10% by weight of the denture adhesive composition; wherein the cohesion builder component is di-basic sodium phosphate.
A medical radially expandable introducer sheath , comprising: a tubular member comprising an inner layer and an outer layer coaxially disposed about a central longitudinal axis of the introducer sheath , the tubular member being configured to shift between an unexpanded configuration to an expanded configuration; wherein the inner layer is circumferentially discontinuous along at least a portion of its length; wherein at least a first portion of the inner layer is configured to move circumferentially relative to the outer layer when shifting between the unexpanded and expanded configurations, wherein the inner layer comprises a plurality of longitudinally-oriented elements , wherein the plurality of longitudinally-oriented elements at least partially circumferentially overlap each other in the unexpanded configuration, wherein the plurality of longitudinally-oriented elements circumferentially overlap each other less as the tubular member shifts from the unexpanded configuration toward the expanded configuration, characterized in that the plurality of longitudinally-oriented elements is circumferentially spaced apart from each other in the expanded configuration. a tubular member comprising an inner layer and an outer layer coaxially disposed about a central longitudinal axis of the introducer sheath , the tubular member being configured to shift between an unexpanded configuration to an expanded configuration; wherein the inner layer is circumferentially discontinuous along at least a portion of its length; wherein at least a first portion of the inner layer is configured to move circumferentially relative to the outer layer when shifting between the unexpanded and expanded configurations, wherein the inner layer comprises a plurality of longitudinally-oriented elements , wherein the plurality of longitudinally-oriented elements at least partially circumferentially overlap each other in the unexpanded configuration, wherein the plurality of longitudinally-oriented elements circumferentially overlap each other less as the tubular member shifts from the unexpanded configuration toward the expanded configuration, characterized in that the plurality of longitudinally-oriented elements is circumferentially spaced apart from each other in the expanded configuration.
Method for producing a blade for a turbomachine, comprising at least the following steps: - providing a monocrystalline or polycrystalline main body having a support surface and additively constructing an airfoil of the blade on the support surface by fusing and/or sintering, in layers, a metal and/or ceramic powder made of a first material or material mixture; and - separating the airfoil from the support surface of the main body at a separating surface of the airfoil . - providing a monocrystalline or polycrystalline main body having a support surface and additively constructing an airfoil of the blade on the support surface by fusing and/or sintering, in layers, a metal and/or ceramic powder made of a first material or material mixture; and - separating the airfoil from the support surface of the main body at a separating surface of the airfoil .
A method for the manufacture of polymeric sulfur, the polymeric sulfur being a sulfur compound comprising a mixture of chain-like macromolecules of sulfur atoms and homocyclic rings of S n sulfur atoms, wherein n is greater than 24, comprising reacting a metallasulfur derivative with an oxidizing agent in a reaction zone to form polymeric sulfur in a polymeric sulfur-containing reaction mixture, wherein the metallasulfur derivative comprises one or more of: copper, zinc, iron, nickel, cobalt, molybdenum, manganese, chromium, titanium, zirconium, hafnium, cadmium, mercury, rhodium, platinum, palladium, gold silver, or iridium characterized in that the stoichiometric ratio of the oxidizing agent to the metallasulfur derivative is selected so that less than one equivalent of the oxidizing agent is present for every two M-S bonds in the metallasulfur derivative.
A device for testing parameters relating to at least one bearing, characterised in that it comprises at least: (a) a rotor, (b) a drive shaft connected to the rotor, (c) at least one bearing to be tested , (d) a housing , (e) an external bearing , the bearing to be tested being fixed around the drive shaft and fitted into the housing , the external bearing being arranged around the housing so that the housing is free to rotate around the bearing to be tested , and (f) a tilt measurement apparatus comprising an electronic tilt sensor attached to the housing and arranged to measure and record an angular position of the electronic tilt sensor at regular intervals. (a) a rotor, (b) a drive shaft connected to the rotor, (c) at least one bearing to be tested , (d) a housing , (e) an external bearing , the bearing to be tested being fixed around the drive shaft and fitted into the housing , the external bearing being arranged around the housing so that the housing is free to rotate around the bearing to be tested , and (f) a tilt measurement apparatus comprising an electronic tilt sensor attached to the housing and arranged to measure and record an angular position of the electronic tilt sensor at regular intervals.
An electrically heated smoking system for receiving an aerosol-forming substrate , the system comprising: at least one heater for heating the aerosol-forming substrate to form an aerosol, a power supply for supplying power to the heater, the heater comprising one or more electrically conductive tracks on an electrically insulating substrate , the one or more electrically conductive tracks comprising a plurality of portions, each portion being separately connectable to the power supply, electronic circuitry arranged to control supply of power from the power supply to the at least one heater so that different portions of the one or more electrically conductive tracks are heated for different durations, or to different temperatures, or both for different durations and different temperatures. at least one heater for heating the aerosol-forming substrate to form an aerosol, a power supply for supplying power to the heater, the heater comprising one or more electrically conductive tracks on an electrically insulating substrate , the one or more electrically conductive tracks comprising a plurality of portions, each portion being separately connectable to the power supply, electronic circuitry arranged to control supply of power from the power supply to the at least one heater so that different portions of the one or more electrically conductive tracks are heated for different durations, or to different temperatures, or both for different durations and different temperatures.
A cooling system with a two-phase refrigerant, comprising - a condenser arranged to cool the two-phase refrigerant and to convert gaseous refrigerant into liquid refrigerant; - an evaporator integrated in or thermally coupled to a heat source and adapted to heat the two-phase refrigerant, whereby at least a portion of the refrigerant vaporises into gaseous refrigerant; - a conveying device configured to convey the two-phase refrigerant from the condenser to the evaporator ; - a generator arranged to generate electricity; - an expander fluidly connected downstream of the evaporator to the evaporator and arranged to expand the gaseous refrigerant from the evaporator , to generate mechanical energy and to drive the generator , characterised by - a first collecting container configured to collect the liquid and gaseous refrigerant from the evaporator ; - a first discharge line (P21) arranged to discharge the gaseous refrigerant from the first collecting container and which fluidically connects the first collecting container to the expander ; - a first control valve configured to control a flow rate of the gaseous refrigerant through the first discharge line (P21), a controller configured to control the first control valve such that the gaseous refrigerant supplied to the expander is superheated by the controller establishing and maintaining a pressure of the gaseous refrigerant in the first discharge line (P21) downstream of the first control valve that prevents condensation of the gaseous refrigerant. - a condenser arranged to cool the two-phase refrigerant and to convert gaseous refrigerant into liquid refrigerant; - an evaporator integrated in or thermally coupled to a heat source and adapted to heat the two-phase refrigerant, whereby at least a portion of the refrigerant vaporises into gaseous refrigerant; - a conveying device configured to convey the two-phase refrigerant from the condenser to the evaporator ; - a generator arranged to generate electricity; - an expander fluidly connected downstream of the evaporator to the evaporator and arranged to expand the gaseous refrigerant from the evaporator , to generate mechanical energy and to drive the generator , - a first collecting container configured to collect the liquid and gaseous refrigerant from the evaporator ; - a first discharge line (P21) arranged to discharge the gaseous refrigerant from the first collecting container and which fluidically connects the first collecting container to the expander ; - a first control valve configured to control a flow rate of the gaseous refrigerant through the first discharge line (P21),
Method for positioning a moulding on a motor vehicle component , in particular on a window guide of a motor vehicle, comprising the steps: - fastening the moulding to the motor vehicle component , - attaching an end piece (7; 7'; 7") to the motor vehicle component and the free end of the moulding so that the end piece (7; 7'; 7") impinges the free end of the moulding into a target position, wherein after fastening the moulding and before attaching the end piece (7; 7'; 7"), the deviation of at least one free end of the moulding from a target position is determined, and the end piece (7; 7'; 7") having an offset according to the deviation determined is selected. - fastening the moulding to the motor vehicle component , - attaching an end piece (7; 7'; 7") to the motor vehicle component and the free end of the moulding so that the end piece (7; 7'; 7") impinges the free end of the moulding into a target position,
A camera module autofocus actuator comprising: - a fixed support member (1; 1'), - a movable lens carrier (2; 2') slidingly received on said fixed support member (1; 1') so as to move along an optical axis (A), - one or more shape memory alloy wires (4; 7) arranged to be activated so as to cause said movable lens carrier (2; 2') to move along said optical axis (A) in a first direction, - a first return elastic element (3; 5; 6; 8) mounted between the support member (1; 1') and the lens carrier (2; 2') so as to exert a return force only in parallel to the optical axis (A) in a second direction opposite to said first direction determined by the activation of said one or more shape memory alloy wires (4; 7), - at least a second return elastic element (3; 5; 6; 8) substantially identical to and mounted in the same way as said first return elastic element (3; 5; 6; 8), said return elastic elements (3; 5; 6; 8) being arranged at symmetrically opposite positions with respect to the optical axis (A), said actuator being characterized in that - each of the one or more shape memory alloy wires (4; 7) is mounted with a first end directly secured mechanically without any interposed element to one of the return elastic elements (3; 5; 6; 8) and a second end directly secured mechanically without any interposed element to any of - the same return elastic element (3; 5; 6; 8) to which said first end is secured, or - another return elastic element (3; 5; 6; 8), or - the support member (1; 1'), so as to cause said movement of the lens carrier (2; 2') in the first direction through a mechanical action of the return elastic elements (3; 5; 6; 8) resulting from a deformation thereof upon activation of the one or more shape memory alloy wires (4; 7). - a fixed support member (1; 1'), - a movable lens carrier (2; 2') slidingly received on said fixed support member (1; 1') so as to move along an optical axis (A), - one or more shape memory alloy wires (4; 7) arranged to be activated so as to cause said movable lens carrier (2; 2') to move along said optical axis (A) in a first direction, - a first return elastic element (3; 5; 6; 8) mounted between the support member (1; 1') and the lens carrier (2; 2') so as to exert a return force only in parallel to the optical axis (A) in a second direction opposite to said first direction determined by the activation of said one or more shape memory alloy wires (4; 7), - at least a second return elastic element (3; 5; 6; 8) substantially identical to and mounted in the same way as said first return elastic element (3; 5; 6; 8), said return elastic elements (3; 5; 6; 8) being arranged at symmetrically opposite positions with respect to the optical axis (A), - each of the one or more shape memory alloy wires (4; 7) is mounted with a first end directly secured mechanically without any interposed element to one of the return elastic elements (3; 5; 6; 8) and a second end directly secured mechanically without any interposed element to any of - the same return elastic element (3; 5; 6; 8) to which said first end is secured, or - another return elastic element (3; 5; 6; 8), or - the support member (1; 1'),
Exhaust device , in particular for laboratory spaces, comprising: - a case enclosing a working space having sidewalls and a top wall , wherein at least one of the sidewalls comprises a movable window slide ; - a controllable suction device (120; 120') to guide air from the working space by means of at least one exhaust air outlet (123; 123') into an exhaust air system, wherein the suction device (120; 120') comprises at least two air inlet ports (124, 125, 126; 124', 125', 126') which are separated from each other and which are fluidly connected to different portions of the working space and the volume flows thereof are configurable and controllable independently from each other, wherein the volume flows of the air inlet openings (124, 125, 126; 124', 125', 126') and the proportion of the volume flows to each other is controlled depending on operating parameters which are detected by means of sensor means, wherein the exhaust air volume flow and the air distribution in the working space are controllable by the air inlet ports (124, 125, 126; 124', 125', 126'), wherein at least one of the air inlet ports (126; 126') is fluidly connected to a lower portion, and at least one of the air inlet ports (124, 125; 124', 125') is fluidly connected to an upper portion of the working space in order to guide air from the working space to said portions, respectively. - a case enclosing a working space having sidewalls and a top wall , wherein at least one of the sidewalls comprises a movable window slide ; - a controllable suction device (120; 120') to guide air from the working space by means of at least one exhaust air outlet (123; 123') into an exhaust air system, wherein the suction device (120; 120') comprises at least two air inlet ports (124, 125, 126; 124', 125', 126') which are separated from each other and which are fluidly connected to different portions of the working space and the volume flows thereof are configurable and controllable independently from each other, wherein the volume flows of the air inlet openings (124, 125, 126; 124', 125', 126') and the proportion of the volume flows to each other is controlled depending on operating parameters which are detected by means of sensor means, wherein the exhaust air volume flow and the air distribution in the working space are controllable by the air inlet ports (124, 125, 126; 124', 125', 126'), wherein at least one of the air inlet ports (126; 126') is fluidly connected to a lower portion, and at least one of the air inlet ports (124, 125; 124', 125') is fluidly connected to an upper portion of the working space in order to guide air from the working space to said portions, respectively.