mhurhangee/patent-ind-claim-en huggingface dataset:
Rigid panel suitable for constructing a waterproof floor or wall covering, wherein the panel has a substantially planar top surface, a substantially planar bottom surface, and at least four substantially linear side edges, wherein the rigid panel has a laminate structure which comprises: - a rigid core layer basically composed of a composite material comprising a mixture of mineral material and thermoplastic material, the composite material containing a ratio of weight percentages of mineral material relative to thermoplastic material which is 1 or larger and having a density situated in between 1500 and 2200 kg/m3; - a top layer fixed to the core layer, characterized in that the top layer comprises a high pressure laminate of plural layers comprising at least one kraft paper layer; wherein the composite material comprises at least 60% by weight of mineral filler and a maximum of 85% by weight of mineral filler and at least 15% by weight of thermoplastic material, and wherein the modulus of elasticity of the panel, measured according to EN 310:1993, is situated in between 4.000 to 10.000 MPa. - a rigid core layer basically composed of a composite material comprising a mixture of mineral material and thermoplastic material, the composite material containing a ratio of weight percentages of mineral material relative to thermoplastic material which is 1 or larger and having a density situated in between 1500 and 2200 kg/m3; - a top layer fixed to the core layer,
A lithium ion secondary battery comprising: a current collector; an electrode including a cathode or an anode that is provided on at least one surface of the current collector; a separator that separates the cathode and the anode from each other; a porous insulating layer that is formed between the cathode and the separator; and a non-aqueous electrolyte, wherein the porous insulating layer is formed of a binding material containing polyvinylidene fluoride and a melting point lowering agent, wherein the melting point lowering agent is a copolymer of a vinylidene fluoride monomer and another fluorine-containing monomer or an oxygen-containing monomer, and a content of the melting point lowering agent contained in the binding material is from 1 to 50% by mass, and wherein the melting point lowering agent lowers one or more of a melting start temperature or a melting peak temperature of the binding material, which is measured by differential scanning calorimetry in accordance with JIS 7121 under coexistence with the non-aqueous electrolyte, as compared to a case of using only polyvinylidene fluoride. a current collector; an electrode including a cathode or an anode that is provided on at least one surface of the current collector; a separator that separates the cathode and the anode from each other; a porous insulating layer that is formed between the cathode and the separator; and a non-aqueous electrolyte, wherein the porous insulating layer is formed of a binding material containing polyvinylidene fluoride and a melting point lowering agent, wherein the melting point lowering agent is a copolymer of a vinylidene fluoride monomer and another fluorine-containing monomer or an oxygen-containing monomer, and a content of the melting point lowering agent contained in the binding material is from 1 to 50% by mass, and wherein the melting point lowering agent lowers one or more of a melting start temperature or a melting peak temperature of the binding material, which is measured by differential scanning calorimetry in accordance with JIS 7121 under coexistence with the non-aqueous electrolyte, as compared to a case of using only polyvinylidene fluoride.
A medical injector comprising: a body ; a cartridge at least partially disposed within the body for accommodating first and second mixable components ; and a needle mount disposed on the cartridge , said cartridge being movable relative to said body , said needle mount having features for mounting a needle thereto, characterized in that , said needle mount is transitionable, with relative movement between said body and said cartridge , from an initial state, wherein said features are completely disposed within said body to an extended state, wherein said features extend at least partially from said body . a body ; a cartridge at least partially disposed within the body for accommodating first and second mixable components ; and a needle mount disposed on the cartridge , said cartridge being movable relative to said body , said needle mount having features for mounting a needle thereto, characterized in that , said needle mount is transitionable, with relative movement between said body and said cartridge , from an initial state, wherein said features are completely disposed within said body to an extended state, wherein said features extend at least partially from said body .
An immunogenic composition comprising a PSE21-5 (PA5112) antigen.
Launch device for a missile (F), comprising: a launching tube, extending in a longitudinal direction (L), for receiving the missile (F), which has an exit opening at a first end ; and an acceleration means arranged in the region of a second end of the launching tube and having a gas generator , which can be activated to generate a gas mass flow, and a sack , which is formed from a textile fabric, is coupled via an end opening to a diffusor of the gas generator , and can be inflated, by the gas mass flow which can be generated using the gas generator , to accelerate the missile (F) along the longitudinal direction (L), a cross section (d21) of the sack in an inflated state tapering along the longitudinal direction (L) from the end opening to a minimum cross section and increasing again until an end located opposite the end opening . a launching tube, extending in a longitudinal direction (L), for receiving the missile (F), which has an exit opening at a first end ; and an acceleration means arranged in the region of a second end of the launching tube and having a gas generator , which can be activated to generate a gas mass flow, and a sack , which is formed from a textile fabric, is coupled via an end opening to a diffusor of the gas generator , and can be inflated, by the gas mass flow which can be generated using the gas generator , to accelerate the missile (F) along the longitudinal direction (L), a cross section (d21) of the sack in an inflated state tapering along the longitudinal direction (L) from the end opening to a minimum cross section and increasing again until an end located opposite the end opening .
A mucoadhesive sustained-release vaginal tablet, characterized in that it is essentially constituted of from 10 9 to 10 11 CFU of at least one probiotic strain of the genus Lactobacillus per gram of tablet compressed with from 10 to 30% by weight, relative to the total weight of the tablet, of an excipient suitable for conferring upon said tablet its properties of vaginal wall mucoadhesion and sustained release, said excipient consisting of hydroxypropylmethylcellulose with a dynamic viscosity greater than 10 000 mPa.s, and the at least one probiotic strain and said excipient being compressed with a compressive stress of from 50 to 400 MPa.
A photovoltaic installation comprising a plurality of solar modules interconnected in series and/or in parallel, wherein each of the plurality of solar modules comprises: - a series circuit of solar cells , - a switch , being arranged in parallel with a section of the series circuit, and - an actuation circuit of the switch , characterized in that the actuation circuit is configured for clocked actuation of the switch with a duty cycle, wherein the duty cycle is determined depending on a voltage dropped at the series circuit or a portion of the series circuit by the actuation circuit with opened switch . - a series circuit of solar cells , - a switch , being arranged in parallel with a section of the series circuit, and - an actuation circuit of the switch ,
A component of a tank of a liquid, in particular a reducing agent for an internal-combustion engine exhaust-gas treatment system , the tank component having a body designed to be positioned in a fluid-tight way at an opening of the tank , the tank component incorporating a plurality of functional devices for management of the liquid to be delivered from the tank , wherein the body of the tank component is a body moulded with a plastic material chemically resistant to the liquid and is provided with at least one passageway for the liquid; wherein the plurality of functional devices comprises a pump and a pressure sensor having a pressure-sensitive element ; wherein the passageway comprises a delivery path (64-65) for the liquid, which is defined at least in part in a first wall of the body of the tank component and has an inlet end configured for connection to a delivery duct of the pump ; characterized in that : - defined at an outer side of the first wall is at least one seat (75, 81; 60) for at least one part of the pressure sensor ; - moreover defined in the first wall is at least one passage (60, 79a; 60, 60b) for setting the delivery path (64-65) for the liquid in fluid communication with the sensitive element of the pressure sensor ; and - the sensitive element has a deformable membrane , and the at least one seat (75, 81; 60) comprises a positioning seat for the sensitive element . wherein the body of the tank component is a body moulded with a plastic material chemically resistant to the liquid and is provided with at least one passageway for the liquid; wherein the plurality of functional devices comprises a pump and a pressure sensor having a pressure-sensitive element ; wherein the passageway comprises a delivery path (64-65) for the liquid, which is defined at least in part in a first wall of the body of the tank component and has an inlet end configured for connection to a delivery duct of the pump ; characterized in that : - defined at an outer side of the first wall is at least one seat (75, 81; 60) for at least one part of the pressure sensor ; - moreover defined in the first wall is at least one passage (60, 79a; 60, 60b) for setting the delivery path (64-65) for the liquid in fluid communication with the sensitive element of the pressure sensor ; and - the sensitive element has a deformable membrane , and the at least one seat (75, 81; 60) comprises a positioning seat for the sensitive element . - defined at an outer side of the first wall is at least one seat (75, 81; 60) for at least one part of the pressure sensor ; - moreover defined in the first wall is at least one passage (60, 79a; 60, 60b) for setting the delivery path (64-65) for the liquid in fluid communication with the sensitive element of the pressure sensor ; and - the sensitive element has a deformable membrane , and the at least one seat (75, 81; 60) comprises a positioning seat for the sensitive element .
A 3D printer head for ejecting a multi-molding melt , said printer head being adapted to receive a molding filament and molding pellets , the 3D printer head comprising: a filament supply unit supplying the molding filament ; a pellet supply unit supplying the molding pellets ; a nozzle pipe in which a penetration portion is provided therein in a longitudinal direction, wherein the molding pellets are supplied from the pellet supply unit , and the molding pellets move; a rotary screw which is disposed in the penetration portion of the nozzle pipe , wherein said rotary screw is adapted to advance the molding pellets to one end of the nozzle pipe by rotation, and has a filament supply path through which the molding filament is supplied, said filament supply path being formed in said rotary screw in a longitudinal direction; a heating portion adapted to melt the molding pellets and the molding filament by heating the nozzle pipe , thus forming the multi-molding melt ; and a nozzle tip which is connected to one end of the nozzle pipe ( and is adapted to eject the molding melt , wherein the heating portion includes a plurality of heating units disposed to be spaced apart from each other in a longitudinal direction of the nozzle pipe , and in that the 3D printer head further comprises a head weight measuring unit adapted to measure the weight of the 3D printer head . a filament supply unit supplying the molding filament ; a pellet supply unit supplying the molding pellets ; a nozzle pipe in which a penetration portion is provided therein in a longitudinal direction, wherein the molding pellets are supplied from the pellet supply unit , and the molding pellets move; a rotary screw which is disposed in the penetration portion of the nozzle pipe , wherein said rotary screw is adapted to advance the molding pellets to one end of the nozzle pipe by rotation, and has a filament supply path through which the molding filament is supplied, said filament supply path being formed in said rotary screw in a longitudinal direction; a heating portion adapted to melt the molding pellets and the molding filament by heating the nozzle pipe , thus forming the multi-molding melt ; and a nozzle tip which is connected to one end of the nozzle pipe ( and is adapted to eject the molding melt , wherein the heating portion includes a plurality of heating units disposed to be spaced apart from each other in a longitudinal direction of the nozzle pipe , and in that the 3D printer head further comprises a head weight measuring unit adapted to measure the weight of the 3D printer head .
A system for outputting an altered audio signal, the system comprising: - means for providing a noise reducing signal, - means for providing or receiving an audio signal, - means for outputting an altered audio signal based on the audio signal and the noise reducing signal, and means for limiting the altered audio signal; whereby the outputting means is adapted to o limit the noise reducing signal and the audio signal, o provide the altered audio signal by combining: • the limited audio signal with the limited noise reducing signal, wherein the outputting means are adapted to: - limit the audio signal so as to have a level/strength no higher than a first predetermined level/strength and the system characterized in that the outputting means is adapted to - limit the noise reducing signal so that the combined, limited audio signal and noise reducing signal have a level/strength no higher than a second, predetermined level/strength, wherein the first predetermined level/strength is lower than the second predetermined level/strength. - means for providing a noise reducing signal, - means for providing or receiving an audio signal, - means for outputting an altered audio signal based on the audio signal and the noise reducing signal, and means for limiting the altered audio signal; o limit the noise reducing signal and the audio signal, o provide the altered audio signal by combining: • the limited audio signal with the limited noise reducing signal, wherein the outputting means are adapted to: - limit the audio signal so as to have a level/strength no higher than a first predetermined level/strength and the system characterized in that the outputting means is adapted to - limit the noise reducing signal so that the combined, limited audio signal and noise reducing signal have a level/strength no higher than a second, predetermined level/strength, • the limited audio signal with the limited noise reducing signal, wherein the outputting means are adapted to: - limit the audio signal so as to have a level/strength no higher than a first predetermined level/strength and the system characterized in that the outputting means is adapted to - limit the noise reducing signal so that the combined, limited audio signal and noise reducing signal have a level/strength no higher than a second, predetermined level/strength, - limit the audio signal so as to have a level/strength no higher than a first predetermined level/strength and the system characterized in that the outputting means is adapted to - limit the noise reducing signal so that the combined, limited audio signal and noise reducing signal have a level/strength no higher than a second, predetermined level/strength,
A link processing method applied in a network comprising a first device and two or more second devices, the first device being communicatively connected with each of the second devices via independent wireless links, wherein there is one link between the first device and each of the second device; the method comprising: sending (S201), by the first device, a connection parameter updating request to at least one of the second devices; receiving (S202), by the first device, connection parameter updating confirmation information fed back by the second device in response to the connection parameter updating request; the method is characterized by determining (S204), according to a time-domain instantaneous reference point and a window moving distance, a time-domain moving position of a link anchor point when the second device confirms the connection parameter updating request; adjusting (S205) a connection parameter of the link according to the moving position of the link anchor point, wherein the adjusting comprises: adjusting a bandwidth duty cycle of a connection event and/or a connection interval of the link by starting from the moving position of the link anchor point, so that a sum of lengths of connection events on all the links is not greater than a minimum connection interval among the links; adding (S206) the window moving distance to a connection parameter updating notification package, and sending the connection parameter updating notification package to the second device. sending (S201), by the first device, a connection parameter updating request to at least one of the second devices; receiving (S202), by the first device, connection parameter updating confirmation information fed back by the second device in response to the connection parameter updating request; the method is characterized by determining (S204), according to a time-domain instantaneous reference point and a window moving distance, a time-domain moving position of a link anchor point when the second device confirms the connection parameter updating request; adjusting (S205) a connection parameter of the link according to the moving position of the link anchor point, wherein the adjusting comprises: adjusting a bandwidth duty cycle of a connection event and/or a connection interval of the link by starting from the moving position of the link anchor point, so that a sum of lengths of connection events on all the links is not greater than a minimum connection interval among the links; adding (S206) the window moving distance to a connection parameter updating notification package, and sending the connection parameter updating notification package to the second device.
A sulfur-based active electrode material prepared by baking a starting material comprising sulfur and particles composed of a shell which comprises a polymer including methacrylonitrile as a monomer component and contains hydrocarbon therein.
A door leaf being configured and provided for use in a wagon of a mass transportation vehicle, having an outside face , an inside face , a height and a width and comprising an outer door leaf layer (10; 10') at least partially forming the outside face and an inner door leaf layer (11; 11') at least partially forming the inside face , the outer and inner door leaf layers (10, 11; 10', 11') being arranged with respect to one another so as to form an inner space therebetween, characterized in that at least one of the outer and inner door leaf layers (10, 11; 10', 11') substantially extends over the entire height and/or the entire width of the door leaf (1; 1') and is formed in one piece, wherein at least the one of the outer and inner door leaf layers (10, 11; 10', 11') is made by deep-drawing or thermoforming a planar sheet polymer material.
A method of operating a fire control system , comprising: receiving, at a gateway device , first operational data of a first format from a control panel during a learning phase over a period of time that includes one or more alarms; determining a model (220-1) associated with the control panel based on the first operational data , wherein the model (220-1) includes correlations between the first operational data and alarm information of a second format, the alarm information including descriptions of the one or more alarms; receiving second operational data of the first format from the control panel ; and determining alarm information of the second format associated with the second operational data based on the model (220-1). receiving, at a gateway device , first operational data of a first format from a control panel during a learning phase over a period of time that includes one or more alarms; determining a model (220-1) associated with the control panel based on the first operational data , wherein the model (220-1) includes correlations between the first operational data and alarm information of a second format, the alarm information including descriptions of the one or more alarms; receiving second operational data of the first format from the control panel ; and determining alarm information of the second format associated with the second operational data based on the model (220-1).
A catalyst for manufacturing an unsaturated aldehyde and/or an unsaturated carboxylic acid, comprising a compound represented by the following formula , the compound being prepared by a method in which in a step of preparing the compound represented by the following formula , a molybdenum component raw material is composed of only an ammonium molybdate, a weight of water for dissolution is 4.0 times or more and 8.5 times or less relative to a weight of molybdenum contained in the ammonium molybdate; and a bismuth component raw material is composed of only bismuth nitrate, a weight of a nitric acid aqueous solution for dissolution is 2.3 times or more relative to a weight of bismuth contained in the bismuth nitrate, and a nitric acid concentration in the nitric acid aqueous solution for dissolving the bismuth nitrate is 10% by weight or more: Mo 12 Bi a Fe b Co c Ni d X e Y f Z g O h Formula wherein X is at least one element selected from the group consisting of magnesium (Mg), calcium (Ca), manganese (Mn), copper (Cu), zinc (Zn), cerium (Ce), and samarium (Sm); Y is at least one element selected from the group consisting of boron (B), phosphorus (P), arsenic (As), antimony (Sb), and tungsten (W); Z is at least one element selected from the group consisting of sodium (Na), potassium (K), rubidium (Rb), and cesium (Cs); a to g represent atomic ratios of the respective components; h is a numerical value determined by oxidation degrees of the catalyst components; a = 0.40 or more and less than 0.80; b = 1.0 to 2.5; c = 4.5 to 7.5; d = 1.6 to 3.5; e = 0 to 10; f = 0 to 10; g = 0.015 to 0.12; h is expressed by the numerical value satisfying the oxidation states of other elements; d/a is more than 2.0 and 8.8 or less; d/g is 14 or more and 100 or less; and a/g is 3.5 or more and less than 53.3.