mhurhangee/patent-ind-claim-en huggingface dataset:
Gas burner for a household cooking appliance , having a burner casing that comprises a plurality of mixture outlet openings from which, during operation of the gas burner , a mixture of combustion gas and primary air (B/P) may be guided out into an area (U) surrounding the gas burner for the purpose of producing a burner flame , a mixture distribution chamber for evenly distributing the mixture of combustion gas and primary air (B/P) to the mixture outlet openings , and a storage chamber that is in fluidic connection with the mixture distribution chamber in order, during operation of the gas burner, to store some of the mixture of combustion gas and primary air (B/P) in the storage chamber , wherein the storage chamber comprises an ignition flame opening from which the mixture of combustion gas and primary air (B/P) that is stored in the storage chamber may be guided out into the surrounding area (U) for the purpose of producing an ignition flame , wherein the storage chamber is in fluidic connection with the mixture distribution chamber with the aid of a supply opening , wherein the storage chamber runs peripherally around the mixture distribution chamber in a ring shape, wherein the ring-shaped geometry of the storage chamber is open, and wherein the ignition flame opening is provided at a first end portion of the storage chamber , and the supply opening is provided at a second end portion of the storage chamber , at the opposite end to the first end portion .
A carbon fiber which simultaneously satisfies the following formula 1 and formula 2: Lc/d ≤ 3 TS × d × Lc>6 .0 × 10 5 wherein: Lc is an X-ray crystallite size (Å), d is a filament diameter (μm), and TS is a strand tensile strength (MPa) wherein the X-ray crystallite size of the carbon fiber is 19 to 21 Å, wherein the strand tensile strength of the carbon fiber is 4,700 MPa or more; wherein the measurement of the filament diameter is conducted in accordance with the method described in Japanese Industrial Standard JIS R 7607; wherein the X-ray crystallite size Lc is determined by making a calculation using the following formula: Crystallite size Lc nm = 0.9 λ / β cos θ λ: a wavelength of the X-ray, β: a half band width, and θ: an angle of diffraction. Lc is an X-ray crystallite size (Å), d is a filament diameter (μm), and TS is a strand tensile strength (MPa) wherein the X-ray crystallite size of the carbon fiber is 19 to 21 Å, wherein the strand tensile strength of the carbon fiber is 4,700 MPa or more; wherein the measurement of the filament diameter is conducted in accordance with the method described in Japanese Industrial Standard JIS R 7607; wherein the X-ray crystallite size Lc is determined by making a calculation using the following formula: Crystallite size Lc nm = 0.9 λ / β cos θ λ: a wavelength of the X-ray, β: a half band width, and θ: an angle of diffraction.
A heat transfer plate that is configured to perform a heat exchange with a thermal processing object (W), comprising: a metal main body that is formed in a flat plate shape; and a plurality of jacket chambers that are formed in an interior of the metal main body and inside each of which is enclosed a gas-liquid two-phase heating medium , wherein the plurality of jacket chambers extend outwards in a radial configuration from a central portion of a heat transfer surface that is set as one surface of the metal main body , each one of the plurality of jacket chambers has a curved or bent configuration when looked at in plan view, characterized in that the plurality of jacket chambers are mutually independent of each other, or the plurality of jacket chambers are in mutual communication with each other via the central portion of the heat transfer plate . a metal main body that is formed in a flat plate shape; and a plurality of jacket chambers that are formed in an interior of the metal main body and inside each of which is enclosed a gas-liquid two-phase heating medium , wherein the plurality of jacket chambers extend outwards in a radial configuration from a central portion of a heat transfer surface that is set as one surface of the metal main body , each one of the plurality of jacket chambers has a curved or bent configuration when looked at in plan view, characterized in that the plurality of jacket chambers are mutually independent of each other, or the plurality of jacket chambers are in mutual communication with each other via the central portion of the heat transfer plate .
Process for producing polymethyl methacrylate-based rigid foams in sandwich components for use in wind power plants and boatbuilding, wherein the blowing agent-laden polymer composition is foamed to afford a foam material having an average pore size in the range from 50 to 300 μm, measured according to ASTM D3576, characterized in that the polymethyl methacrylate has a glass transition temperature Tg above 110°C, determined by DMTA measurement according to the standard ISO 6721-7.
A device for contactless communication with a terminal , comprising: an antenna for communication with the terminal; an embedded chip configured to communicate with the terminal in accordance with a contactless transmission protocol whereby a message sent by the terminal sets a specified initial waiting time for a response from the embedded chip to maintain a connection with the terminal, the embedded chip being configured to communicate requests to the terminal to extend the waiting time for response; and a module configured to perform processing formed of a plurality of discrete operations, characterised in that : the module is configured to, in response to completing a subset of one or more discrete operations within a waiting time interval set by the terminal, send a first type of command to the embedded chip if the processing is not complete; wherein the embedded chip is further configured to, in response to receiving the first type of command, communicate a request to the terminal to extend the waiting time for response. an antenna for communication with the terminal; an embedded chip configured to communicate with the terminal in accordance with a contactless transmission protocol whereby a message sent by the terminal sets a specified initial waiting time for a response from the embedded chip to maintain a connection with the terminal, the embedded chip being configured to communicate requests to the terminal to extend the waiting time for response; and a module configured to perform processing formed of a plurality of discrete operations, characterised in that : the module is configured to, in response to completing a subset of one or more discrete operations within a waiting time interval set by the terminal, send a first type of command to the embedded chip if the processing is not complete; wherein the embedded chip is further configured to, in response to receiving the first type of command, communicate a request to the terminal to extend the waiting time for response.
A capnometer comprising: an integrated device comprising a substrate , an infrared light absorbing layer disposed on the substrate, and a bandpass filter layer disposed on the substrate; a light source arranged to emit light (L) that passes through the bandpass filter layer of the integrated device to reach the infrared light absorbing layer of the integrated device; and electronics connected with the infrared light absorbing layer of the integrated device to measure a photoconductivity signal of the infrared light absorbing layer, the electronics including signal processing circuitry to convert the photoconductivity signal to a carbon dioxide partial pressure or concentration value; wherein the bandpass filter layer and the infrared light absorbing layer of the integrated device are disposed on a same side of the substrate with the bandpass filter layer disposed between the substrate and the infrared light absorbing layer, and the substrate of the integrated device is transparent for the light (L) emitted by the light source at least over the pass band of the bandpass filter layer of the integrated device; wherein the capnometer further comprises a carbon dioxide CO2 measurement cell including a flow path (F) through which respired gas flows and wherein the light source is arranged to emit the light (L) to pass through the flow path (F) of the CO2 measurement cell before reaching the bandpass filter layer of the integrated device . an integrated device comprising a substrate , an infrared light absorbing layer disposed on the substrate, and a bandpass filter layer disposed on the substrate; a light source arranged to emit light (L) that passes through the bandpass filter layer of the integrated device to reach the infrared light absorbing layer of the integrated device; and electronics connected with the infrared light absorbing layer of the integrated device to measure a photoconductivity signal of the infrared light absorbing layer, the electronics including signal processing circuitry to convert the photoconductivity signal to a carbon dioxide partial pressure or concentration value; wherein the bandpass filter layer and the infrared light absorbing layer of the integrated device are disposed on a same side of the substrate with the bandpass filter layer disposed between the substrate and the infrared light absorbing layer, and the substrate of the integrated device is transparent for the light (L) emitted by the light source at least over the pass band of the bandpass filter layer of the integrated device; wherein the capnometer further comprises a carbon dioxide CO2 measurement cell including a flow path (F) through which respired gas flows and wherein the light source is arranged to emit the light (L) to pass through the flow path (F) of the CO2 measurement cell before reaching the bandpass filter layer of the integrated device .
A marine or bunker fuel composition having increased compatibility with commercial marine or bunker fuels, said composition having at least five, preferably at least six, more preferably at least seven, most preferably all of the following properties: a Bureau of Mines Correlation Index (BMCI) index from 30 to 80; a difference between a BMCI index and a toluene equivalency (TE) value of 15 to 40; an asphaltene content from 1.0 wt% to 4.0 wt%; a Micro Carbon Residue (MCR) content from 3.0 wt% to 10.0 wt%; a sulfur content from 900 wppm to 1000 wppm; a boiling point distribution wherein a T0.5 is 130°C to 240°C, a T10 is 220°C to 360°C, a T50 is 330°C to 470°C, and/or a T90 is 400°C to 570°C; a density at 15°C of 0.87 g/cm 3 to 0.95 g/cm 3 ; and a kinematic viscosity at 50°C of 20 cSt to 150 cSt; wherein the asphaltene content is measured according to ASTM D6560; wherein the MCR is measured according to ISO 10370; wherein the BMCI index and the TE are measured as described herein. a Bureau of Mines Correlation Index (BMCI) index from 30 to 80; a difference between a BMCI index and a toluene equivalency (TE) value of 15 to 40; an asphaltene content from 1.0 wt% to 4.0 wt%; a Micro Carbon Residue (MCR) content from 3.0 wt% to 10.0 wt%; a sulfur content from 900 wppm to 1000 wppm; a boiling point distribution wherein a T0.5 is 130°C to 240°C, a T10 is 220°C to 360°C, a T50 is 330°C to 470°C, and/or a T90 is 400°C to 570°C; a density at 15°C of 0.87 g/cm 3 to 0.95 g/cm 3 ; and a kinematic viscosity at 50°C of 20 cSt to 150 cSt;
A bicycle comprising: a front wheel and a rear wheel cooperatively defining a central plane and forward and rearward directions; a front fork supported by the front wheel ; a frame supported by the front fork and the rear wheel , the frame including: a head tube rotationally coupled to the front fork ; a down tube extending downward and rearward from the head tube ; a motor mount coupled to and extending from the down tube ; and a chainstay coupled between the motor mount and the rear wheel ; and a motor mounted to the motor mount , wherein the motor mount includes: a down tube mount coupled to the down tube ; and a chainstay mount coupled to the chainstay ; characterized in that the motor mount includes a side brace secured to the down tube mount and wrapping around one side of the motor to the chainstay mount , wherein the side brace connects the down tube mount to the chainstay mount , and wherein a side of the motor mount opposite the side brace includes an opening large enough to facilitate insertion and removal of the motor . a front wheel and a rear wheel cooperatively defining a central plane and forward and rearward directions; a front fork supported by the front wheel ; a frame supported by the front fork and the rear wheel , the frame including: a head tube rotationally coupled to the front fork ; a down tube extending downward and rearward from the head tube ; a motor mount coupled to and extending from the down tube ; and a chainstay coupled between the motor mount and the rear wheel ; a head tube rotationally coupled to the front fork ; a down tube extending downward and rearward from the head tube ; a motor mount coupled to and extending from the down tube ; and a chainstay coupled between the motor mount and the rear wheel ; and a motor mounted to the motor mount , a down tube mount coupled to the down tube ; and a chainstay mount coupled to the chainstay ; characterized in that the motor mount includes a side brace secured to the down tube mount and wrapping around one side of the motor to the chainstay mount , wherein the side brace connects the down tube mount to the chainstay mount , and wherein a side of the motor mount opposite the side brace includes an opening large enough to facilitate insertion and removal of the motor .
Method for the manufacture of a welded joint comprising the following successive steps: I. The provision of at least two metallic substrates wherein at least one metallic substrate is a steel substrate having a thickness of at least 8 mm and being delimited by at least one beveled edge, wherein said beveled edge is at least partially coated with a pre-coating comprising a titanate and a nanoparticulate oxide selected from the group consisting of TiO 2 , SiO 2 , ZrO 2 , Y 2 O 3 , Al 2 O 3 , MoO 3 , CrO 3 , CeO 2 , La 2 O 3 and mixtures thereof, and II. The welding of the at least two metallic substrates along the at least partially coated beveled edge by laser arc hybrid welding in leading arc configuration. I. The provision of at least two metallic substrates wherein at least one metallic substrate is a steel substrate having a thickness of at least 8 mm and being delimited by at least one beveled edge, wherein said beveled edge is at least partially coated with a pre-coating comprising a titanate and a nanoparticulate oxide selected from the group consisting of TiO 2 , SiO 2 , ZrO 2 , Y 2 O 3 , Al 2 O 3 , MoO 3 , CrO 3 , CeO 2 , La 2 O 3 and mixtures thereof, and II. The welding of the at least two metallic substrates along the at least partially coated beveled edge by laser arc hybrid welding in leading arc configuration.
Child seat for a motor vehicle having an indicator device (5; 51, 10) for displaying a correct interaction of an Isofix catch of the child seat with an Isofix connection of the motor vehicle, wherein an actuating lever for releasing, by means of a cable pull device , an Isofix catch embodied in the child seat is configured on the child seat, wherein the actuating lever directly or indirectly pivots a cam mounted in the child seat from a locking position to a release position, the pull cable of the cable pull device being mounted to an arm of the cam , wherein the pull cable releases the Isofix catch and frees the Isofix connection to the motor vehicle when pivoting the cam by tensioning the pull cable, in the locking position, the cam acts with an arm upon a lever being configured in the child seat and rotatable about an axis, the free end of which, remote from the cam, is visible from the outside through an opening in the shell of the child seat , but is pivoted away from the opening in the release position, the actuating lever , when being pivoted from the locking position to the release position, first releases an Isofix locking arm , which is displaceably mounted in the child seat and in or on which the Isofix catch is formed, from a clamped or latched position of the preselected extension length on the child seat from a locking arm guide , wherein the locking of the Isofix catch causes a shortening of the cable pull of the cable pull device , whereby the cam actuates the lever with its cam arm , such that the remote end becomes visible in the opening of the shell . wherein the actuating lever directly or indirectly pivots a cam mounted in the child seat from a locking position to a release position, the pull cable of the cable pull device being mounted to an arm of the cam , wherein the pull cable releases the Isofix catch and frees the Isofix connection to the motor vehicle when pivoting the cam by tensioning the pull cable, in the locking position, the cam acts with an arm upon a lever being configured in the child seat and rotatable about an axis, the free end of which, remote from the cam, is visible from the outside through an opening in the shell of the child seat , but is pivoted away from the opening in the release position, the actuating lever , when being pivoted from the locking position to the release position, first releases an Isofix locking arm , which is displaceably mounted in the child seat and in or on which the Isofix catch is formed, from a clamped or latched position of the preselected extension length on the child seat from a locking arm guide , wherein the locking of the Isofix catch causes a shortening of the cable pull of the cable pull device , whereby the cam actuates the lever with its cam arm , such that the remote end becomes visible in the opening of the shell .
Watch or piece of jewellery , in particular a watch or piece of jewellery in kit form, comprising a smart bracelet and at least one smart screen comprised, if applicable, in a precious or synthetic stone, and configured to be moved and arranged at a given location along the smart bracelet , the smart bracelet comprising: - a bracelet ; - a processing unit configured to process data and to supply processed data ; - a transmitter configured to transmit, via a second communication interface and at least one transmission medium or guide , the processed data to a first communication interface comprising a receiver of said smart screen , this receiver being configured to receive the processed data , the transmission medium being arranged to ensure continuous transmission of the processed data by electromagnetic or acoustic waves or by electrical signals to the receiver of the smart screen arranged at a given point along the bracelet ; the smart screen comprising: - a display configured to run and/or slide along said smart bracelet ; - a control unit configured to control the display according to the processed data . - a bracelet ; - a processing unit configured to process data and to supply processed data ; - a transmitter configured to transmit, via a second communication interface and at least one transmission medium or guide , the processed data to a first communication interface comprising a receiver of said smart screen , this receiver being configured to receive the processed data , the transmission medium being arranged to ensure continuous transmission of the processed data by electromagnetic or acoustic waves or by electrical signals to the receiver of the smart screen arranged at a given point along the bracelet ; - a display configured to run and/or slide along said smart bracelet ; - a control unit configured to control the display according to the processed data .
Process for electrochemically preparing 5-hydroxymethyl-2-furan-carboxylic acid from 5-hydroxymethylfurfural, said process comprising a first oxidation step of oxidizing 5-hydroxymethylfurfural to 5-hydroxymethyl-2-furan-carboxylic acid in an electrochemical cell, and subsequently a first isolation step of isolating 5-hydroxymethyl-2-furan-carboxylic acid, wherein the first isolation step is carried out by extraction, solidification or a combination thereof.
A wireless charging apparatus configured to use electromagnetic induction, the wireless charging apparatus comprising: a transmission unit including a first coil that is configured to generate a magnetic field when power is applied; a reception unit including a second coil and being configured to charge a battery using induced current that is induced in the second coil when the magnetic field of the first coil is generated; a position sensing unit configured to measure position information for the first coil and the second coil; and a conversion unit configured to convert the direction of the magnetic field according to the position information for the first coil and the second coil wherein the reception unit includes a gyro sensor configured to digitize position information of the reception unit, wherein the transmission unit includes a gyro sensor configured to digitize position information of the first coil, wherein the position sensing unit is configured to measure the position information for the first coil and the second coil based on position information from the gyro sensors. a transmission unit including a first coil that is configured to generate a magnetic field when power is applied; a reception unit including a second coil and being configured to charge a battery using induced current that is induced in the second coil when the magnetic field of the first coil is generated; a position sensing unit configured to measure position information for the first coil and the second coil; and a conversion unit configured to convert the direction of the magnetic field according to the position information for the first coil and the second coil wherein the reception unit includes a gyro sensor configured to digitize position information of the reception unit, wherein the transmission unit includes a gyro sensor configured to digitize position information of the first coil, wherein the position sensing unit is configured to measure the position information for the first coil and the second coil based on position information from the gyro sensors.
Use of a composition comprising 0.5-5% by weight of a polyolefin wax; 10-30% by weight of fluorosilicic acid or a fluorosilicate; 1-6% by weight of an acid conditioner selected from fumaric acid, citric acid, 2,3-dihydroxybutanedioic acid, and mixtures thereof; 0.5-5% by weight of a fast drying agent selected from ethylene glycol methyl ether, ethylene glycol butyl ether, diethylene glycol butyl ether, propylene glycol methyl ether, dipropylene glycol methyl ether, propylene glycol propyl ether, dipropylene glycol propyl ether, propylene glycol butyl ether, propylene glycol methyl ether acetate, dipropylene glycol methyl ether acetate, dipropylene glycol dimethyl ether, diethylene glycol methyl ether, and mixtures thereof; and water as balance; wherein said polyolefin wax is a polypropylene wax and is added in the form of an emulsion, and the solid content of the polyolefin wax emulsion is in a range of 20% to 50% by weight, wherein the evaporation rate of said fast drying agent is greater than 0.01, wherein said polyolefin wax emulsion has a particle size in a range of 50 to 200 nm as determined by a BDL-B surface potential particle size analyzer, a pH value in the range of 4 to 10 and a viscosity in a range of 100 to 1000 mPas (100 to 1000 cps), wherein said polyolefin wax emulsion is formed by emulsifying a polyolefin wax with an emulsifier with an HLB value of 8 to 18, and wherein the number-average molecular weight Mn of said polyolefin wax is between 1000 and 20000 and its dropping point is 60 to 180 °C according to ASTM D3954-1994 ; for providing a glossy finish with anti-slip properties to stone in a single step.