mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a razor cartridge with a front and a back, including a docking receiver (224, 624, 724, 824, 924, 1024, 1124, 1224 1324) on the back, wherein the docking receiver includes two side walls and a single central tab , the tab located between the docking receiver side walls, and the tab including a ramp; and a razor handle with a handle back end and a handle docking end, the handle docking end including: a central pushrod slidably located in the handle; a compression spring around the pushrod, one end of the compression spring being biased against a fixed portion of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm pivotally mounted to the handle at an axis , the axis being between a hook end of the hook arm and a pivot end of the hook arm; wherein the hook arm is configured to flex over the tab ramp and snap onto the tab; and wherein the docking receiver side walls are configured to couple to the pushrod. a razor cartridge with a front and a back, including a docking receiver (224, 624, 724, 824, 924, 1024, 1124, 1224 1324) on the back, wherein the docking receiver includes two side walls and a single central tab , the tab located between the docking receiver side walls, and the tab including a ramp; and a razor handle with a handle back end and a handle docking end, the handle docking end including: a central pushrod slidably located in the handle; a compression spring around the pushrod, one end of the compression spring being biased against a fixed portion of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm pivotally mounted to the handle at an axis , the axis being between a hook end of the hook arm and a pivot end of the hook arm; a central pushrod slidably located in the handle; a compression spring around the pushrod, one end of the compression spring being biased against a fixed portion of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm pivotally mounted to the handle at an axis , the axis being between a hook end of the hook arm and a pivot end of the hook arm; wherein the hook arm is configured to flex over the tab ramp and snap onto the tab; and wherein the docking receiver side walls are configured to couple to the pushrod.
An energy storage device comprising: a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and a non-aqueous electrolyte, wherein the negative electrode includes non-graphitizable carbon as a negative electrode active material, the separator has a thickness of 10 to 30 μm and an air permeability of 10 to 180 sec/100 cc, wherein the air permeability is obtained by the method as described in the description, and characterized in that the positive electrode material layer has an area of 0.3 to 100 m 2 . a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and a non-aqueous electrolyte, wherein the negative electrode includes non-graphitizable carbon as a negative electrode active material, the separator has a thickness of 10 to 30 μm and an air permeability of 10 to 180 sec/100 cc, wherein the air permeability is obtained by the method as described in the description, and characterized in that the positive electrode material layer has an area of 0.3 to 100 m 2 .
Food composition in the form of an oil-in-water emulsion comprising: • Water, • A first acidulant selected from the group consisting of lactic acid, benzoic acid, acetic acid, sorbic acid and mixtures thereof, • Structurant, selected from the group consisting of starch, flour, gum, fiber and mixtures thereof, wherein said fiber, if present, is present in an amount of 0.1 to 4 wt% based on the weight of the composition, wherein the structurant comprises starch, in an amount of 0.1 to 12 wt%, based on the weight of the food composition, • 5 to 60 wt% of vegetable oil, • non-soy plant protein, having an average particle size of below 100 micrometers, wherein the protein is present in an amount of 6 to 30 wt%, • A second acidulant, having a pKa, at 20 °C, of 3.2 or lower, wherein the weight ratio between plant protein and vegetable oil is ≥ 0.3, wherein the pH of the composition is of between 2.5 and 4.5. • Water, • A first acidulant selected from the group consisting of lactic acid, benzoic acid, acetic acid, sorbic acid and mixtures thereof, • Structurant, selected from the group consisting of starch, flour, gum, fiber and mixtures thereof, wherein said fiber, if present, is present in an amount of 0.1 to 4 wt% based on the weight of the composition, wherein the structurant comprises starch, in an amount of 0.1 to 12 wt%, based on the weight of the food composition, • 5 to 60 wt% of vegetable oil, • non-soy plant protein, having an average particle size of below 100 micrometers, wherein the protein is present in an amount of 6 to 30 wt%, • A second acidulant, having a pKa, at 20 °C, of 3.2 or lower, wherein the weight ratio between plant protein and vegetable oil is ≥ 0.3, wherein the pH of the composition is of between 2.5 and 4.5.
A grinding device for an automatic coffee machine, comprising: - a support body ; - a lower grinder and an upper grinder arranged coaxially with respect to an axis (X) and delimiting a gap where the grinding is performed; - a motor for driving at least one of said grinders in rotation about said axis (X); - an adjustment ring nut for adjusting the width of said gap having a means for transforming a rotation thereof about said axis (X) into a translation of at least one of said grinders in the direction of said axis (X); and - a gear for driving said ring nut in rotation; said gear comprising a toothed wheel arc engaging with a pinion , and a means being provided for fixing said toothed wheel arc in an adjustable position on said ring nut , characterised in that said adjustment ring nut has an inner horizontal perimeter guide groove wherein an outer horizontal perimeter flange of said upper grinder is slidably engaged, said support body having a cam tilted with respect to said axis (X) and said adjustment ring nut comprising a feeler of said cam for its movement along said axis (X), raising or lowering depending on the direction of the rotation of said adjustment ring nut, said upper grinder although not rotating being drawn in translation upwards or downwards along said axis (X) solidly with said adjustment ring nut . - a support body ; - a lower grinder and an upper grinder arranged coaxially with respect to an axis (X) and delimiting a gap where the grinding is performed; - a motor for driving at least one of said grinders in rotation about said axis (X); - an adjustment ring nut for adjusting the width of said gap having a means for transforming a rotation thereof about said axis (X) into a translation of at least one of said grinders in the direction of said axis (X); and - a gear for driving said ring nut in rotation; said gear comprising a toothed wheel arc engaging with a pinion , and a means being provided for fixing said toothed wheel arc in an adjustable position on said ring nut ,
An incinerator comprising: a combustion chamber and a flue in fluid communication with the combustion chamber ; a primary gas-to-gas heat exchanger associated with the flue ; a secondary gas-to-liquid heat exchanger ; means for forcing a supply of air through the primary and secondary heat exchangers; and a heat sink adapted, in use, to capture heat from the secondary heat exchanger , characterised in that : the means for forcing the supply of air comprises duct means providing a conduit between the primary and secondary heat exchangers; and wherein the duct means comprises an outlet limb and a diverter valve, baffle or deflector adapted, in use, for selectively diverting desired proportions of the supply of forced air towards, or away from, the secondary heat exchanger and into the outlet limb . a combustion chamber and a flue in fluid communication with the combustion chamber ; a primary gas-to-gas heat exchanger associated with the flue ; a secondary gas-to-liquid heat exchanger ; means for forcing a supply of air through the primary and secondary heat exchangers; and a heat sink adapted, in use, to capture heat from the secondary heat exchanger , characterised in that : the means for forcing the supply of air comprises duct means providing a conduit between the primary and secondary heat exchangers; and wherein the duct means comprises an outlet limb and a diverter valve, baffle or deflector adapted, in use, for selectively diverting desired proportions of the supply of forced air towards, or away from, the secondary heat exchanger and into the outlet limb . the means for forcing the supply of air comprises duct means providing a conduit between the primary and secondary heat exchangers; and wherein the duct means comprises an outlet limb and a diverter valve, baffle or deflector adapted, in use, for selectively diverting desired proportions of the supply of forced air towards, or away from, the secondary heat exchanger and into the outlet limb .
An antenna device , comprising: a substrate ; a ground ; a transmission line supported on the substrate ; and a plurality of conductive patches supported on the substrate , each conductive patch having a first end coupled to the transmission line and a second end coupled to the ground, the plurality of conductive patches being arranged in sets including two of the conductive patches facing each other on opposite sides of the transmission line , wherein the conductive patches respectively have a first width (W 1 ) near the first end ; and a radiating power of the conductive patches , respectively, is based at least in part on the first width (W 1 ), characterized in that the conductive patches respectively have a second width (W 2 ) near the second end ; and the second width (W 2 ) is different than the first width (W 1 ). a substrate ; a ground ; a transmission line supported on the substrate ; and a plurality of conductive patches supported on the substrate , each conductive patch having a first end coupled to the transmission line and a second end coupled to the ground, the plurality of conductive patches being arranged in sets including two of the conductive patches facing each other on opposite sides of the transmission line , wherein the conductive patches respectively have a first width (W 1 ) near the first end ; and a radiating power of the conductive patches , respectively, is based at least in part on the first width (W 1 ), the conductive patches respectively have a second width (W 2 ) near the second end ; and the second width (W 2 ) is different than the first width (W 1 ).
An apparatus, for example a gas turbine engine , comprising: a first member; a shaft rotatable relative to the first member about an axis (A); and a seal system comprising: a seal carried by the first member and having a seal face ; a seal housing ; a seat carried by the shaft and having a seat face in sliding sealing engagement with the seal face ; and a plurality of coil springs biasing the seal face against the seat face , each coil spring having a first end and a second end , wherein: the seal has a plurality of spring compartments ; and each of the plurality of coil springs is partially within a respective associated compartment of the plurality of spring compartments , characterized in that : each of the plurality of spring compartments comprise an outward radial opening. a first member; a shaft rotatable relative to the first member about an axis (A); and a seal system comprising: a seal carried by the first member and having a seal face ; a seal housing ; a seat carried by the shaft and having a seat face in sliding sealing engagement with the seal face ; and a plurality of coil springs biasing the seal face against the seat face , each coil spring having a first end and a second end , a seal carried by the first member and having a seal face ; a seal housing ; a seat carried by the shaft and having a seat face in sliding sealing engagement with the seal face ; and a plurality of coil springs biasing the seal face against the seat face , each coil spring having a first end and a second end , the seal has a plurality of spring compartments ; and each of the plurality of coil springs is partially within a respective associated compartment of the plurality of spring compartments ,
A method for automatically aligning a scanning transmission electron microscope (STEM) for acquiring precession electron diffraction (PED) mapping data at high spatial resolution, comprising: generating an incident electron beam aligned with the optic axis of the STEM and focused on a region of a sample and; acquiring a non-inclined signal spatial distribution from the sample region by scanning the incident beam across multiple discrete locations of the sample region while acquiring from at least one electron detector a signal associated with each location; FURTHER CHARACTERIZED BY : inclining the incident electron beam to a fixed inclination angle with respect to the optic axis; acquiring an inclined signal spatial distribution from the sample region by scanning the inclined incident beam across the multiple discrete locations while applying a cyclic azimuthal scanning protocol to the inclined beam and acquiring from the at least one electron detector a signal associated with each location; and determining an azimuthal spatial alignment correction by comparing the non-inclined and inclined signal spatial distributions. generating an incident electron beam aligned with the optic axis of the STEM and focused on a region of a sample and; acquiring a non-inclined signal spatial distribution from the sample region by scanning the incident beam across multiple discrete locations of the sample region while acquiring from at least one electron detector a signal associated with each location; scanning the incident beam across multiple discrete locations of the sample region while acquiring from at least one electron detector a signal associated with each location; FURTHER CHARACTERIZED BY : inclining the incident electron beam to a fixed inclination angle with respect to the optic axis; acquiring an inclined signal spatial distribution from the sample region by scanning the inclined incident beam across the multiple discrete locations while applying a cyclic azimuthal scanning protocol to the inclined beam and acquiring from the at least one electron detector a signal associated with each location; and determining an azimuthal spatial alignment correction by comparing the non-inclined and inclined signal spatial distributions. inclining the incident electron beam to a fixed inclination angle with respect to the optic axis; acquiring an inclined signal spatial distribution from the sample region by scanning the inclined incident beam across the multiple discrete locations while applying a cyclic azimuthal scanning protocol to the inclined beam and acquiring from the at least one electron detector a signal associated with each location; and scanning the inclined incident beam across the multiple discrete locations while applying a cyclic azimuthal scanning protocol to the inclined beam and acquiring from the at least one electron detector a signal associated with each location; and determining an azimuthal spatial alignment correction by comparing the non-inclined and inclined signal spatial distributions.
A method for coding a video signal, comprising: determining spatially adjacent motion information of a parallel motion processing region PR (S101), wherein motion information processing for a plurality of image blocks in the parallel motion processing region PR is performed in parallel; determining temporally adjacent motion information of a current block, wherein the current block is located in the parallel motion processing region PR (S103); determining a candidate motion information set of the current block according to the spatially adjacent motion information of the parallel motion processing region PR and the temporally adjacent motion information of the current block (S105); selecting motion information of the current block from the candidate motion information set, and sending a motion information indication of the current block to a decoding end, so as to assist the decoding end in determining the motion information of the current block (S107); and performing motion compensation coding for the current block according to the motion information of the current block (S109), wherein the determining spatially adjacent motion information of a parallel motion processing region PR (S101) comprises: selecting one or more spatially adjacent image blocks for the parallel motion processing region PR, determining whether motion information of each spatially adjacent image block of the one or more spatially adjacent image blocks exists, and if the motion information exists, using the motion information of each spatially adjacent image block as a piece of the spatially adjacent motion information. determining spatially adjacent motion information of a parallel motion processing region PR (S101), wherein motion information processing for a plurality of image blocks in the parallel motion processing region PR is performed in parallel; determining temporally adjacent motion information of a current block, wherein the current block is located in the parallel motion processing region PR (S103); determining a candidate motion information set of the current block according to the spatially adjacent motion information of the parallel motion processing region PR and the temporally adjacent motion information of the current block (S105); selecting motion information of the current block from the candidate motion information set, and sending a motion information indication of the current block to a decoding end, so as to assist the decoding end in determining the motion information of the current block (S107); and performing motion compensation coding for the current block according to the motion information of the current block (S109), wherein the determining spatially adjacent motion information of a parallel motion processing region PR (S101) comprises: selecting one or more spatially adjacent image blocks for the parallel motion processing region PR, determining whether motion information of each spatially adjacent image block of the one or more spatially adjacent image blocks exists, and if the motion information exists, using the motion information of each spatially adjacent image block as a piece of the spatially adjacent motion information.
A display device comprising: a display unit including a display panel providing an image; a housing being apart from the display unit and including an electrical unit; and a cable electrically connected with the display panel and the electrical unit, wherein the electrical unit provides the display panel with a signal and power, and wherein the housing comprises: a bottom case ; a top case above the bottom case , the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker , the slider moving linearly; a cap mounted on the slider , wherein the cap open and close the opening (300H1, 300H2) of the top case ; a lead screw near the slider , the lead screw rotatable; and a holder fixed to the slider , the holder coupled with the lead screw , wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw . a display unit including a display panel providing an image; a housing being apart from the display unit and including an electrical unit; and a cable electrically connected with the display panel and the electrical unit, wherein the electrical unit provides the display panel with a signal and power, and wherein the housing comprises: a bottom case ; a top case above the bottom case , the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker , the slider moving linearly; a cap mounted on the slider , wherein the cap open and close the opening (300H1, 300H2) of the top case ; a lead screw near the slider , the lead screw rotatable; and a holder fixed to the slider , the holder coupled with the lead screw , wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw . a bottom case ; a top case above the bottom case , the top case including an opening (300H1, 300H2); a speaker moving in a vertical direction, the speaker exposed to the outside of the top case through the opening (300H1, 300H2) or positioned between the top case and the bottom case according to a movement in the vertical direction, a slider between the top case and the speaker , the slider moving linearly; a cap mounted on the slider , wherein the cap open and close the opening (300H1, 300H2) of the top case ; a lead screw near the slider , the lead screw rotatable; and a holder fixed to the slider , the holder coupled with the lead screw , wherein the holder moves along an axis of the lead screw in accordance with a rotation of the lead screw .
An atomic clock system comprising: an optical trapping system that traps alkali metal atoms in a cell during a trapping stage of each of sequential coherent population trapping (CPT) cycles; an interrogation system that generates an optical difference beam to drive CPT interrogation of the alkali metal atoms, the optical difference beam comprising a first optical beam having a first frequency and a second optical beam having a second frequency different from the first frequency; characterized in that said atomic clock system comprises an oscillator system that adjusts a frequency of a local oscillator based on an optical response of the CPT interrogated alkali metal atoms in response to the optical difference beam during a state readout stage. an optical trapping system that traps alkali metal atoms in a cell during a trapping stage of each of sequential coherent population trapping (CPT) cycles; an interrogation system that generates an optical difference beam to drive CPT interrogation of the alkali metal atoms, the optical difference beam comprising a first optical beam having a first frequency and a second optical beam having a second frequency different from the first frequency; characterized in that said atomic clock system comprises an oscillator system that adjusts a frequency of a local oscillator based on an optical response of the CPT interrogated alkali metal atoms in response to the optical difference beam during a state readout stage.
Use of a compound of Formula I as a tracer compound for marking and identifying a hydrocarbon liquid wherein at least one of R 1 - R 6 is selected from a branched C 4 - C 20 alkyl group, with the remainder of R 1 - R 6 being hydrogen, and wherein the hydrocarbon liquid is a gasoline or diesel fuel. wherein at least one of R 1 - R 6 is selected from a branched C 4 - C 20 alkyl group, with the remainder of R 1 - R 6 being hydrogen, and wherein the hydrocarbon liquid is a gasoline or diesel fuel.