mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for warping virtual content , comprising: receiving rendered virtual content data, the rendered virtual content data including a single far depth (D12); receiving movement data indicating a user movement in a direction orthogonal to an optical axis; and generating warped rendered virtual content data based on the rendered virtual content data, the single far depth, and the movement data, wherein the rendered virtual content data corresponds to a near virtual object and a far virtual object , wherein the single far depth (D12) corresponds to the farthest depth of any virtual object in the Field Of View, FOV, wherein the warped rendered virtual content data corresponds to a warped near virtual object and a warped far virtual object , the method being characterized in that a first position shift between the near virtual object and the warped near virtual object is equal to a second position shift between the far virtual object and the warped far virtual object . receiving rendered virtual content data, the rendered virtual content data including a single far depth (D12); receiving movement data indicating a user movement in a direction orthogonal to an optical axis; and generating warped rendered virtual content data based on the rendered virtual content data, the single far depth, and the movement data, wherein the rendered virtual content data corresponds to a near virtual object and a far virtual object , wherein the single far depth (D12) corresponds to the farthest depth of any virtual object in the Field Of View, FOV, wherein the warped rendered virtual content data corresponds to a warped near virtual object and a warped far virtual object , the method being characterized in that a first position shift between the near virtual object and the warped near virtual object is equal to a second position shift between the far virtual object and the warped far virtual object .
A lead-acid battery comprising: a positive electrode ; a negative electrode ; and a fiber mat separating the positive electrode and the negative electrode so as to electrically insulate the positive and negative electrodes , wherein the fiber mat comprising: a plurality of fibers; and a conductive material disposed on at least one surface of the fiber mat and additional conductive material disposed on the other surface of the fiber mat so that both the positive and negative electrodes contact one of the respective conductive materials, the conductive material comprises (i) a conductive material coating applied to both surfaces of the fiber mat and said coating comprises a mixture of a binder and the conductive material, the conductive material having an electrical resistance less than 100 000 ohms per square so as to enable electron flow on the surface of the fiber mat. a positive electrode ; a negative electrode ; and a fiber mat separating the positive electrode and the negative electrode so as to electrically insulate the positive and negative electrodes , wherein the fiber mat comprising: a plurality of fibers; and a conductive material disposed on at least one surface of the fiber mat and additional conductive material disposed on the other surface of the fiber mat so that both the positive and negative electrodes contact one of the respective conductive materials, the conductive material comprises (i) a conductive material coating applied to both surfaces of the fiber mat and said coating comprises a mixture of a binder and the conductive material, the conductive material having an electrical resistance less than 100 000 ohms per square so as to enable electron flow on the surface of the fiber mat. a plurality of fibers; and a conductive material disposed on at least one surface of the fiber mat and additional conductive material disposed on the other surface of the fiber mat so that both the positive and negative electrodes contact one of the respective conductive materials, the conductive material comprises (i) a conductive material coating applied to both surfaces of the fiber mat and said coating comprises a mixture of a binder and the conductive material, the conductive material having an electrical resistance less than 100 000 ohms per square so as to enable electron flow on the surface of the fiber mat.
A computer-implemented method, comprising: identifying a plurality of genetic communities, each genetic community comprising individuals identified based on values of single nucleotide polymorphisms (SNPs) of the individuals; receiving metadata about some of the individuals who belong to one or more of the plurality of genetic communities; identifying a target trait derived from the metadata, wherein the target trait is a phenotype; performing, for the target trait, an enrichment analysis among the plurality of genetic communities to identify one or more genetic communities in which the target trait is enriched, the target trait being enriched in a particular genetic community indicating that the target trait is statistically more likely to be present among the members of the particular genetic community compared to other genetic communities in which the target trait is not enriched; outputting a result derived from the enrichment analysis; performing an association study of the target trait using genetic data of the individuals in one of the genetic communities in which the target trait is enriched to identify one or more genetic loci that are associated with the target trait; receiving a genetic dataset of a target individual, the genetic dataset including values of SNPs of the target individual; and predicting whether the target individual possesses the target trait based on values of the SNPs of the target individual in the identified one or more genetic loci. identifying a plurality of genetic communities, each genetic community comprising individuals identified based on values of single nucleotide polymorphisms (SNPs) of the individuals; receiving metadata about some of the individuals who belong to one or more of the plurality of genetic communities; identifying a target trait derived from the metadata, wherein the target trait is a phenotype; performing, for the target trait, an enrichment analysis among the plurality of genetic communities to identify one or more genetic communities in which the target trait is enriched, the target trait being enriched in a particular genetic community indicating that the target trait is statistically more likely to be present among the members of the particular genetic community compared to other genetic communities in which the target trait is not enriched; outputting a result derived from the enrichment analysis; performing an association study of the target trait using genetic data of the individuals in one of the genetic communities in which the target trait is enriched to identify one or more genetic loci that are associated with the target trait; receiving a genetic dataset of a target individual, the genetic dataset including values of SNPs of the target individual; and predicting whether the target individual possesses the target trait based on values of the SNPs of the target individual in the identified one or more genetic loci.
Device with a valve housing and at least one compressed-air line connected to a valve housing connection , wherein the position of the compressed-airline relative to the valve housing connection is offset and wherein at least one connection plate is provided, which has a compressed-air line connection , wherein between the compressed-air line connection and the connection plate a first seal is arranged, and wherein between the connection plate and the valve housing a second seal is arranged, which seals off a compressed-air duct that is involved in the guiding of compressed air between the valve housing connection and the compressed-air line connection, characterised in that two compressed-air lines for supplying the service brake circuits of a utility vehicle fitted with a pneumatic brake system and two connection plates are provided, and the compressed-air lines for supplying the service brake circuits are respectively associated with different connection plates.
Method for manufacturing an intermediate or exhaust casing for a turbomachine, said casing comprising an inner hub and an outer annular ferrule extending around the hub and of an axis (A) of rotation, said ferrule being configured to define with the hub, an annular flow path for a gas stream and being rigidly linked to the hub by arms , characterised in that it comprises steps consisting of: a) producing casing sectors , each casing sector comprising a hub sector , a first ferrule sector and at least one arm linking said hub and ferrule sectors, b) arranging said casing sectors circumferentially next to each other with respect to said axis (A), such that each hub sector has longitudinal edges facing longitudinal edges of adjacent hub sectors, and c) welding said longitudinal edges facing said hub sectors, wherein, in step b), at least some of said first ferrule sectors have longitudinal edges at a circumferential distance of longitudinal edges of first adjacent ferrule sectors, and the method comprises, after step c), an additional step d) consisting of adding and welding second ferrule sectors between said longitudinal edges at a distance from said first ferrule sectors. a) producing casing sectors , each casing sector comprising a hub sector , a first ferrule sector and at least one arm linking said hub and ferrule sectors, b) arranging said casing sectors circumferentially next to each other with respect to said axis (A), such that each hub sector has longitudinal edges facing longitudinal edges of adjacent hub sectors, and c) welding said longitudinal edges facing said hub sectors,
An accelerometer comprising: • a plurality of proof-masses (M1-M4) movable along a measurement axis (AB); • a respective spring (K1-K4) attached to each proof-mass, configured to exert an elastic return on the proof-mass along the measurement axis; • a fixed stop (S1-S4) associated with each proof-mass, arranged to intercept the proof-mass when the acceleration along the measurement axis increases by one step; and • an electrical contact associated with each stop, configured to be closed when the associated proof-mass reaches the stop; characterized in that the proof-masses are suspended with respect to one and other by the springs, in series along the measurement axis, the stops being arranged to successively intercept the respective proof-masses for increasing acceleration thresholds. • a plurality of proof-masses (M1-M4) movable along a measurement axis (AB); • a respective spring (K1-K4) attached to each proof-mass, configured to exert an elastic return on the proof-mass along the measurement axis; • a fixed stop (S1-S4) associated with each proof-mass, arranged to intercept the proof-mass when the acceleration along the measurement axis increases by one step; and • an electrical contact associated with each stop, configured to be closed when the associated proof-mass reaches the stop;
An aerosol generation system comprising: a controller for an inhalation device , the controller including a first power supply (BAT1), a first connector (PG1), a first processor configured to perform energization control of a heater (HT) which is used to heat an aerosol source, and a charging circuit configured to control a charging of the first power supply, and a power supply device including a second power supply (BAT2), a second connector (PG2) which is connected to the first connector (PG1) at the time of charging of the first power supply (BAT1), and a second processor configured to perform control of power supply from the second power supply (BAT2) to the controller via the second connector (PG2), characterized in that a first voltage applied to a power supply terminal of the first processor is higher than a second voltage applied to a power supply terminal of the second processor. a controller for an inhalation device , the controller including a first power supply (BAT1), a first connector (PG1), a first processor configured to perform energization control of a heater (HT) which is used to heat an aerosol source, and a charging circuit configured to control a charging of the first power supply, and a power supply device including a second power supply (BAT2), a second connector (PG2) which is connected to the first connector (PG1) at the time of charging of the first power supply (BAT1), and a second processor configured to perform control of power supply from the second power supply (BAT2) to the controller via the second connector (PG2), characterized in that a first voltage applied to a power supply terminal of the first processor is higher than a second voltage applied to a power supply terminal of the second processor.
A hotel room comprising: a plurality of exterior walls surrounding an interior space ; a doorway in a front exterior wall of the plurality of exterior walls; a vestibule extending from the doorway into the interior space; and first and second bathrooms in the interior space on opposite sides of the vestibule , wherein a layout of the first bathroom is the same as a layout of the second bathroom , and wherein the doorway is centered along the front exterior wall , characterized in that the hotel room further comprises a common area in the interior space, wherein each of the first and second bathrooms comprises an entryway in an interior sidewall , wherein the entryway opens to the vestibule , and wherein the vestibule opens up into the common area . a plurality of exterior walls surrounding an interior space ; a doorway in a front exterior wall of the plurality of exterior walls; a vestibule extending from the doorway into the interior space; and first and second bathrooms in the interior space on opposite sides of the vestibule , wherein a layout of the first bathroom is the same as a layout of the second bathroom , and wherein the doorway is centered along the front exterior wall , characterized in that the hotel room further comprises a common area in the interior space, wherein each of the first and second bathrooms comprises an entryway in an interior sidewall , wherein the entryway opens to the vestibule , and wherein the vestibule opens up into the common area .
A method for manufacturing a molded hose comprising the following steps in a sequential manner: - applying a braided hose and a heat activated adhesive onto an inflatable positive mold structure ; - applying heat to the heat-activated adhesive to activate the adhesive for fitting and setting the shape of the braided hose to an outer shape of the positive mold structure ; and - removing the positive mold structure for obtaining the molded hose that is dimensionally stable in a first condition of the molded hose , wherein the outer shape of the positive mold structure defines the shape of the manufactured molded hose in the first condition; characterized in that the molded hose is provided with endcaps and/or valves to form an inflatable tube. - applying a braided hose and a heat activated adhesive onto an inflatable positive mold structure ; - applying heat to the heat-activated adhesive to activate the adhesive for fitting and setting the shape of the braided hose to an outer shape of the positive mold structure ; and - removing the positive mold structure for obtaining the molded hose that is dimensionally stable in a first condition of the molded hose , wherein the outer shape of the positive mold structure defines the shape of the manufactured molded hose in the first condition;
An apparatus for generating a visualization of a balloon within an anatomical cavity and configured to provide balloon therapy within the anatomical cavity, the apparatus comprising a processor circuit comprising a processor , an input and an output each in communication with the processor, wherein the processor is configured to: - receive or obtain , via the input, EM field data representative of an electromagnetic field detected by one or more electrodes of a catheter within the anatomical cavity and responsive to a location of the balloon within the anatomical cavity - receive or obtain , via the input, a geometrical parameter associated with the balloon configured to provide the balloon therapy within the anatomical cavity; - determine a location of the balloon within the anatomical cavity based on the EM field data and the geometrical parameter; and - optionally, outputting , via the output, a signal representative of a visualization of the location of the balloon within the anatomical cavity. - receive or obtain , via the input, EM field data representative of an electromagnetic field detected by one or more electrodes of a catheter within the anatomical cavity and responsive to a location of the balloon within the anatomical cavity - receive or obtain , via the input, a geometrical parameter associated with the balloon configured to provide the balloon therapy within the anatomical cavity; - determine a location of the balloon within the anatomical cavity based on the EM field data and the geometrical parameter; and - optionally, outputting , via the output, a signal representative of a visualization of the location of the balloon within the anatomical cavity.
An injection molding machine comprising: a hydraulic pump configured to generate hydraulic pressure being supplied to a hydraulic actuator (18, 19, 51; 126); and a tank configured to contain an operating fluid being supplied to the hydraulic pump , characterized in that the hydraulic pump suctions the operating fluid in the tank from an opening formed on a lower wall part of the tank, further comprising a pipe configured to connect the tank with the hydraulic pump , wherein the hydraulic pump and the tank are separated. a hydraulic pump configured to generate hydraulic pressure being supplied to a hydraulic actuator (18, 19, 51; 126); and a tank configured to contain an operating fluid being supplied to the hydraulic pump , characterized in that the hydraulic pump suctions the operating fluid in the tank from an opening formed on a lower wall part of the tank, further comprising a pipe configured to connect the tank with the hydraulic pump , wherein the hydraulic pump and the tank are separated.
An alkaline secondary cell comprising: a negative electrode containing a hydrogen storage alloy; a positive electrode containing a positive electrode active material and a conductive agent; and a separator disposed between the positive electrode and the negative electrode, characterized in that hydrogen gas is filled in the alkaline secondary cell, the conductive agent includes carbon, and the negative electrode and the positive electrode are in contact with the hydrogen gas. a negative electrode containing a hydrogen storage alloy; a positive electrode containing a positive electrode active material and a conductive agent; and a separator disposed between the positive electrode and the negative electrode, characterized in that hydrogen gas is filled in the alkaline secondary cell, the conductive agent includes carbon, and the negative electrode and the positive electrode are in contact with the hydrogen gas.
. An article of footwear, comprising: an upper ; a sole structure coupled to the upper , wherein the sole structure and the upper collectively define an interior cavity therebetween, wherein the sole structure defines a midline and a peripheral edge; a first reinforcing element spanning from the sole structure to the upper within the interior cavity, wherein the first reinforcing element has a first end and a second end , wherein both the first end and the second end terminate back at the sole structure ; and a second reinforcing element extending from the sole structure to the upper within the interior cavity, wherein at least one end of the second reinforcing element is attached to the sole structure ; and wherein a distance from the peripheral edge of the sole structure to the at least one end of the first reinforcing element differs from a distance from the peripheral edge of the sole structure to the at least one end of the second reinforcing element . an upper ; a sole structure coupled to the upper , wherein the sole structure and the upper collectively define an interior cavity therebetween, wherein the sole structure defines a midline and a peripheral edge; a first reinforcing element spanning from the sole structure to the upper within the interior cavity, wherein the first reinforcing element has a first end and a second end , wherein both the first end and the second end terminate back at the sole structure ; and a second reinforcing element extending from the sole structure to the upper within the interior cavity, wherein at least one end of the second reinforcing element is attached to the sole structure ; and wherein a distance from the peripheral edge of the sole structure to the at least one end of the first reinforcing element differs from a distance from the peripheral edge of the sole structure to the at least one end of the second reinforcing element .
A process for preparing can end stock , comprising: pre-heating a metal strip to a first temperature below 250 °C, wherein the metal strip is an aluminum strip; laminating a polymer film to a first side of the metal strip to produce a laminated metal strip , wherein the first side of the metal strip corresponds to an exterior-facing side of a can end formed from the metal strip, wherein the polymer film comprises a polyethylene terephthalate film and wherein the polymer film comprises a colorant selected from the group consisting of carbon black and titanium dioxide, applying a layer of lacquer to a second side of the metal strip , wherein the second side of the metal strip corresponds to an interior-facing side of a can end formed from the metal strip, wherein the lacquer comprises an epoxy-based solution, a polyester solution, or a combination thereof; and annealing the laminated metal strip at an annealing temperature, wherein the annealing temperature is greater than 175 °C. pre-heating a metal strip to a first temperature below 250 °C, wherein the metal strip is an aluminum strip; laminating a polymer film to a first side of the metal strip to produce a laminated metal strip , wherein the first side of the metal strip corresponds to an exterior-facing side of a can end formed from the metal strip, wherein the polymer film comprises a polyethylene terephthalate film and wherein the polymer film comprises a colorant selected from the group consisting of carbon black and titanium dioxide, applying a layer of lacquer to a second side of the metal strip , wherein the second side of the metal strip corresponds to an interior-facing side of a can end formed from the metal strip, wherein the lacquer comprises an epoxy-based solution, a polyester solution, or a combination thereof; and annealing the laminated metal strip at an annealing temperature, wherein the annealing temperature is greater than 175 °C.