mhurhangee/patent-ind-claim-en huggingface dataset:
A lower body structure of a vehicle, comprising: a floor panel that forms a floor surface of a vehicle interior; a floor cross member provided so as to extend in a vehicle width direction above the floor panel ; a console support bracket that supports a console provided at a center of the floor panel and is mounted to the floor cross member ; and a shift lever support bracket having an upper part that supports a shift lever and a lower part that is fixed to the console support bracket in front and rear parts thereof, wherein a mount point (P) at which the shift lever is mounted to the shift lever support bracket is offset forward with respect to front side fixing part (α) and rear side fixing part (β) in which the shift lever support bracket is fixed to the console support bracket , the front side fixing part (α) of the console support bracket has a rigidity higher than the rear side fixing part (β), the console support bracket is formed to have a portal cross-section including an upper wall and both side walls in vehicle front view, the upper wall and both the side walls in a region of the front side fixing part(α) are fastened to a lower body, only the upper wall in a region of the rear side fixing part (β) is fastened to a lower body, the region of the front side fixing part (α) of the console support bracket is fixed to the floor cross member , and the region of the rear side fixing part (β) is fixed to an erection bracket that erects upward from the floor panel . a floor panel that forms a floor surface of a vehicle interior; a floor cross member provided so as to extend in a vehicle width direction above the floor panel ; a console support bracket that supports a console provided at a center of the floor panel and is mounted to the floor cross member ; and a shift lever support bracket having an upper part that supports a shift lever and a lower part that is fixed to the console support bracket in front and rear parts thereof, wherein a mount point (P) at which the shift lever is mounted to the shift lever support bracket is offset forward with respect to front side fixing part (α) and rear side fixing part (β) in which the shift lever support bracket is fixed to the console support bracket , the front side fixing part (α) of the console support bracket has a rigidity higher than the rear side fixing part (β), the console support bracket is formed to have a portal cross-section including an upper wall and both side walls in vehicle front view, the upper wall and both the side walls in a region of the front side fixing part(α) are fastened to a lower body, only the upper wall in a region of the rear side fixing part (β) is fastened to a lower body, the region of the front side fixing part (α) of the console support bracket is fixed to the floor cross member , and the region of the rear side fixing part (β) is fixed to an erection bracket that erects upward from the floor panel .
A Time of Flight mass analyser comprising: an annular ion guide having a longitudinal axis and comprising a first annular ion guide section and a second annular ion guide section; a first device arranged and adapted to introduce ions into said first annular ion guide section so that said ions form substantially stable circular orbits within said first annular ion guide section about said longitudinal axis; a second device arranged and adapted to orthogonally accelerate ions from said first annular ion guide section into said second annular ion guide section; and an ion detector disposed within said annular ion guide and having an ion detecting surface arranged in a plane which is substantially perpendicular to said longitudinal axis, wherein said annular ion guide comprises an inner cylindrical electrode arrangement and an outer cylindrical electrode arrangement, and wherein an annular time of flight ion guiding region is formed between said inner cylindrical electrode arrangement and said outer cylindrical electrode arrangement, characterized in that the Time of Flight mass analyser further comprises a device arranged and adapted to apply DC potentials to said inner cylindrical electrode arrangement and/or said outer cylindrical electrode arrangement in order to maintain a radial DC potential which acts to confine ions radially within said annular ion guide. an annular ion guide having a longitudinal axis and comprising a first annular ion guide section and a second annular ion guide section; a first device arranged and adapted to introduce ions into said first annular ion guide section so that said ions form substantially stable circular orbits within said first annular ion guide section about said longitudinal axis; a second device arranged and adapted to orthogonally accelerate ions from said first annular ion guide section into said second annular ion guide section; and an ion detector disposed within said annular ion guide and having an ion detecting surface arranged in a plane which is substantially perpendicular to said longitudinal axis, wherein said annular ion guide comprises an inner cylindrical electrode arrangement and an outer cylindrical electrode arrangement, and wherein an annular time of flight ion guiding region is formed between said inner cylindrical electrode arrangement and said outer cylindrical electrode arrangement, characterized in that the Time of Flight mass analyser further comprises a device arranged and adapted to apply DC potentials to said inner cylindrical electrode arrangement and/or said outer cylindrical electrode arrangement in order to maintain a radial DC potential which acts to confine ions radially within said annular ion guide.
A polyamide resin composition comprising a polyamide resin (A) and an impact-resistant material (B), wherein the polyamide resin (A) comprises an aliphatic copolyamide (A-1) comprising three or more types of monomers and an aliphatic polyamide (A-2), the content of the aliphatic copolyamide (A-1) in the polyamide resin composition is 1% by mass to 30% by mass, the polyamide resin composition further comprises an aromatic polyamide (A-3), wherein the content of the aromatic polyamide (A-3) in the polyamide resin composition is 1% by mass to 30% by mass, and the aromatic polyamide (A-3) is a polyamide 6T/6I, and the aliphatic polyamide (A-2) excludes copolyamide resins obtained by copolymerizing three or more types of monomers.
A method for providing visibility alerts by transmitting information related to a fog covered area in which visibility is affected, said method comprising: monitoring a geographical area by each of a plurality of visibility detectors ; receiving, at each of a plurality of lighting units of at least one Outdoor Lighting Network, monitoring data from at least one of said visibility detectors , wherein at least two of said lighting units are in communication with each other; deriving a consolidated estimate of visibility conditions pertaining to a combined geographical area defined by the monitored geographical areas associated with two or more of said visibility detectors ; the method characterised by determining a position, direction and speed of said fog covered area from the consolidated estimate of visibility conditions; and transmitting information comprising the position, direction and speed of said fog covered area. monitoring a geographical area by each of a plurality of visibility detectors ; receiving, at each of a plurality of lighting units of at least one Outdoor Lighting Network, monitoring data from at least one of said visibility detectors , wherein at least two of said lighting units are in communication with each other; deriving a consolidated estimate of visibility conditions pertaining to a combined geographical area defined by the monitored geographical areas associated with two or more of said visibility detectors ; the method characterised by determining a position, direction and speed of said fog covered area from the consolidated estimate of visibility conditions; and transmitting information comprising the position, direction and speed of said fog covered area.
Steam reformer comprising: - a firebox with a bottom , a ceiling and side walls terminating the firebox , - catalyst tubes which are arranged in several rows and penetrate the bottom and/or the ceiling of the firebox, - burners arranged in the ceiling, the bottom or one or more side walls of the firebox for heating the catalyst tubes , - feed ducts extending below the bottom or above the ceiling of the firebox in each case for supplying the catalyst tubes with educt gas and for supplying the burners with air and fuel gas, - collecting ducts extending below the bottom or above the ceiling of the firebox for discharging the product gas , - channels extending below the bottom or above the ceiling of the firebox for removal of the burner waste gases from the firebox , wherein the channels have a wedge-shaped longitudinal profile which widens in the flow direction from the start to the end thereof, wherein the ceilings or bottoms of the channels are in each case formed by the bottom or the ceiling of the firebox , wherein the channels are arranged along and between the rows of catalyst tubes , and wherein the ceilings of the channels have openings for the passage of the waste gases , characterised in that the channels for removal of the burner waste gases are configured so that the flow velocity of the burner waste gases is constant over the entire length of the channels, viewed perpendicular to the catalyst tubes, and so that the openings in the channel ceilings are covered by gratings. - a firebox with a bottom , a ceiling and side walls terminating the firebox , - catalyst tubes which are arranged in several rows and penetrate the bottom and/or the ceiling of the firebox, - burners arranged in the ceiling, the bottom or one or more side walls of the firebox for heating the catalyst tubes , - feed ducts extending below the bottom or above the ceiling of the firebox in each case for supplying the catalyst tubes with educt gas and for supplying the burners with air and fuel gas, - collecting ducts extending below the bottom or above the ceiling of the firebox for discharging the product gas , - channels extending below the bottom or above the ceiling of the firebox for removal of the burner waste gases from the firebox , wherein the channels have a wedge-shaped longitudinal profile which widens in the flow direction from the start to the end thereof, wherein the ceilings or bottoms of the channels are in each case formed by the bottom or the ceiling of the firebox , wherein the channels are arranged along and between the rows of catalyst tubes , and wherein the ceilings of the channels have openings for the passage of the waste gases ,
A user terminal for sending a resource request indicator, RRI, characterized in comprising: an obtaining unit, configured to obtain a first code allocated for the RRI and a second code allocated for the RRI; and a sending unit, configured to send the RRI, wherein the RRI and an other uplink control signaling are multiplexed in the same time and frequency resource in a code division manner; wherein the first code allocated for the RRI and the second code allocated for the RRI are allocated in one time slot, and wherein the first code allocated for the RRI is orthogonal with a code allocated for a pilot part of the other uplink control signaling in the time domain and/or the frequency domain; and the second code allocated for the RRI is orthogonal with a code allocated for a data part of the other uplink control signaling in the time domain and/or the frequency domain; wherein the first code allocated for the RRI and the code allocated for the pilot part of the other uplink control signaling are sent in the same time and frequency resource, and the second code allocated for the RRI and the code allocated for the data part of the other uplink control signaling are sent in the same time and frequency resource. an obtaining unit, configured to obtain a first code allocated for the RRI and a second code allocated for the RRI; and a sending unit, configured to send the RRI, wherein the RRI and an other uplink control signaling are multiplexed in the same time and frequency resource in a code division manner; wherein the first code allocated for the RRI and the second code allocated for the RRI are allocated in one time slot, and wherein the first code allocated for the RRI is orthogonal with a code allocated for a pilot part of the other uplink control signaling in the time domain and/or the frequency domain; and the second code allocated for the RRI is orthogonal with a code allocated for a data part of the other uplink control signaling in the time domain and/or the frequency domain; wherein the first code allocated for the RRI and the code allocated for the pilot part of the other uplink control signaling are sent in the same time and frequency resource, and the second code allocated for the RRI and the code allocated for the data part of the other uplink control signaling are sent in the same time and frequency resource.
Vehicle headlight module , comprising - an electrical circuit arrangement for controlling at least one function of a vehicle headlamp , and - a housing for at least partially accommodating the electrical circuit arrangement , the housing having, at least in sections, a metallic electrically conductive shielding surface facing the circuit arrangement for electromagnetic shielding of the circuit arrangement , the electrical circuit arrangement having at least one contact-sensitive surface section which is designed to be largely flat, this contact-sensitive surface section being free of electrical components arranged thereon and facing a flat section of the shielding surface of the housing , electrical conductor tracks and/or contacts running along the contact-sensitive surface section , characterized in that a number of cured electrically non-conductive adhesive dots is arranged on the substantially flat contact-sensitive surface section , which adhesive dots project from the contact-sensitive surface section in the direction of the flat section of the shielding surface of the housing in order to ensure a minimum distance between the contact-sensitive surface section and the flat section of the shielding surface of the housing . - an electrical circuit arrangement for controlling at least one function of a vehicle headlamp , and - a housing for at least partially accommodating the electrical circuit arrangement , the housing having, at least in sections, a metallic electrically conductive shielding surface facing the circuit arrangement for electromagnetic shielding of the circuit arrangement , the electrical circuit arrangement having at least one contact-sensitive surface section which is designed to be largely flat, this contact-sensitive surface section being free of electrical components arranged thereon and facing a flat section of the shielding surface of the housing , electrical conductor tracks and/or contacts running along the contact-sensitive surface section , characterized in that a number of cured electrically non-conductive adhesive dots is arranged on the substantially flat contact-sensitive surface section , which adhesive dots project from the contact-sensitive surface section in the direction of the flat section of the shielding surface of the housing in order to ensure a minimum distance between the contact-sensitive surface section and the flat section of the shielding surface of the housing .
A method comprising the steps of: receiving one or more signals indicating site conditions at and/or near a wind turbine; determining an optimal tilt angle for said wind turbine based on said received one or more signals indicating site conditions, the method being characterised by the additional steps of : converting said determined optimal tilt angle into a tilt and roll angle based on a yaw direction of the wind turbine; and transmitting said determined tilt and roll angle to a platform controller such that said wind turbine can be inclined said optimal tilt angle. receiving one or more signals indicating site conditions at and/or near a wind turbine; determining an optimal tilt angle for said wind turbine based on said received one or more signals indicating site conditions, the method being characterised by the additional steps of : converting said determined optimal tilt angle into a tilt and roll angle based on a yaw direction of the wind turbine; and transmitting said determined tilt and roll angle to a platform controller such that said wind turbine can be inclined said optimal tilt angle. converting said determined optimal tilt angle into a tilt and roll angle based on a yaw direction of the wind turbine; and transmitting said determined tilt and roll angle to a platform controller such that said wind turbine can be inclined said optimal tilt angle.
Optical receiver configured to receive an optical signal (s1) from at least one optical link , wherein said optical receiver is configured to determine at least one parameter characterizing a quality of said optical link other than an input power of the received optical signal (s1), and to transmit said at least one parameter and/or information derived from said at least one parameter to a further device , wherein said at least one parameter is a parameter (P3) characterizing a number of bit errors prior to a forward error correction, FEC, stage of said optical receiver , wherein said optical receiver comprises a control unit , and wherein said control unit is configured to determine said at least one parameter.
A method, comprising: receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations ; re-meshing the input mesh into a regular mesh comprising regularized polygons ; data fitting the set of measured locations and respective LATs to the regularized polygons ; iteratively calculating for the regularized polygons (i) respective LAT values and (ii) respective probabilities that the wall tissue comprises scar tissue, so as to obtain an electrophysiological (EP) activation wave over the regular mesh that indicates scar tissue (81-100); and presenting an electroanatomical map, comprising the EP activation wave and the scar tissue, overlaid on the regular mesh ; and binary tagging at least some of the measured locations to indicate at least one of a presence of a scar and a presence of a double EP potential. receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations ; re-meshing the input mesh into a regular mesh comprising regularized polygons ; data fitting the set of measured locations and respective LATs to the regularized polygons ; iteratively calculating for the regularized polygons (i) respective LAT values and (ii) respective probabilities that the wall tissue comprises scar tissue, so as to obtain an electrophysiological (EP) activation wave over the regular mesh that indicates scar tissue (81-100); and presenting an electroanatomical map, comprising the EP activation wave and the scar tissue, overlaid on the regular mesh ; and binary tagging at least some of the measured locations to indicate at least one of a presence of a scar and a presence of a double EP potential.
Method of manufacturing an out of plane axis accelerometer having • a base substrate and • a Silicon on insulator (SOI) wafer ; comprising the steps of I. forming a buried oxide layer on the SOI wafer ; II. forming a recess region providing a gap for a bottom electrode on the base substrate , III. forming a protection layer on the base substrate ; IV. forming the bottom electrode inside the formed recess region , V. forming eutectic bonding metal lines , a metal inter connection line and electrical connection pads on the base substrate ; VI. forming a recess on a handle layer of the SOI wafer; VII. forming a top electrode on the handle layer of the SOI wafer; VIII. forming a top electrode metal connection line inside the recess on the handle layer of the SOI wafer; IX. forming a proof mass on the structural layer of the SOI wafer, comprising perforation holes and being located between the top and the bottom electrodes , for detecting the acceleration in the out of plane axis accelerometer, the proof mass becomes suspended after selectively etching the buried oxide layer of the SOI wafer; X. eutectic bonding of the SOI wafer to the base substrate ; XI. releasing and suspending the proof mass by selectively etching the buried oxide layer of the SOI wafer through the perforation holes defined on the proof mass of the out of plane accelerometer. • a base substrate and • a Silicon on insulator (SOI) wafer ; I. forming a buried oxide layer on the SOI wafer ; II. forming a recess region providing a gap for a bottom electrode on the base substrate , III. forming a protection layer on the base substrate ; IV. forming the bottom electrode inside the formed recess region , V. forming eutectic bonding metal lines , a metal inter connection line and electrical connection pads on the base substrate ; VI. forming a recess on a handle layer of the SOI wafer; VII. forming a top electrode on the handle layer of the SOI wafer; VIII. forming a top electrode metal connection line inside the recess on the handle layer of the SOI wafer; IX. forming a proof mass on the structural layer of the SOI wafer, comprising perforation holes and being located between the top and the bottom electrodes , for detecting the acceleration in the out of plane axis accelerometer, the proof mass becomes suspended after selectively etching the buried oxide layer of the SOI wafer; X. eutectic bonding of the SOI wafer to the base substrate ; XI. releasing and suspending the proof mass by selectively etching the buried oxide layer of the SOI wafer through the perforation holes defined on the proof mass of the out of plane accelerometer.
A synergistic antimicrobial composition comprising bis-(3-aminopropyl)dodecylamine and sorbic acid, or a salt thereof, wherein the weight ratio of the bis-(3-aminopropyl)dodecylamine to sorbic acid is from 1:10 to 1:100.