mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a head-up display comprising: an overhead unit comprising a relay lens assembly ; and a combiner ; an illuminated reticle spatially coupled to the relay lens assembly , wherein a movement of the relay lens assembly results in a commensurate movement of the illuminated reticle , wherein the illuminated reticle comprises a light emitting diode and a diffuser, wherein the illuminated reticle is configured to emit a light pattern; an optical sensor spatially coupled to the combiner or optically coupled to a mirror spatially coupled to the combiner , wherein the optical sensor is configured to detect the light pattern emitted from the illuminated reticle ; and a control module comprising one or more processors and a memory, wherein the control module is configured to: receive an input from the optical sensor ; determine a position of the combiner relative to the relay lens assembly based on the received input; and generate an output based on a determined position of the combiner relative to the relay lens assembly ; characterized in that the system is configured to: recognize the light pattern and determine an X, Z position of the reticle relative to the position of the sensor; and determine a distance from the sensor to the reticle based on a dispersion of the light pattern from the reticle. a head-up display comprising: an overhead unit comprising a relay lens assembly ; and a combiner ; an overhead unit comprising a relay lens assembly ; and a combiner ; an illuminated reticle spatially coupled to the relay lens assembly , wherein a movement of the relay lens assembly results in a commensurate movement of the illuminated reticle , wherein the illuminated reticle comprises a light emitting diode and a diffuser, wherein the illuminated reticle is configured to emit a light pattern; an optical sensor spatially coupled to the combiner or optically coupled to a mirror spatially coupled to the combiner , wherein the optical sensor is configured to detect the light pattern emitted from the illuminated reticle ; and a control module comprising one or more processors and a memory, wherein the control module is configured to: receive an input from the optical sensor ; determine a position of the combiner relative to the relay lens assembly based on the received input; and generate an output based on a determined position of the combiner relative to the relay lens assembly ; receive an input from the optical sensor ; determine a position of the combiner relative to the relay lens assembly based on the received input; and generate an output based on a determined position of the combiner relative to the relay lens assembly ; characterized in that the system is configured to: recognize the light pattern and determine an X, Z position of the reticle relative to the position of the sensor; and determine a distance from the sensor to the reticle based on a dispersion of the light pattern from the reticle. recognize the light pattern and determine an X, Z position of the reticle relative to the position of the sensor; and determine a distance from the sensor to the reticle based on a dispersion of the light pattern from the reticle.
An elevator control system coupled to an autonomous vehicle control system , configured to: receive an elevator call associated with a user; receive an indication of a demand for an autonomous vehicle, the indication being associated with the elevator call; and transmit a request for an autonomous vehicle to the autonomous vehicle control system based on the elevator call and the indication, wherein the request for an autonomous vehicle comprises elevator destination information. receive an elevator call associated with a user; receive an indication of a demand for an autonomous vehicle, the indication being associated with the elevator call; and transmit a request for an autonomous vehicle to the autonomous vehicle control system based on the elevator call and the indication, wherein the request for an autonomous vehicle comprises elevator destination information.
A method of making a coating solution, comprising the steps of : polymerising an initial monomer feed comprising an N-vinyl pyrrolidone and an acrylate salt in water to synthesise a copolymer thereof, the initial monomer feed comprising from about 3 to 35% by weight of acrylate salt, based on the total monomer content; acidifying the resulting copolymer-water mixture to give free carboxylic acid groups along the copolymer backbone; diluting the copolymer-water mixture with alcohol, wherein the copolymer-water mixture prior to dilution has a copolymer concentration of at least about 4% by weight and less than about 12% by weight, and wherein the step of diluting the copolymer-water mixture with alcohol is carried out such that the diluted mixture comprises 1 part copolymer-water mixture to 1-6 parts of alcohol by weight or volume; and adding a cross-linking agent which is capable of reacting with the carboxylic acid groups such as to cure the copolymer as and when the coating solution is applied to a substrate and the copolymer coated thereon, wherein the cross-linking agent is added in an amount between about 5% and 50% by weight relative to the copolymer. polymerising an initial monomer feed comprising an N-vinyl pyrrolidone and an acrylate salt in water to synthesise a copolymer thereof, the initial monomer feed comprising from about 3 to 35% by weight of acrylate salt, based on the total monomer content; acidifying the resulting copolymer-water mixture to give free carboxylic acid groups along the copolymer backbone; diluting the copolymer-water mixture with alcohol, wherein the copolymer-water mixture prior to dilution has a copolymer concentration of at least about 4% by weight and less than about 12% by weight, and wherein the step of diluting the copolymer-water mixture with alcohol is carried out such that the diluted mixture comprises 1 part copolymer-water mixture to 1-6 parts of alcohol by weight or volume; and adding a cross-linking agent which is capable of reacting with the carboxylic acid groups such as to cure the copolymer as and when the coating solution is applied to a substrate and the copolymer coated thereon, wherein the cross-linking agent is added in an amount between about 5% and 50% by weight relative to the copolymer.
Sheet-type baking substrate consisting of a sheet-type material which has, on an upper side , an embossed structuring that is provided with a non-stick coating, whereby bumps are provided on the upper side in order to reduce the surface area that bears against a product to be baked characterized in that an underside is smooth at least in some regions, and at least the smooth regions have a non-slip coating at least in some areas.
An information processing apparatus comprising: an image capturing control unit (101-03) configured to acquire image capturing conditions from an operator through an input unit and configured to control an OCT device to (a) perform scanning of a fundus based on the image capturing conditions and (b) acquire a plurality of data sets, the image capturing conditions including a number of B-scans per data set (m) and a number of data sets (r) ; acquisition means (101-01) configured to acquire the plurality of data sets from the OCT device, each data set including a plurality of pieces of tomographic data that represents a section of the fundus and obtained based on measurement light controlled to perform the number of B-scans (m) at the same position in the fundus in the same direction for the number of data sets (r), the plurality of data sets not including the same tomographic data as each other; first generation means (101-42) configured to generate at least one motion contrast image from each of the plurality of data sets acquired by the acquisition means, without generating a motion contrast image from across the data sets acquired by the acquisition means; and second generation means (101-43) configured to generate a single motion contrast image representing a cross section at a predetermined position in the fundus, based on the motion contrast image generated from at least one of the plurality of data sets. an image capturing control unit (101-03) configured to acquire image capturing conditions from an operator through an input unit and configured to control an OCT device to (a) perform scanning of a fundus based on the image capturing conditions and (b) acquire a plurality of data sets, the image capturing conditions including a number of B-scans per data set (m) and a number of data sets (r) ; acquisition means (101-01) configured to acquire the plurality of data sets from the OCT device, each data set including a plurality of pieces of tomographic data that represents a section of the fundus and obtained based on measurement light controlled to perform the number of B-scans (m) at the same position in the fundus in the same direction for the number of data sets (r), the plurality of data sets not including the same tomographic data as each other; first generation means (101-42) configured to generate at least one motion contrast image from each of the plurality of data sets acquired by the acquisition means, without generating a motion contrast image from across the data sets acquired by the acquisition means; and second generation means (101-43) configured to generate a single motion contrast image representing a cross section at a predetermined position in the fundus, based on the motion contrast image generated from at least one of the plurality of data sets.
A method for displaying ultrasound imaging data, the method comprising: generating an image from ultrasound data representative of a bodily structure and fluid flowing within the bodily structure; generating, from the ultrasound data, vector field data corresponding to the fluid flow, wherein the vector field data comprises axial and lateral velocity components of the fluid; defining a flow mask based on the available vector field data; dynamically updating the flow mask in subsequent image frames based on temporal variations of the available vector field data in corresponding vector flow frames; and displaying, on a user interface , a graphical representation of the vector field data overlaid on the image, wherein the graphical representation of the vector field data comprises a vector map including a flow mask layer defining a sub-region corresponding to the vector field data and a vector visualization layer illustrating at least partial trajectories of velocity vectors in the sub-region; extracting spatiotemporal information from the vector field data at one or more user-selected points within the image, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow; and concurrently displaying the spatiotemporal information at the one or more user-selected points with the image including the graphical representation of the vector field data, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow. generating an image from ultrasound data representative of a bodily structure and fluid flowing within the bodily structure; generating, from the ultrasound data, vector field data corresponding to the fluid flow, wherein the vector field data comprises axial and lateral velocity components of the fluid; defining a flow mask based on the available vector field data; dynamically updating the flow mask in subsequent image frames based on temporal variations of the available vector field data in corresponding vector flow frames; and displaying, on a user interface , a graphical representation of the vector field data overlaid on the image, wherein the graphical representation of the vector field data comprises a vector map including a flow mask layer defining a sub-region corresponding to the vector field data and a vector visualization layer illustrating at least partial trajectories of velocity vectors in the sub-region; extracting spatiotemporal information from the vector field data at one or more user-selected points within the image, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow; and concurrently displaying the spatiotemporal information at the one or more user-selected points with the image including the graphical representation of the vector field data, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow.
Method for monitoring an interior space state of a vehicle , comprising the following features: - at least one item of interior space equipment , wherein this this item of interior space equipment is arranged in the vehicle interior space , - at least one image recording apparatus for monitoring the vehicle interior space , wherein the image recording device is arranged in the vehicle interior space , - a device for evaluating the image data from the image recording devices , wherein the evaluation device receives image data from the image recording devices , wherein the evaluation device determines an actual state of the items of interior space equipment on the basis of the image data, compares this actual state with a desired state of the items of interior space equipment and, in the event of a deviation, determines this deviation, wherein the image recording devices in the vehicle interior are video cameras which serve to monitor persons. - at least one item of interior space equipment , wherein this this item of interior space equipment is arranged in the vehicle interior space , - at least one image recording apparatus for monitoring the vehicle interior space , wherein the image recording device is arranged in the vehicle interior space , - a device for evaluating the image data from the image recording devices , wherein the evaluation device receives image data from the image recording devices ,
An electric motor for an electric vehicle comprising: a frame ; a stator disposed in the frame; a rotor disposed to be rotatable with respect to the stator; and an engaging portion that restricts the stator from moving with respect to the frame in a circumferential direction, the engaging portion including at least one rib protruding from one of the surfaces of the frame and the stator, and at least one rib accommodation portion formed at another of the surfaces of the frame and the stator, wherein the at least one rib and the at least one accommodation portion are engaged to allow heat to be transferred therebetween, wherein at least one cooling path through which a cooling fluid flows, is formed at the frame to cool the stator. a frame ; a stator disposed in the frame; a rotor disposed to be rotatable with respect to the stator; and an engaging portion that restricts the stator from moving with respect to the frame in a circumferential direction, the engaging portion including at least one rib protruding from one of the surfaces of the frame and the stator, and at least one rib accommodation portion formed at another of the surfaces of the frame and the stator, wherein the at least one rib and the at least one accommodation portion are engaged to allow heat to be transferred therebetween, wherein at least one cooling path through which a cooling fluid flows, is formed at the frame to cool the stator.
An apparatus, in particular a compressor , for generating compressed air for a utility vehicle, having: a compression chamber for compressing air into compressed air; a compressed-air outlet channel for discharging compressed air from the compression chamber ; an outlet valve , via which the compression chamber and the compressed-air outlet channel can be connected to one another; and an additional valve for an energy-saving mode of the apparatus, via which the compression chamber and the compressed-air outlet channel can be connected, wherein, by means of the additional valve , the compressed-air outlet channel can be used at least partially as a selectable dead space when the additional valve is open, characterized by: an in particular pneumatically actuated shut-off valve , which is arranged in the compressed-air outlet channel or downstream of the compressed-air outlet channel , wherein: the shut-off valve is continuously closed in the energy-saving mode of the apparatus, the shut-off valve is continuously open during a normal compression operation of the apparatus; and the shut-off valve delimits the selectable dead space , in particular on the downstream side, in a closed position. a compression chamber for compressing air into compressed air; a compressed-air outlet channel for discharging compressed air from the compression chamber ; an outlet valve , via which the compression chamber and the compressed-air outlet channel can be connected to one another; and an additional valve for an energy-saving mode of the apparatus, via which the compression chamber and the compressed-air outlet channel can be connected, wherein, by means of the additional valve , the compressed-air outlet channel can be used at least partially as a selectable dead space when the additional valve is open, characterized by: an in particular pneumatically actuated shut-off valve , which is arranged in the compressed-air outlet channel or downstream of the compressed-air outlet channel , wherein: the shut-off valve is continuously closed in the energy-saving mode of the apparatus, the shut-off valve is continuously open during a normal compression operation of the apparatus; and the shut-off valve delimits the selectable dead space , in particular on the downstream side, in a closed position. the shut-off valve is continuously closed in the energy-saving mode of the apparatus, the shut-off valve is continuously open during a normal compression operation of the apparatus; and the shut-off valve delimits the selectable dead space , in particular on the downstream side, in a closed position.
Woven fabric, particularly a warp faced fabric, such as a denim fabric, comprising: a front and a back , a plurality of picks extending in weft direction (H) and a plurality of warp yarns extending in warp direction (V) and bypassing picks at their front side to define over portions and bypassing picks at their back side to define under portions , wherein each under portion extends on the back side of the picks between two adjacent over portions, wherein said plurality of warp yarns comprise frontside warp yarns and backside warp yarns , said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns , wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between the over portions between which said loose loop under portion extends, wherein said frontside warp yarns and said backside warp yarns are selected and/or woven such that at least 25% of the frontside warp yarns are laterally in contact with each adjacently neighboring frontside warp yarn such that the front side warp yarns form a closely woven frontside warp yarn arrangement and structurally isolate the backside warp yarns from the front of the fabric. a front and a back , a plurality of picks extending in weft direction (H) and a plurality of warp yarns extending in warp direction (V) and bypassing picks at their front side to define over portions and bypassing picks at their back side to define under portions , wherein each under portion extends on the back side of the picks between two adjacent over portions, wherein said plurality of warp yarns comprise frontside warp yarns and backside warp yarns , said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns , wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between the over portions between which said loose loop under portion extends, wherein said frontside warp yarns and said backside warp yarns are selected and/or woven such that at least 25% of the frontside warp yarns are laterally in contact with each adjacently neighboring frontside warp yarn such that the front side warp yarns form a closely woven frontside warp yarn arrangement and structurally isolate the backside warp yarns from the front of the fabric.
A radio frequency (RF) driver circuit for an acousto-optical component , characterized in that the RF driver circuit has an RF power amplifier connected to a voltage regulator for supply with a supply voltage and a bias voltage generator , which is connected via a switching element to an input of the power amplifier , wherein the switching element is designed to switch off the bias voltage generator in the 10 to 50 ns range.
A method for determining a position of a terminal device in a wireless communication system, the method comprising: - broadcasting a first message (130-133) by the terminal device , the first message (130-133) comprising a positioning request and a terminal identifier identifying the terminal device , - receiving the first message (130-133) at a group of neighboring devices (120-123), the group of neighboring devices (120-123) comprising at least one neighboring device, each neighboring device of the group of neighboring devices (120-123) being located within a wireless radio communication range of the terminal device , - transmitting from one or more neighboring devices of the group of neighboring devices (120-123) a corresponding second message to a location server of the wireless communication system , the second message comprising the terminal identifier and an indication that the terminal device requested a positioning, - determining for each neighboring device of the one or more neighboring devices a corresponding position information, and - determining, at the location server , the position of the terminal device based on the position information of the one or more neighboring devices . - broadcasting a first message (130-133) by the terminal device , the first message (130-133) comprising a positioning request and a terminal identifier identifying the terminal device , - receiving the first message (130-133) at a group of neighboring devices (120-123), the group of neighboring devices (120-123) comprising at least one neighboring device, each neighboring device of the group of neighboring devices (120-123) being located within a wireless radio communication range of the terminal device , - transmitting from one or more neighboring devices of the group of neighboring devices (120-123) a corresponding second message to a location server of the wireless communication system , the second message comprising the terminal identifier and an indication that the terminal device requested a positioning, - determining for each neighboring device of the one or more neighboring devices a corresponding position information, and - determining, at the location server , the position of the terminal device based on the position information of the one or more neighboring devices .