mhurhangee/patent-ind-claim-en huggingface dataset:
Hotplate device with at least one variable cooking surface area , which has at least one subarea , which is provided to carry out special heating processes, which deviate from a normal heating of a positioned item of cookware , with which a control input of at least one operating parameter is required by means of a control unit , and with a controller , which is provided, in the case of detecting a positioned item of cookware in the subarea , to automatically offer a catalogue of a number of special heating processes for selection, characterised in that the catalogue comprises at least one heating process using earlier heating settings or at least one grill heating process or at least one boost heating process, in which the controller operates at least one heating element , which is assigned to the positioned item of cookware , during an in particular predetermined period of time with a heating output density which extends beyond a normal heating output density.
Guide device for machines for mechanical processing, comprising at least one housing seat of at least one work tool , particularly for bending presses, comprising: - at least one attachment portion associated in a removable manner with said at least one housing seat ; - at least one projection portion configured to project a light radiation defining at least one bending line on a sheet-like element to be bent; characterized by the fact that it comprises on/off switching means of said laser device comprising at least one wireless device configured to allow the on and/or off switching of said laser device remotely and by the fact that it comprises a programming and control unit operationally connected to said wireless device and configured to allow the on and/or off switching of said laser device at predefined time intervals. - at least one attachment portion associated in a removable manner with said at least one housing seat ; - at least one projection portion configured to project a light radiation defining at least one bending line on a sheet-like element to be bent;
A display apparatus comprising: an image display device , wherein the image display device includes (A) an image forming device , and (B) an optical system that guides an image, which originates from the image forming device , into a pupil of a viewer, wherein, assuming that a direction of the image forming device corresponding to a first direction of the image is an X direction and a direction of the image forming device corresponding to a second direction of the image different from the first direction is a Y direction, the image forming device is curved along the X direction, the Y direction, or the X and Y directions, and wherein the image display device further includes an image-forming-device-to-optical-system distance adjustment unit that adjusts a distance between the image forming device and the optical system , wherein the display apparatus further comprises a display control device being adapted to control a size of the entire image obtained from the image forming device in accordance with the distance between the image forming device and the optical system , and wherein the display control device is adapted to control the size of the entire image by means of signal processing. an image display device , wherein the image display device includes (A) an image forming device , and (B) an optical system that guides an image, which originates from the image forming device , into a pupil of a viewer, (A) an image forming device , and (B) an optical system that guides an image, which originates from the image forming device , into a pupil of a viewer, wherein, assuming that a direction of the image forming device corresponding to a first direction of the image is an X direction and a direction of the image forming device corresponding to a second direction of the image different from the first direction is a Y direction, the image forming device is curved along the X direction, the Y direction, or the X and Y directions, and wherein the image display device further includes an image-forming-device-to-optical-system distance adjustment unit that adjusts a distance between the image forming device and the optical system , wherein the display apparatus further comprises a display control device being adapted to control a size of the entire image obtained from the image forming device in accordance with the distance between the image forming device and the optical system , and wherein the display control device is adapted to control the size of the entire image by means of signal processing.
A solar absorbing-reflective film, comprising: at least one flexible infrared, IR, reflective transparent conductive film ; at least one flexible transparent conductive film ; at least one layer of liquid crystal dispersion located between said flexible IR reflective transparent conductive film and said flexible transparent conductive film; at least one electrical contact in communication with said flexible transparent conductive film; characterized in that said liquid crystal dispersion comprises metal-organic mesogen dye compositions ; and infrared reflection of said solar absorbing-reflective film is dynamically controllable by the amount of electric field applied to the liquid crystal dispersion, at least one flexible infrared, IR, reflective transparent conductive film ; at least one flexible transparent conductive film ; at least one layer of liquid crystal dispersion located between said flexible IR reflective transparent conductive film and said flexible transparent conductive film; at least one electrical contact in communication with said flexible transparent conductive film;
A method for screening nanoparticle suspensions to identify a suspension having a specific drug release rate, comprising: (a) separately preparing a plurality of suspensions having nanoparticles comprising a therapeutic agent, and 10 to 99 weight percent of one or more a block copolymers having at least one hydrophobic portion selected from poly(D,L-lactic) acid or poly(lactic) acid-co-poly(glycolic) acid and at least one hydrophilic portion which is a poly(ethylene)glycol, and optionally 0 to 75 weight percent of a homopolymer selected from poly(D,L-lactic) acid; wherein each suspension is in a separate compartment, each suspension comprises nanoparticles having a pre-determined molecular weight of the block copolymer and if present, a pre-determined molecular weight of the homopolymer; (b) determining the glass transition temperature of the drug loaded nanoparticles in each of the suspensions; and (c) identifying the suspension having drug-loaded nanoparticles with a pre-determined glass transition temperature of between 37°C to 39.5°C, 39.5°C to 41°C or 42°C to 50°C, thereby identifying a suspension with the specific drug release rate. (a) separately preparing a plurality of suspensions having nanoparticles comprising a therapeutic agent, and 10 to 99 weight percent of one or more a block copolymers having at least one hydrophobic portion selected from poly(D,L-lactic) acid or poly(lactic) acid-co-poly(glycolic) acid and at least one hydrophilic portion which is a poly(ethylene)glycol, and optionally 0 to 75 weight percent of a homopolymer selected from poly(D,L-lactic) acid; wherein each suspension is in a separate compartment, each suspension comprises nanoparticles having a pre-determined molecular weight of the block copolymer and if present, a pre-determined molecular weight of the homopolymer; (b) determining the glass transition temperature of the drug loaded nanoparticles in each of the suspensions; and (c) identifying the suspension having drug-loaded nanoparticles with a pre-determined glass transition temperature of between 37°C to 39.5°C, 39.5°C to 41°C or 42°C to 50°C, thereby identifying a suspension with the specific drug release rate.
A method for annealing a metal preform of a container, the preform having a sidewall , a closed end and an open end , the annealing method comprising the steps of: generating an electro-magnetic field; and shock annealing at least one region of the metal preform by exposing the preform to the electro-magnetic field for inductively heating the preform material to generate a temperature rise in the material of at least 120°C/sec to reach an annealing temperature in the range of 65% to 98% of the melting point temperature of the preform material. generating an electro-magnetic field; and shock annealing at least one region of the metal preform by exposing the preform to the electro-magnetic field for inductively heating the preform material to generate a temperature rise in the material of at least 120°C/sec to reach an annealing temperature in the range of 65% to 98% of the melting point temperature of the preform material.
A heavy goods vehicle , comprising: a steering unit , which is mounted on a vehicle frame of the heavy goods vehicle such that it is rotatable about an axis of rotation (C), and which has at least one connection portion that is configured to be connected to a steering device and/or a steering transmitter of the heavy goods vehicle , and the steering transmitter , which is connected to the steering unit and is configured to cause the steering unit to rotate about its axis of rotation (C), wherein the steering unit comprises at least one adjustment unit , which is variable in length and is configured to vary a spacing of at least one connection portion in relation to the axis of rotation (C) of the steering unit , wherein the heavy goods vehicle comprises a further steering device, wherein the steering unit is connected to both the one steering device and the further steering device, and wherein the variable-length adjustment unit of the steering unit is configured to displace at least one connection portion that is associated with the one steering device, in relation to the axis of rotation (C) of the steering unit , characterised in that the steering unit comprises a further adjustment unit , which is variable in length and is configured to displace at least one connection portion that is associated with the further steering device, in relation to the axis of rotation (C) of the steering unit . a steering unit , which is mounted on a vehicle frame of the heavy goods vehicle such that it is rotatable about an axis of rotation (C), and which has at least one connection portion that is configured to be connected to a steering device and/or a steering transmitter of the heavy goods vehicle , and the steering transmitter , which is connected to the steering unit and is configured to cause the steering unit to rotate about its axis of rotation (C), wherein the steering unit comprises at least one adjustment unit , which is variable in length and is configured to vary a spacing of at least one connection portion in relation to the axis of rotation (C) of the steering unit , wherein the heavy goods vehicle comprises a further steering device, wherein the steering unit is connected to both the one steering device and the further steering device, and wherein the variable-length adjustment unit of the steering unit is configured to displace at least one connection portion that is associated with the one steering device, in relation to the axis of rotation (C) of the steering unit , characterised in that the steering unit comprises a further adjustment unit , which is variable in length and is configured to displace at least one connection portion that is associated with the further steering device, in relation to the axis of rotation (C) of the steering unit .
A retaining device for an anemometer , formed for use on a fan housing of a fan , wherein the retaining device has retaining means, by means of which the anemometer can be fastened to the retaining device , axially adjoining the flow channels , characterized in that the retaining device is formed as a flow conditioner with multiple axial flow channels divided into a honeycomb structure by an arrangement of bars, and in that the arrangement of bars is formed by radial struts and circumferential struts .
A convolutional image processing filter for locating drops in an image obtained by microscopy, each of the filter and the image being formed of a set of points defining an n-hyperpatch in an n -dimension space, n being an integer greater than or equal to two, each point of the filter and of the image being associated with a numerical value, the filter including a first subset of points forming an n-ball and a second subset of points comprising the points not belonging to the first subset, the value of the points of the first subset being determined, from the centre towards the periphery of the n-ball, according to coefficients calculated by a Savitzky-Golay type polynomial approximation method, the value of the points of the second subset being zero.
Method for monitoring a driver of a vehicle, the method comprising: receiving a state of the driver ; receiving one or more objects of a real environment model of the vehicle; generating one or more objects of an envisioned environment model of the driver based on the one or more objects of the real environment model of the vehicle and the state of the driver , wherein, if the state of the driver indicates that at least one sense of the driver sensed a particular object of the real environment model , the particular object of the real environment model is added to the envisioned environment model ; the method characterised by : updating the one or more objects of the envisioned environment model based on the state of the driver , wherein the one or more objects of the envisioned environment model are updated by a physics engine if the state of the driver indicates that the driver is prevented from sensing the one or more objects of the real environment model . receiving a state of the driver ; receiving one or more objects of a real environment model of the vehicle; generating one or more objects of an envisioned environment model of the driver based on the one or more objects of the real environment model of the vehicle and the state of the driver , wherein, if the state of the driver indicates that at least one sense of the driver sensed a particular object of the real environment model , the particular object of the real environment model is added to the envisioned environment model ; the method characterised by : updating the one or more objects of the envisioned environment model based on the state of the driver , wherein the one or more objects of the envisioned environment model are updated by a physics engine if the state of the driver indicates that the driver is prevented from sensing the one or more objects of the real environment model .
A random access method, comprising: sending (S201), by a user equipment, UE, a random access request message to a base station, wherein the random access request message carries short subframe service information, the short subframe service information indicates that a short subframe service is to be performed by the UE, after a random access procedure is triggered, and duration of a short subframe is less than 1 millisecond; and transmitting (S202), by the UE, rest messages of the random access procedure after transmission of the random access request message, wherein the rest messages are transmitted over a resource corresponding to the short subframe service, and the resource comprises a time domain resource and a frequency domain resource that are configured by the base station for the UE to perform the short subframe service; wherein before the sending a random access request message to a base station, the method further comprises: receiving, by the user equipment, a broadcast message from the base station, wherein the broadcast message comprises information about a time domain resource and a frequency domain resource that are configured by the base station for performing the random access procedure by the UE. sending (S201), by a user equipment, UE, a random access request message to a base station, wherein the random access request message carries short subframe service information, the short subframe service information indicates that a short subframe service is to be performed by the UE, after a random access procedure is triggered, and duration of a short subframe is less than 1 millisecond; and transmitting (S202), by the UE, rest messages of the random access procedure after transmission of the random access request message, wherein the rest messages are transmitted over a resource corresponding to the short subframe service, and the resource comprises a time domain resource and a frequency domain resource that are configured by the base station for the UE to perform the short subframe service; wherein before the sending a random access request message to a base station, the method further comprises: receiving, by the user equipment, a broadcast message from the base station, wherein the broadcast message comprises information about a time domain resource and a frequency domain resource that are configured by the base station for performing the random access procedure by the UE.
A communication method performed by a terminal for random access, wherein carrier aggregation is performed on a licensed assisted access, LAA, cell and a licensed cell of a base station , the method is used by the terminal to perform non-contention-based random access based on the LAA cell, and the method comprises: receiving random access preamble information sent by the base station in one of a plurality of serving cells of the terminal , wherein the plurality of serving cells comprises the LAA cell and the licensed cell; sending a random access preamble to the base station in the LAA cell based on the random access preamble information; and receiving a random access response sent by the base station in the licensed cell, wherein the random access response comprises an uplink asynchronous hybrid automatic repeat request, HARQ, process identifier, wherein the uplink asynchronous HARQ process identifier is used by the terminal to send uplink data as a new transmission to the base station . receiving random access preamble information sent by the base station in one of a plurality of serving cells of the terminal , wherein the plurality of serving cells comprises the LAA cell and the licensed cell; sending a random access preamble to the base station in the LAA cell based on the random access preamble information; and receiving a random access response sent by the base station in the licensed cell, wherein the random access response comprises an uplink asynchronous hybrid automatic repeat request, HARQ, process identifier, wherein the uplink asynchronous HARQ process identifier is used by the terminal to send uplink data as a new transmission to the base station .
A multi-sensor assembly operable in characterizing a metallic structure, the multi-sensor assembly comprising: a housing comprising (i) at least one electrically conductive coil configured for operation as at least one electromagnetic acoustic transducer (EMAT) sensor and at least one eddy current (EC) sensor and (ii) at least one magnetic flux leakage (MFL) sensor , wherein the at least one electrically conductive coil and the at least one MFL sensor are configured in the housing such that when the housing is disposed adjacent to or in contact with the metallic structure, the at least one coil and the MFL sensor are operable to acquire EMAT, EC, and MFL signals from a localized region of the metallic structure corresponding to the portion of the housing disposed adjacent to or in contact with the metallic structure; and at least one deflection sensor configured to generate a signal representative of the spatial position of the housing in response to the topography of the metallic structure; wherein said signal representative of the spatial position of the housing is capable of being used to correct or compensate at least one of (i) at least one of the acquired EMAT, EC, and MFL signals, and (ii) at least one spatial position associated with at least one of the acquired EMAT, EC, and MFL signals. a housing comprising (i) at least one electrically conductive coil configured for operation as at least one electromagnetic acoustic transducer (EMAT) sensor and at least one eddy current (EC) sensor and (ii) at least one magnetic flux leakage (MFL) sensor , wherein the at least one electrically conductive coil and the at least one MFL sensor are configured in the housing such that when the housing is disposed adjacent to or in contact with the metallic structure, the at least one coil and the MFL sensor are operable to acquire EMAT, EC, and MFL signals from a localized region of the metallic structure corresponding to the portion of the housing disposed adjacent to or in contact with the metallic structure; and at least one deflection sensor configured to generate a signal representative of the spatial position of the housing in response to the topography of the metallic structure; wherein said signal representative of the spatial position of the housing is capable of being used to correct or compensate at least one of (i) at least one of the acquired EMAT, EC, and MFL signals, and (ii) at least one spatial position associated with at least one of the acquired EMAT, EC, and MFL signals.