mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a heating element comprising: preparing a bonding film , wherein the bonding film includes a first bonding film (no) and a second bonding film ; forming a conductive heating pattern on the first bonding film , wherein an upper surface of the conductive heating pattern is exposed and the rest is embedded in the bonding film ; laminating a transparent substrate on at least one surface of the bonding film provided with the conductive heating pattern ; and characterized by laminating the second bonding film and the transparent substrate on the first bonding film (no), bonding the second bonding film on a surface opposite to the surface provided with the conductive heating pattern of the first bonding film , wherein the forming of the conductive heating pattern on the bonding film includes: - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film ; - applying an external stimulus to the adhesive film ; and - removing the adhesive film . preparing a bonding film , wherein the bonding film includes a first bonding film (no) and a second bonding film ; forming a conductive heating pattern on the first bonding film , wherein an upper surface of the conductive heating pattern is exposed and the rest is embedded in the bonding film ; laminating a transparent substrate on at least one surface of the bonding film provided with the conductive heating pattern ; and characterized by laminating the second bonding film and the transparent substrate on the first bonding film (no), bonding the second bonding film on a surface opposite to the surface provided with the conductive heating pattern of the first bonding film , wherein the forming of the conductive heating pattern on the bonding film includes: - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film ; - applying an external stimulus to the adhesive film ; and - removing the adhesive film . - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film ; - applying an external stimulus to the adhesive film ; and - removing the adhesive film .
A computer implemented method, comprising: receiving, at a computing device , an authorized command from a requesting device to initiate a lost mode on the computing device , wherein the authorized command results from authentication of a requesting user; and initiating the lost mode on the computing device upon receiving the authorized command, wherein initiating the lost mode comprises: suppressing select functionality of the computing device ; after suppressing select functionality of the computing device , transmitting to the requesting device first location data identifying a first location of the computing device and a time at which the computing device was at the first location; and transmitting to the requesting device second location data identifying a second location of the computing device based on a heuristic that determines when the requesting user desires location data to be transmitted to the requesting device , wherein the requesting user is the owner of the computing device . receiving, at a computing device , an authorized command from a requesting device to initiate a lost mode on the computing device , wherein the authorized command results from authentication of a requesting user; and initiating the lost mode on the computing device upon receiving the authorized command, wherein initiating the lost mode comprises: suppressing select functionality of the computing device ; after suppressing select functionality of the computing device , transmitting to the requesting device first location data identifying a first location of the computing device and a time at which the computing device was at the first location; and transmitting to the requesting device second location data identifying a second location of the computing device based on a heuristic that determines when the requesting user desires location data to be transmitted to the requesting device , suppressing select functionality of the computing device ; after suppressing select functionality of the computing device , transmitting to the requesting device first location data identifying a first location of the computing device and a time at which the computing device was at the first location; and transmitting to the requesting device second location data identifying a second location of the computing device based on a heuristic that determines when the requesting user desires location data to be transmitted to the requesting device , wherein the requesting user is the owner of the computing device .
A communications device for transmitting data to or receiving data from a wireless communications network, the communications device comprising transmitter circuitry configured to transmit signals to one or more infrastructure equipment of the wireless communications network via a wireless access interface provided by the one or more infrastructure equipment, receiver circuitry configured to receive signals from one or more of the infrastructure equipment via the wireless access interface, and controller circuitry configured to control the transmitter circuitry and the receiver circuitry to transmit or to receive the signals representing data, wherein when the communications device is in an inactive state, the controller circuitry is configured in combination with the receiver circuitry and the transmitter circuitry to transmit , as a first message of a random access, RACH, procedure, a first signal comprising a random access preamble and a first portion of data to one of the infrastructure equipment, to receive , as a second message of the RACH procedure, a random access response message from the infrastructure equipment, the random access response message comprising an indication of an uplink grant, the uplink grant comprising second radio resources which can be used by the communications device for the transmission of a second signal, and to transmit , as a third message of the RACH procedure, the second signal comprising a second portion of the data to the infrastructure equipment in the second radio resources. transmitter circuitry configured to transmit signals to one or more infrastructure equipment of the wireless communications network via a wireless access interface provided by the one or more infrastructure equipment, receiver circuitry configured to receive signals from one or more of the infrastructure equipment via the wireless access interface, and controller circuitry configured to control the transmitter circuitry and the receiver circuitry to transmit or to receive the signals representing data, wherein when the communications device is in an inactive state, the controller circuitry is configured in combination with the receiver circuitry and the transmitter circuitry to transmit , as a first message of a random access, RACH, procedure, a first signal comprising a random access preamble and a first portion of data to one of the infrastructure equipment, to receive , as a second message of the RACH procedure, a random access response message from the infrastructure equipment, the random access response message comprising an indication of an uplink grant, the uplink grant comprising second radio resources which can be used by the communications device for the transmission of a second signal, and to transmit , as a third message of the RACH procedure, the second signal comprising a second portion of the data to the infrastructure equipment in the second radio resources.
Method for bottom up geometry freezing and/or nucleation of a sample solution, comprising the following steps: pre-cooling a device to a temperature substantially below the solution nucleation temperature, wherein the device comprises at the bottom a heat transfer surface and pressing means; placing a container containing the biological solution into a holder, wherein the holder comprises a low heat conductivity material; contacting the container with the heat transfer surface by pressing the holder against the heat transfer surface, until a fraction of 10% of the total sample volume is frozen; interrupting the contact between the container and the heat transfer surface by placing the container away from the heat transfer surface; contacting the container with the heat transfer surface at a predefined freezing rate by pressing the holder against the heat transfer surface, such that the freezing of the biological solution is homogeneous; until all the volume of the solution is frozen. pre-cooling a device to a temperature substantially below the solution nucleation temperature, wherein the device comprises at the bottom a heat transfer surface and pressing means; placing a container containing the biological solution into a holder, wherein the holder comprises a low heat conductivity material; contacting the container with the heat transfer surface by pressing the holder against the heat transfer surface, until a fraction of 10% of the total sample volume is frozen; interrupting the contact between the container and the heat transfer surface by placing the container away from the heat transfer surface; contacting the container with the heat transfer surface at a predefined freezing rate by pressing the holder against the heat transfer surface, such that the freezing of the biological solution is homogeneous; until all the volume of the solution is frozen.
A composition comprising water, synephrine, and pegylated caprylic/capric glycerides, wherein the synephrine is p-synephrine free base or a salt, solvate or hydrate thereof, and wherein the composition comprises synephrine in an amount equivalent to 10% to 60% by weight of p -synephrine free base.
Method for manufacturing a complex component for a lighting and/or signalling device of a motor vehicle, this method comprising the following step: - joining together, in order to form the complex component , at least two component elements , each of these component elements having a predetermined appearance chosen in particular from the following appearances: translucent, transparent, reflective, diffusing, opalescent, opaque, fluorescent, metallized, painted, the two component elements having the same appearance and the complex component having at least one undercut , said undercut only becoming apparent on the complex component after the component elements have been joined together, the method being characterized in that each component element is separately demouldable, the complex component having the final appearance of an integral component made in one piece. - joining together, in order to form the complex component , at least two component elements , each of these component elements having a predetermined appearance chosen in particular from the following appearances: translucent, transparent, reflective, diffusing, opalescent, opaque, fluorescent, metallized, painted,
A cutting head configured to rotate about an axis to remove material from a workpiece, the cutting head comprising: a base surface ; a side region connected to said base surface ; a top region connected to said side region and defining a central area and a periphery ; and top teeth disposed on said top region , wherein each said top tooth defines a spoke axis , said top teeth having cutting edges configured to contact said workpiece to remove said material, each said cutting edge extending from said central area towards said periphery and including an axially extending peak portion , wherein each said cutting edge includes a leading face facing a direction of rotation of said cutting head and a trailing face , said leading face including a flat zone parallel to said spoke axis and an undercut face below said flat zone , wherein said flat zone is disposed at a first non-zero angle relative to a reference plane parallel to said axis of rotation of said cutting head , wherein said flat zone angle is configured such that a bottom of said flat zone lags a top of said flat zone in said direction of rotation of said cutting head , wherein said undercut face is disposed at a second non-zero angle relative to said reference plane . a base surface ; a side region connected to said base surface ; a top region connected to said side region and defining a central area and a periphery ; and top teeth disposed on said top region , wherein each said top tooth defines a spoke axis , said top teeth having cutting edges configured to contact said workpiece to remove said material, each said cutting edge extending from said central area towards said periphery and including an axially extending peak portion , wherein each said cutting edge includes a leading face facing a direction of rotation of said cutting head and a trailing face , said leading face including a flat zone parallel to said spoke axis and an undercut face below said flat zone , wherein said flat zone is disposed at a first non-zero angle relative to a reference plane parallel to said axis of rotation of said cutting head , wherein said flat zone angle is configured such that a bottom of said flat zone lags a top of said flat zone in said direction of rotation of said cutting head , wherein said undercut face is disposed at a second non-zero angle relative to said reference plane .
A vehicle power supply system, comprising: a main battery ; a sub-battery with output voltage lower than that of the main battery ; a power converter including an input end connected to the main battery and an output end connected to a motor for traveling and configured to convert output power of the main battery to driving power for the motor ; a voltage converter connected between the main battery and the sub-battery , the voltage converter being configured to step down a voltage of the main battery to a voltage of the sub-battery ; a charging inlet connected to the main battery and configured to connect to a power supply device outside a vehicle; a capacitor connected between a positive electrode and a negative electrode of the input end of the power converter ; and a coil connected between the main battery and the voltage converter , the coil being connected to the capacitor not via a charging power path (CP) from the charging inlet to the main battery , characterized in that : the coil is a common mode choke coil and includes a first winding and a second winding ; the first winding is connected to a positive wire connecting one terminal of the capacitor to the voltage converter ; the second winding is connected to a negative wire connecting another terminal of the capacitor to the voltage converter ; and the first winding and the second winding are wound in the same direction.. a main battery ; a sub-battery with output voltage lower than that of the main battery ; a power converter including an input end connected to the main battery and an output end connected to a motor for traveling and configured to convert output power of the main battery to driving power for the motor ; a voltage converter connected between the main battery and the sub-battery , the voltage converter being configured to step down a voltage of the main battery to a voltage of the sub-battery ; a charging inlet connected to the main battery and configured to connect to a power supply device outside a vehicle; a capacitor connected between a positive electrode and a negative electrode of the input end of the power converter ; and a coil connected between the main battery and the voltage converter , the coil being connected to the capacitor not via a charging power path (CP) from the charging inlet to the main battery , characterized in that : the coil is a common mode choke coil and includes a first winding and a second winding ; the first winding is connected to a positive wire connecting one terminal of the capacitor to the voltage converter ; the second winding is connected to a negative wire connecting another terminal of the capacitor to the voltage converter ; and the first winding and the second winding are wound in the same direction.. the coil is a common mode choke coil and includes a first winding and a second winding ; the first winding is connected to a positive wire connecting one terminal of the capacitor to the voltage converter ; the second winding is connected to a negative wire connecting another terminal of the capacitor to the voltage converter ; and the first winding and the second winding are wound in the same direction..
An extraction system comprising: a hood having an outer shroud and an inner shroud , the inner shroud being at least partially disposed in the outer shroud to define an annular area therebetween for receiving a positive pressure gas stream, the inner shroud further including a single peripheral flange at a lower edge thereof for directing the positive pressure gas stream around a work area once the positive pressure gas stream passes a lower peripheral edge of the outer shroud , the inner shroud being configured to draw airborne components from the work area , characterized in that a gap between the lower peripheral edge of the outer shroud and the peripheral flange is axially adjustable, wherein a movable outer shroud section is configured to rotate to cause axial translation of the movable outer shroud section to permit adjustment of flow of the positive pressure gas stream, and wherein the peripheral flange is perpendicular to a centerline of the inner shroud for directing the positive pressure gas stream radially outwardly. a hood having an outer shroud and an inner shroud , the inner shroud being at least partially disposed in the outer shroud to define an annular area therebetween for receiving a positive pressure gas stream, the inner shroud further including a single peripheral flange at a lower edge thereof for directing the positive pressure gas stream around a work area once the positive pressure gas stream passes a lower peripheral edge of the outer shroud , the inner shroud being configured to draw airborne components from the work area , characterized in that a gap between the lower peripheral edge of the outer shroud and the peripheral flange is axially adjustable, wherein a movable outer shroud section is configured to rotate to cause axial translation of the movable outer shroud section to permit adjustment of flow of the positive pressure gas stream, and wherein the peripheral flange is perpendicular to a centerline of the inner shroud for directing the positive pressure gas stream radially outwardly.
A system for generating ultrasound data in respect of an anatomical body being scanned, comprising: an input for receiving a time sequence of 2D and/or 3D ultrasound images of the anatomical body; a memory which stores a model of the anatomical body which comprises structures of interest of the anatomical body, and stores a predetermined scan protocol specifying a sequence of types of ultrasound scan of the structures of interest, the sequence having a fixed order; and a controller which is configured to: register the received ultrasound images with the model thereby to identify the structures of interest within the ultrasound images; identify best images for the types of scan of the identified structures of interest specified in the protocol; and compile the sequence with the fixed order, specified in the protocol, of the best images, the compiled sequence taking the form of a video sequence, the video sequence comprising video snippets each of which is for one of the structures of interest and includes the respective best image as a frame within the video snippet, the video snippets assembled according to the fixed order of the scan protocol. an input for receiving a time sequence of 2D and/or 3D ultrasound images of the anatomical body; a memory which stores a model of the anatomical body which comprises structures of interest of the anatomical body, and stores a predetermined scan protocol specifying a sequence of types of ultrasound scan of the structures of interest, the sequence having a fixed order; and a controller which is configured to: register the received ultrasound images with the model thereby to identify the structures of interest within the ultrasound images; identify best images for the types of scan of the identified structures of interest specified in the protocol; and compile the sequence with the fixed order, specified in the protocol, of the best images, register the received ultrasound images with the model thereby to identify the structures of interest within the ultrasound images; identify best images for the types of scan of the identified structures of interest specified in the protocol; and compile the sequence with the fixed order, specified in the protocol, of the best images, the compiled sequence taking the form of a video sequence, the video sequence comprising video snippets each of which is for one of the structures of interest and includes the respective best image as a frame within the video snippet, the video snippets assembled according to the fixed order of the scan protocol.
Method of manufacturing a safety belt buckle , the safety belt buckle comprising: providing a base member ; and providing a release member , the release member configured to release a tongue held between the release member and the base member when the release member is pulled away from the base member , coupling the release member to the base member , characterized by the step of manufacturing the release member by printing a plurality of device layers and disposing a metal coating over the plurality of printed device layers . providing a base member ; and providing a release member , the release member configured to release a tongue held between the release member and the base member when the release member is pulled away from the base member , coupling the release member to the base member , characterized by the step of manufacturing the release member by printing a plurality of device layers and disposing a metal coating over the plurality of printed device layers .
A buffer store , comprising: a closed vessel housing to hold a storage fluid, especially water, wherein the vessel housing has at least one inlet opening for filling the vessel housing with the storage fluid, and at least one equalization opening , which connects the vessel housing fluidically to the surroundings and makes possible a fluidic equalization with the surroundings, as well as a gas-tight cover in the interior of the vessel housing , which is capable of reliably protecting the storage fluid against mixing with other fluids, such as the ambient air, characterized in that the gas-tight cover is formed as a film which floats at least for a portion on the storage fluid, especially the water. a closed vessel housing to hold a storage fluid, especially water, wherein the vessel housing has at least one inlet opening for filling the vessel housing with the storage fluid, and at least one equalization opening , which connects the vessel housing fluidically to the surroundings and makes possible a fluidic equalization with the surroundings, as well as a gas-tight cover in the interior of the vessel housing , which is capable of reliably protecting the storage fluid against mixing with other fluids, such as the ambient air, characterized in that the gas-tight cover is formed as a film which floats at least for a portion on the storage fluid, especially the water.