mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an electrowetting display device including a first fluid and a second fluid immiscible with the first fluid, comprising: providing a first support plate; providing the second fluid as a reservoir of second fluid; providing the first fluid at least partly within a channel formed by: a part of a surface of the first support plate; an interface between the first fluid and the second fluid; and a further surface, the further surface being a surface of a roller positioned relative to and spaced from the part of the surface of the first support plate to form a constriction between the part of the surface of the first support plate and a part of the further surface closest to the part of the surface of the first support plate; and dispensing the first fluid on the part of the surface of the first support plate by moving the part of the surface of the first support plate along a side of the channel. providing a first support plate; providing the second fluid as a reservoir of second fluid; providing the first fluid at least partly within a channel formed by: a part of a surface of the first support plate; an interface between the first fluid and the second fluid; and a further surface, a part of a surface of the first support plate; an interface between the first fluid and the second fluid; and a further surface, the further surface being a surface of a roller positioned relative to and spaced from the part of the surface of the first support plate to form a constriction between the part of the surface of the first support plate and a part of the further surface closest to the part of the surface of the first support plate; and dispensing the first fluid on the part of the surface of the first support plate by moving the part of the surface of the first support plate along a side of the channel.
A method for co-existence of a distributed routing protocol and a centralized path computation performed by a device in a deterministic wireless low power and lossy network, LLN, said method comprising the steps of: communicating with a network operating a distributed proactive routing protocol; participating in a centralized path computation protocol; communicating routing characteristics of the distributed proactive routing protocol for the network from the network to the centralized path computation protocol; and communicating one or more computed paths from the centralized path computation protocol to the network, wherein the computed paths from the centralized path computation protocol are based on the routing characteristics of the distributed proactive routing protocol for the network, wherein the step of communicating further comprises: receiving reserved timeslots as a routing characteristic communicated to the centralized path computation protocol; and avoiding use of the reserved timeslots by the centralized path computation protocol. communicating with a network operating a distributed proactive routing protocol; participating in a centralized path computation protocol; communicating routing characteristics of the distributed proactive routing protocol for the network from the network to the centralized path computation protocol; and communicating one or more computed paths from the centralized path computation protocol to the network, wherein the computed paths from the centralized path computation protocol are based on the routing characteristics of the distributed proactive routing protocol for the network, wherein the step of communicating further comprises: receiving reserved timeslots as a routing characteristic communicated to the centralized path computation protocol; and avoiding use of the reserved timeslots by the centralized path computation protocol. receiving reserved timeslots as a routing characteristic communicated to the centralized path computation protocol; and avoiding use of the reserved timeslots by the centralized path computation protocol.
Method for the computer-aided control of the power in an electrical grid, wherein the electrical grid has a preset rated frequency and comprises a plurality of nodes (N1, N2,..., N5), which are connected to one another via electrical lines and each feed power into the electrical grid or draw power from the electrical grid, wherein the power fed into or drawn from the respective nodes (N1, N2,..., N5) is given via a proportionality relationship, in accordance with which, in a preset frequency range of the voltages at the respective node (N1, N2,..., N5), the power is set on the basis of a reference power (P10,..., P50), which is the drawn or fed power at the rated frequency, and on the basis of a proportionality factor (k1,..., k5) depending on the difference between the frequency of the voltage in the respective node (N1, N2,..., N5) and the rated frequency of the electrical grid, wherein a proportional controller is provided in at least some of the nodes (N1, N2,..., N5), for which proportional controller the reference power (P10, P20,..., P50) and/or the proportionality factor (k1, k2,..., k5) can be set, characterized in that a) a steady state of the electrical grid is modeled in which a constant frequency is met for all of the voltages of the nodes; b) an optimization problem is solved and hereby reference powers (P10, P20,..., P50) and proportionality factors (k1, k2,..., k5) are determined for at least some of the proportional controllers, wherein the optimization problem is defined on the basis of a condition for the modeled steady state, wherein when said condition is met, the phase differences between the voltages of adjacent nodes (N1, N2,..., N5) are each less than or less than or equal to a maximum phase value; c) the at least some of the proportional controllers are set to the reference powers (P10, P20,..., P50) and proportionality factors (k1, k2,..., k5) determined in step b). a) a steady state of the electrical grid is modeled in which a constant frequency is met for all of the voltages of the nodes; b) an optimization problem is solved and hereby reference powers (P10, P20,..., P50) and proportionality factors (k1, k2,..., k5) are determined for at least some of the proportional controllers, wherein the optimization problem is defined on the basis of a condition for the modeled steady state, wherein when said condition is met, the phase differences between the voltages of adjacent nodes (N1, N2,..., N5) are each less than or less than or equal to a maximum phase value; c) the at least some of the proportional controllers are set to the reference powers (P10, P20,..., P50) and proportionality factors (k1, k2,..., k5) determined in step b).
A vehicle seat, in particular motor vehicle seat, which is transferable from at least one use position, which is suitable for transporting a passenger, into an easy entry position as a non-use position, and back, comprising: a seat cushion, a backrest, a seat frame, the seat cushion and the backrest being coupled to the seat frame, a base, and a kinematics for the articulated connection of the seat frame to the base, wherein the kinematics comprises at least one link (214, 216) articulated connecting the seat frame to the base, wherein the at least one link (214, 216) is lockable with the seat frame by a locking device, wherein the locking device is designed as a rotary latch lock for locking a counter element, the locking device is fixedly connected to the seat frame and the counter element is fixedly connected to the at least one link (214, 216), characterized in that the locking device is designed for receiving and locking the counter element, and the counter element is arranged in a U-shaped region of the at least one link (214, 216). a seat cushion, a backrest, a seat frame, the seat cushion and the backrest being coupled to the seat frame, a base, and a kinematics for the articulated connection of the seat frame to the base, wherein the kinematics comprises at least one link (214, 216) articulated connecting the seat frame to the base, wherein the at least one link (214, 216) is lockable with the seat frame by a locking device, wherein the locking device is designed as a rotary latch lock for locking a counter element, the locking device is fixedly connected to the seat frame and the counter element is fixedly connected to the at least one link (214, 216), characterized in that the locking device is designed for receiving and locking the counter element, and the counter element is arranged in a U-shaped region of the at least one link (214, 216).
Method for the optical investigation of a diffusive sample, comprising the following steps: providing a diffusive sample including a dispersion of optically diffusive particles to be investigated, providing an optical sensor comprising means for sending an excitation light signal to a chamber having a transparent wall and containing an active optical medium and also comprising means for transmitting a return light signal from said chamber, representative of the characteristics of said diffusive sample, immersing the chamber in the sample, sending at least one excitation light signal to activate the active optical medium in the chamber, so that light emitted by the active optical medium as a result of the excitation light signal crosses the transparent wall and is diffused in the sample after a random path through the sample comprising the optical diffusive particles, a certain amount of light returns to the chamber and is amplified in the active medium due to stimulated emission obtaining laser emission, wherein said laser emission dominated by the stimulated emission process is obtained only in the presence of the diffusive sample, while in absence of the sample or with a non-diffusive sample the emission is dominated by spontaneous emission, receiving and processing the laser emission as the return light signal representative of the characteristics of the diffusive sample. providing a diffusive sample including a dispersion of optically diffusive particles to be investigated, providing an optical sensor comprising means for sending an excitation light signal to a chamber having a transparent wall and containing an active optical medium and also comprising means for transmitting a return light signal from said chamber, representative of the characteristics of said diffusive sample, immersing the chamber in the sample, sending at least one excitation light signal to activate the active optical medium in the chamber, so that light emitted by the active optical medium as a result of the excitation light signal crosses the transparent wall and is diffused in the sample after a random path through the sample comprising the optical diffusive particles, a certain amount of light returns to the chamber and is amplified in the active medium due to stimulated emission obtaining laser emission, wherein said laser emission dominated by the stimulated emission process is obtained only in the presence of the diffusive sample, while in absence of the sample or with a non-diffusive sample the emission is dominated by spontaneous emission, receiving and processing the laser emission as the return light signal representative of the characteristics of the diffusive sample.
A method of manufacturing a superconducting wire, comprising: providing a superconducting tape having an outer surface defined by a first surface, a second surface opposing the first surface, and both side surfaces (14a, 14b) connecting the first surface and the second surface; forming a copper layer on the outer surface of the superconducting tape; and respectively attaching a first metal tape and a second metal tape on the first surface and the second surface of the superconducting tape on which the copper layer is formed, wherein the forming of the copper layer comprises: forming a copper protecting layer using a physical deposition method so as to cover the first surface, the second surface and the side surfaces (14a, 14b); and forming a copper stabilizing layer on the copper protecting layer using an electroplating method; wherein the attaching the first metal tape and the second metal tape on the first surface and the second surface of the superconducting tape on which the copper layer is formed comprises aligning one side of the first metal tape and one side of the second metal tape with one side of the copper layer on one of the side surfaces of the superconducting tape using a guide member. providing a superconducting tape having an outer surface defined by a first surface, a second surface opposing the first surface, and both side surfaces (14a, 14b) connecting the first surface and the second surface; forming a copper layer on the outer surface of the superconducting tape; and respectively attaching a first metal tape and a second metal tape on the first surface and the second surface of the superconducting tape on which the copper layer is formed, wherein the forming of the copper layer comprises: forming a copper protecting layer using a physical deposition method so as to cover the first surface, the second surface and the side surfaces (14a, 14b); and forming a copper stabilizing layer on the copper protecting layer using an electroplating method; wherein the attaching the first metal tape and the second metal tape on the first surface and the second surface of the superconducting tape on which the copper layer is formed comprises aligning one side of the first metal tape and one side of the second metal tape with one side of the copper layer on one of the side surfaces of the superconducting tape using a guide member. forming a copper protecting layer using a physical deposition method so as to cover the first surface, the second surface and the side surfaces (14a, 14b); and forming a copper stabilizing layer on the copper protecting layer using an electroplating method; wherein the attaching the first metal tape and the second metal tape on the first surface and the second surface of the superconducting tape on which the copper layer is formed comprises aligning one side of the first metal tape and one side of the second metal tape with one side of the copper layer on one of the side surfaces of the superconducting tape using a guide member.
A filter element comprising: a tube of filter media (119, 121) extending axially between a first end and a second end and defining a central cavity, the tube of filter media (119, 121) being frustoconical increasing in radial dimension when moving along a central axis from the second end towards the first end, the tube of filter media (119, 121) extending at a first angle relative to the central axis, the filter media of the tube of filter media having a radially inner most edge at the first end; a seal member attached to a first end of the tube of filter media, the seal member having a radially inward facing tapered inner surface, the tapered inner surface extending at a second angle relative to the central axis; and the first angle being more parallel to the central axis than the second angle. a tube of filter media (119, 121) extending axially between a first end and a second end and defining a central cavity, the tube of filter media (119, 121) being frustoconical increasing in radial dimension when moving along a central axis from the second end towards the first end, the tube of filter media (119, 121) extending at a first angle relative to the central axis, the filter media of the tube of filter media having a radially inner most edge at the first end; a seal member attached to a first end of the tube of filter media, the seal member having a radially inward facing tapered inner surface, the tapered inner surface extending at a second angle relative to the central axis; and the first angle being more parallel to the central axis than the second angle.
A transmission-side terminal comprising: an input device; a communication interface (170, 301a); and at least one processor comprising a secure message processor in a secure domain and a non-secure message processor in a non-secure domain, the secure domain being based on a secure operating system and the non-secure domain being based on a non-secure operating system, the secure domain and the non-secure domain being physically separated from each other, wherein the at least one processor is configured to: deactivate the non-secure domain upon an execution of an application that activates the secure domain and block access from the non-secure domain to the input device; receive a message through the input device in the secure domain while the non-secure domain is deactivated; encrypt the received message; deliver the encrypted message to the non-secure domain; and transmit the encrypted message to a message service apparatus through the communication interface (170, 301a). an input device; a communication interface (170, 301a); and at least one processor comprising a secure message processor in a secure domain and a non-secure message processor in a non-secure domain, the secure domain being based on a secure operating system and the non-secure domain being based on a non-secure operating system, the secure domain and the non-secure domain being physically separated from each other, wherein the at least one processor is configured to: deactivate the non-secure domain upon an execution of an application that activates the secure domain and block access from the non-secure domain to the input device; receive a message through the input device in the secure domain while the non-secure domain is deactivated; encrypt the received message; deliver the encrypted message to the non-secure domain; and transmit the encrypted message to a message service apparatus through the communication interface (170, 301a). deactivate the non-secure domain upon an execution of an application that activates the secure domain and block access from the non-secure domain to the input device; receive a message through the input device in the secure domain while the non-secure domain is deactivated; encrypt the received message; deliver the encrypted message to the non-secure domain; and transmit the encrypted message to a message service apparatus through the communication interface (170, 301a).
A control information transmission method, comprising: determining a length N of a mother code of a polar code based on a load size of a control channel, wherein the load size of the control channel is N bits and corresponds to a format of the control channel, the format of the control channel is one of a plurality of preset channel formats, each of the plurality of channel formats corresponds to one load size, and each load size is a positive integer power of 2, N is 2 n, and n is a positive integer; performing polar encoding on target control information that needs to be transmitted, to obtain N coded bits; and transmitting the N coded bits by using the control channel without rate matching. determining a length N of a mother code of a polar code based on a load size of a control channel, wherein the load size of the control channel is N bits and corresponds to a format of the control channel, the format of the control channel is one of a plurality of preset channel formats, each of the plurality of channel formats corresponds to one load size, and each load size is a positive integer power of 2, N is 2 n, and n is a positive integer; performing polar encoding on target control information that needs to be transmitted, to obtain N coded bits; and transmitting the N coded bits by using the control channel without rate matching.
A wire fence accessory including a connector configured to secure the accessory to a support post of a wire fence system; and a tension sensor configured to measure tension in a wire connected to the accessory and output a signal indicative of the tension, cha racterised in that the accessory includes an indicator (5a, 5b, 5c) configured to output, at the accessory, an indication of the tension in the wire according to the signal output by the tension sensor, wherein the indication uniquely identifies whether the measured tension is above, below, or within, a predetermined range of tension values.
A method of controlling a mobile terminal, the method comprising the steps of: displaying at least one function icon on a standby screen on a touchscreen of the mobile terminal; selecting a first function icon among the at least one function icon; defining a first touch input gesture on the standby screen on the touchscreen for the selected first function icon; assigning the user-defined first touch input gesture to the selected first function icon, wherein a first function corresponding to the first function icon is executed when the user-defined first touch input gesture is performed on the standby screen; removing the selected first function icon from the standby screen in response to assigning the user-defined first touch input gesture to the first function icon, receiving a canceling signal indicating the cancellation of the assignment of the user-defined first touch input gesture to the first function icon; canceling the assignment of the user-defined first touch input gesture to the first function icon; and re-displaying the first function icon on the standby screen. displaying at least one function icon on a standby screen on a touchscreen of the mobile terminal; selecting a first function icon among the at least one function icon; defining a first touch input gesture on the standby screen on the touchscreen for the selected first function icon; assigning the user-defined first touch input gesture to the selected first function icon, wherein a first function corresponding to the first function icon is executed when the user-defined first touch input gesture is performed on the standby screen; removing the selected first function icon from the standby screen in response to assigning the user-defined first touch input gesture to the first function icon, receiving a canceling signal indicating the cancellation of the assignment of the user-defined first touch input gesture to the first function icon; canceling the assignment of the user-defined first touch input gesture to the first function icon; and re-displaying the first function icon on the standby screen.
Method for controlling the state of a device comprising means for transferring an audiovisual source and means for reproducing an audio signal, the device being connected to a television set by means of a connection of the high-definition multimedia interface type HDMI in accordance with an HDMI specification version 2.0 or higher, characterised in that the device is in a mode of operating as an audiovisual source or in an operating mode of reproducing an audio signal coming from the HDMI connection, and the method comprises the steps performed by the device of: - receiving a command to change state of the device, the command to change state of the device being a command of sleep mode or a message of the <Active Source> type received on a consumer electronic control bus of the HDMI connection, - and following the receiving of the command to change state: - putting the device in the mode of reproducing an audio signal coming from the HDMI connection if the device is in the audiovisual source mode, - checking whether an audio signal coming from the HDMI connection is present and, if so, - reproducing the audio signal coming from the HDMI connection by the means for reproducing an audio signal. - receiving a command to change state of the device, the command to change state of the device being a command of sleep mode or a message of the <Active Source> type received on a consumer electronic control bus of the HDMI connection, - and following the receiving of the command to change state: - putting the device in the mode of reproducing an audio signal coming from the HDMI connection if the device is in the audiovisual source mode, - checking whether an audio signal coming from the HDMI connection is present and, if so, - reproducing the audio signal coming from the HDMI connection by the means for reproducing an audio signal.