mhurhangee/patent-ind-claim-en huggingface dataset:
A method for privately determining whether a password satisfies one or more constraints, the method comprising: accessing a password selected by a user ; encrypting the selected password wherein encrypting the selected password comprises homomorphically encrypting the selected password; defining a function to be performed by a server on the encrypted password , wherein the function is a homomorphic function that, when performed on the encrypted password , provides a result that, when decrypted, matches a result that would happen if the homomorphic function were performed directly on the unencrypted selected password; causing the encrypted password and a function definition of the function to be sent to the server for performing the defined function on the encrypted password; detecting receipt of an encrypted result of the function on the encrypted password; decrypting the received encrypted result received from the server; and determining from the decrypted result whether the password satisfies a constraint. accessing a password selected by a user ; encrypting the selected password wherein encrypting the selected password comprises homomorphically encrypting the selected password; defining a function to be performed by a server on the encrypted password , wherein the function is a homomorphic function that, when performed on the encrypted password , provides a result that, when decrypted, matches a result that would happen if the homomorphic function were performed directly on the unencrypted selected password; causing the encrypted password and a function definition of the function to be sent to the server for performing the defined function on the encrypted password; detecting receipt of an encrypted result of the function on the encrypted password; decrypting the received encrypted result received from the server; and determining from the decrypted result whether the password satisfies a constraint.
A device for treating regions of human or animal or plant surfaces using a cold atmospheric-pressure plasma by generating a dielectrically impeded surface discharge, comprising - at least one high-voltage cable , - at least one ground cable , - at least one plasma source, - at least one grounded electrode , and - at least one high-voltage electrode , characterized in that the high-voltage electrode consists of a flexible wire that is coated with a stretchable insulation layer, such that the high-voltage electrode consists of an insulated wire, wherein the insulation layer serves as a dielectric for the dielectrically impeded discharge to be generated, simultaneously adapts to the contours of the body areas or surfaces to be treated and has an electric strength of at least 2 kV, wherein the high-voltage electrode is arranged on an electrically conductive textile material that serves as the grounded electrode . - at least one high-voltage cable , - at least one ground cable , - at least one plasma source, - at least one grounded electrode , and - at least one high-voltage electrode ,
An integrated circuit for use in a differential network bus node , the integrated circuit comprising: a transceiver having a first transceiver input-output terminal and a second transceiver input-output terminal ; a physical layer high terminal connected to the first transceiver input-output-terminal ; a physical layer low terminal connected to the second transceiver input-output terminal ; and a physical layer interface circuit comprising: a first low frequency RC matching circuit and a first high frequency RC matching circuit each connected between the first transceiver input-output-terminal and a first reference terminal ; and a second low frequency RC matching circuit and a second high frequency RC matching circuit each connected between the second transceiver input-output terminal and a second reference terminal . a transceiver having a first transceiver input-output terminal and a second transceiver input-output terminal ; a physical layer high terminal connected to the first transceiver input-output-terminal ; a physical layer low terminal connected to the second transceiver input-output terminal ; and a physical layer interface circuit comprising: a first low frequency RC matching circuit and a first high frequency RC matching circuit each connected between the first transceiver input-output-terminal and a first reference terminal ; and a second low frequency RC matching circuit and a second high frequency RC matching circuit each connected between the second transceiver input-output terminal and a second reference terminal . a first low frequency RC matching circuit and a first high frequency RC matching circuit each connected between the first transceiver input-output-terminal and a first reference terminal ; and a second low frequency RC matching circuit and a second high frequency RC matching circuit each connected between the second transceiver input-output terminal and a second reference terminal .
A communication method of receiving a reconfigured signal for decoding data symbols by a first base station, BS , in a first cell based on outdated channel state information, in a network environment including G cells, where G is an integer equal to or greater than 3, in each of which 2 user equipments, UEs , are located, the communication method comprising: receiving, from a first UE in the first cell, G different data symbols in each time slot during a first time period including G time slots; receiving, from a second UE in the first cell, G - 1 different data symbols in each of G - 1 time slots and a sum of the G - 1 different data symbols in the last time slot during the first time period; transmitting, to each of the first UE and the second UE in the first cell, a feedback signal including channel state information on received data symbols of the first time period; receiving, from the first UE in the first cell, a first reconfigured signal for decoding the received data symbols, during a [G + 1] th time period including [G ∗ (G - 1)/2] time slots, wherein the first reconfigured signal is generated based on the feedback signal. receiving, from a first UE in the first cell, G different data symbols in each time slot during a first time period including G time slots; receiving, from a second UE in the first cell, G - 1 different data symbols in each of G - 1 time slots and a sum of the G - 1 different data symbols in the last time slot during the first time period; transmitting, to each of the first UE and the second UE in the first cell, a feedback signal including channel state information on received data symbols of the first time period; receiving, from the first UE in the first cell, a first reconfigured signal for decoding the received data symbols, during a [G + 1] th time period including [G ∗ (G - 1)/2] time slots, wherein the first reconfigured signal is generated based on the feedback signal.
A time transfer method implemented in a first node (A), the time transfer method comprising the steps of communicating a sequence of encoded blocks that includes a Flexible Ethernet, FlexE, signal with a second node (B), wherein the time transfer method further comprises: communicating synchronization messages with the second node (B) via a synchronization message channel in client overhead inserted into the sequence of encoded blocks, wherein the synchronization messages are Precision Time Protocol, PTP, messages inserted into the client overhead and are utilized for synchronization of a clock at the second node, wherein timestamp points of reference for the synchronization messages are based on one of frame and multiframe boundaries associated with a frame structure based on the sequence of encoded blocks. communicating synchronization messages with the second node (B) via a synchronization message channel in client overhead inserted into the sequence of encoded blocks, wherein the synchronization messages are Precision Time Protocol, PTP, messages inserted into the client overhead and are utilized for synchronization of a clock at the second node, wherein timestamp points of reference for the synchronization messages are based on one of frame and multiframe boundaries associated with a frame structure based on the sequence of encoded blocks.
A developing cartridge comprising: a casing configured to accommodate therein developer; a developer-carrying member configured to rotate about a rotational axis (A1) extending in an axial direction and carry the developer thereon; a supply member configured to supply the developer to the developer-carrying member ; a developing electrode configured to be electrically connected to the developer-carrying member ; a supply electrode configured to be electrically connected to the supply member and arranged to confront the developing electrode in the axial direction with a gap therebetween; and an insulating member insulating the developing electrode and the supply electrode with each other and arranged between the developing electrode and the supply electrode , wherein the insulating member comprises a guide part configured to guide an attachment of the developing cartridge relative to an external device. a casing configured to accommodate therein developer; a developer-carrying member configured to rotate about a rotational axis (A1) extending in an axial direction and carry the developer thereon; a supply member configured to supply the developer to the developer-carrying member ; a developing electrode configured to be electrically connected to the developer-carrying member ; a supply electrode configured to be electrically connected to the supply member and arranged to confront the developing electrode in the axial direction with a gap therebetween; and an insulating member insulating the developing electrode and the supply electrode with each other and arranged between the developing electrode and the supply electrode , wherein the insulating member comprises a guide part configured to guide an attachment of the developing cartridge relative to an external device.
A method for wireless local area network configuration of a home device, , the method being performed by a terminal, , the method comprising obtaining authentication information of a first wireless local area network, wherein the authentication information of the first wireless local area network comprises a service set identifier SSID and an access password of the first wireless local area network; configuring on the terminal device the SSID of the first wireless local area network as a hidden SSID, wherein the first wireless local area network is established by an access point ; and sending , to the home device, at least one first probe request frame, wherein the first probe request frame carries the authentication information of the first wireless local area network, and wherein the first probe request frame further comprises a feature code, wherein the feature code is used by the home device to identify the terminal device such that when the feature code included in the first probe request frame is different from a preset feature code, the home device discards the first probe request frame; and wherein the method further comprises: encrypting the authentication information using a public key of the home device, wherein the public key is marked on the home device and the public key of the home device is unique. obtaining authentication information of a first wireless local area network, wherein the authentication information of the first wireless local area network comprises a service set identifier SSID and an access password of the first wireless local area network; configuring on the terminal device the SSID of the first wireless local area network as a hidden SSID, wherein the first wireless local area network is established by an access point ; and sending , to the home device, at least one first probe request frame, wherein the first probe request frame carries the authentication information of the first wireless local area network, and wherein the first probe request frame further comprises a feature code, wherein the feature code is used by the home device to identify the terminal device such that when the feature code included in the first probe request frame is different from a preset feature code, the home device discards the first probe request frame; and wherein the method further comprises: encrypting the authentication information using a public key of the home device, wherein the public key is marked on the home device and the public key of the home device is unique.
A projecting device , comprising: a light source including a plurality of light-emitting parts (103∼105) each of which outputs a light beam of a different color component (RGB); and a controller , configured to control an output of the light source, characterized in that the controller is configured to, for all outputs of the output ranges of the respective light emitting parts, pulse-drive the light-emitting part having a lowest output among the light-emitting parts, the lowest output being determined based on an output ratio of the light emitting parts for white light as determined by a white balance ratio, and to continuously drive at least one of the plurality of the light-emitting parts (104∼105) other than the light-emitting part having the lowest output. a light source including a plurality of light-emitting parts (103∼105) each of which outputs a light beam of a different color component (RGB); and a controller , configured to control an output of the light source, characterized in that the controller is configured to, for all outputs of the output ranges of the respective light emitting parts, pulse-drive the light-emitting part having a lowest output among the light-emitting parts, the lowest output being determined based on an output ratio of the light emitting parts for white light as determined by a white balance ratio, and to continuously drive at least one of the plurality of the light-emitting parts (104∼105) other than the light-emitting part having the lowest output.
An apparatus for determining a configuration for a communication network , the apparatus comprising means for: - Implementing a machine learning model to predict a value of a performance indicator of the communication network, wherein the machine learning model is configured to predict said value of a performance indicator based on a plurality of features, wherein the features include data related to configuration parameters of the communication network , wherein the configuration parameters can be modified through a management apparatus of the communication network - Analyzing the machine learning model to select a dominant feature among said plurality of features and select an influential configuration parameter among said configuration parameters based on said dominant feature, - Exploiting the machine learning model to determine a recommended value for at least the said influential configuration parameter , wherein the recommended value for the influential configuration parameter improves the predicted value of the performance indicator. - Implementing a machine learning model to predict a value of a performance indicator of the communication network, wherein the machine learning model is configured to predict said value of a performance indicator based on a plurality of features, wherein the features include data related to configuration parameters of the communication network , wherein the configuration parameters can be modified through a management apparatus of the communication network - Analyzing the machine learning model to select a dominant feature among said plurality of features and select an influential configuration parameter among said configuration parameters based on said dominant feature, - Exploiting the machine learning model to determine a recommended value for at least the said influential configuration parameter , wherein the recommended value for the influential configuration parameter improves the predicted value of the performance indicator.
A multi-function rearview device adapted for use with a vehicle, comprising: a rearview element comprising at least one of a reflective element, a camera and a display element; a bezel formed at an outer portion of the multi-function rearview device surrounding the rearview element , with • an interior space being formed within the bezel (130. 720, 920); and • at least one of one or more light assemblies and one or more electronic means being positioned at least partly within the interior space of the bezel , wherein the rearview element is attached to at least one of the bezel and a housing which is configured to be attached to the vehicle and to be moveable relative to the vehicle, characterized in that the bezel is coated, wherein a coating of the bezel is a spectrally controlling system. a rearview element comprising at least one of a reflective element, a camera and a display element; a bezel formed at an outer portion of the multi-function rearview device surrounding the rearview element , with • an interior space being formed within the bezel (130. 720, 920); and • at least one of one or more light assemblies and one or more electronic means being positioned at least partly within the interior space of the bezel , • an interior space being formed within the bezel (130. 720, 920); and • at least one of one or more light assemblies and one or more electronic means being positioned at least partly within the interior space of the bezel , wherein the rearview element is attached to at least one of the bezel and a housing which is configured to be attached to the vehicle and to be moveable relative to the vehicle, characterized in that the bezel is coated, wherein a coating of the bezel is a spectrally controlling system.
Portable electronic end-user device comprising a wireless communication module, a memory and a user interface, wherein the memory comprises a do-not-track value that is switchable by an end-user via the user interface between Yes and No, and wherein the end-user device is further adapted to communicate a do-not-track flag via the wireless communication module depending on the do-not-track value characterized in that the end-user device is provided with a WiFi management frame generator adapted for integrating a do-not-track flag as metadata in the WiFi probes.
A wiping object cleaning device for a floor mopping machine, comprising a bucket body , and further comprising a water conveying mechanism (b4) for conveying water to a wiping object of a floor mopping machine; during cleaning, the water conveying mechanism (b4) conveys water; during water removal, the water conveying mechanism (b4) stops conveying water, characterised in that the water conveying mechanism (b4) comprises a roller in contact with the wiping object ; during cleaning, the roller contacts with water and rolls to convey water to the wiping object ; and during water removal, the roller keeps static, the wiping object rubs against the roller , so that water on the wiping object is removed. during cleaning, the water conveying mechanism (b4) conveys water; during water removal, the water conveying mechanism (b4) stops conveying water, characterised in that the water conveying mechanism (b4) comprises a roller in contact with the wiping object ; during cleaning, the roller contacts with water and rolls to convey water to the wiping object ; and during water removal, the roller keeps static, the wiping object rubs against the roller , so that water on the wiping object is removed.
A method for repairing a member comprising a fiber-reinforced plastic, comprising the steps of: forming a hole in a repair portion to be repaired of the member ; rolling a strip-shaped fabric sheet comprising reinforcing fibers into a cylindrical shape and inserting the rolled fabric sheet into the hole ; according to a first option, impregnating the fabric sheet in the hole with a resin; or, according to an alternative second option, using a strip-shaped prepreg sheet as the strip-shaped fabric sheet, which strip-shaped prepreg sheet is formed by impregnating reinforcing fibers with a resin; attaching a backup plate to both surfaces of the member ; wherein the backup plate comprises a ring; wherein an inside diameter of the backup plate is identical to that of the hole in the repair portion; and heating the resin with which the fabric sheet has been impregnated to cure the resin. forming a hole in a repair portion to be repaired of the member ; rolling a strip-shaped fabric sheet comprising reinforcing fibers into a cylindrical shape and inserting the rolled fabric sheet into the hole ; according to a first option, impregnating the fabric sheet in the hole with a resin; or, according to an alternative second option, using a strip-shaped prepreg sheet as the strip-shaped fabric sheet, which strip-shaped prepreg sheet is formed by impregnating reinforcing fibers with a resin; attaching a backup plate to both surfaces of the member ; wherein the backup plate comprises a ring; wherein an inside diameter of the backup plate is identical to that of the hole in the repair portion; and heating the resin with which the fabric sheet has been impregnated to cure the resin.
A material sprayer comprising: a frame ; a hopper mounted to the frame; a reciprocating drive mechanism mounted to the frame; a pump assembly with a pump fluidly attached to the hopper and attached to the reciprocating drive mechanism, characterized in that the pump comprises: a pump axis (A P ) that is oriented at an angle of 15 to 65 degrees relative to a vertical direction of gravity; and a piston connected to the reciprocating drive mechanism such that the piston is coaxial with the pump axis and is driven by the reciprocating drive mechanism to reciprocate along the pump axis. a frame ; a hopper mounted to the frame; a reciprocating drive mechanism mounted to the frame; a pump assembly with a pump fluidly attached to the hopper and attached to the reciprocating drive mechanism, characterized in that the pump comprises: a pump axis (A P ) that is oriented at an angle of 15 to 65 degrees relative to a vertical direction of gravity; and a piston connected to the reciprocating drive mechanism such that the piston is coaxial with the pump axis and is driven by the reciprocating drive mechanism to reciprocate along the pump axis. a pump axis (A P ) that is oriented at an angle of 15 to 65 degrees relative to a vertical direction of gravity; and a piston connected to the reciprocating drive mechanism such that the piston is coaxial with the pump axis and is driven by the reciprocating drive mechanism to reciprocate along the pump axis.