mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing interference information, comprising: determining , by a user terminal, completion of cell handover/reestablishment of a Radio Resource Control RRC connection; and reporting , by the user terminal, interference indication information to a target cell, such that the user terminal is prevented from being switched to interference frequency bands; wherein in the case that the user terminal has reported the interference indication information prior to the cell handover/the reestablishment of the RRC connection, the reporting , by the user terminal, the interference indication information to the target cell comprises: determining, by the user terminal, interference in a plurality of radio access technologies, wherein the plurality of radio access technologies includes at least one of Long Term Evolution, LTE, Global Positioning System, GPS, Wireless Local Area Network, WLAN, and Bluetooth; updating, by the user terminal, the interference indication information in accordance with the determined interference in the plurality of radio access technologies; and reporting repeatedly, by the user terminal, the updated interference indication information to the target cell. determining , by a user terminal, completion of cell handover/reestablishment of a Radio Resource Control RRC connection; and reporting , by the user terminal, interference indication information to a target cell, such that the user terminal is prevented from being switched to interference frequency bands; wherein in the case that the user terminal has reported the interference indication information prior to the cell handover/the reestablishment of the RRC connection, the reporting , by the user terminal, the interference indication information to the target cell comprises: determining, by the user terminal, interference in a plurality of radio access technologies, wherein the plurality of radio access technologies includes at least one of Long Term Evolution, LTE, Global Positioning System, GPS, Wireless Local Area Network, WLAN, and Bluetooth; updating, by the user terminal, the interference indication information in accordance with the determined interference in the plurality of radio access technologies; and reporting repeatedly, by the user terminal, the updated interference indication information to the target cell. determining, by the user terminal, interference in a plurality of radio access technologies, wherein the plurality of radio access technologies includes at least one of Long Term Evolution, LTE, Global Positioning System, GPS, Wireless Local Area Network, WLAN, and Bluetooth; updating, by the user terminal, the interference indication information in accordance with the determined interference in the plurality of radio access technologies; and reporting repeatedly, by the user terminal, the updated interference indication information to the target cell.
Compound A for use in a method of treating insomnia, wherein the therapeutically effective amount of compound A is administered orally in a single daily dose ranging from 2.5 mg to 10 mg, wherein said single daily dose achieves a mean Cmax of from about 3.0 ng/ml to about 7.2 ng/ml for each 1 mg of compound A after administration to human subjects, and wherein said compound A is -2-(((2,4-dimethylpyrimidin-5-yl)oxy)methyl)-2-(3-fluorophenyl)-N-(5-fluoropyridin-2-yl) cyclopropanecarboxamide represented by the following formula:
A method, comprising: sending , from a first access point using a first security algorithm in communication with a mobile station , a handover indication message to a second access point indicating that the mobile station is about to be handed over from the first access point to the second access point , the handover indication message including information indicating which of a multiple number of security algorithms the mobile station supports; receiving , in response, from the second access point a security requirement message indicating that the second access point requires use of a second security algorithm from the multiple number of security algorithms supported by the mobile station , the second security algorithm selected by the second access point as the preferred one from the multiple number of security algorithms supported by the mobile station , in response to receiving said handover indication message; sending , in response, to the mobile station a handover message instructing the mobile station to handover to the second access point and to use the second security algorithm selected by the second access point in communication with the second access point, wherein the handover message is secured with the first security algorithm; changing , by the mobile station , in response to receiving the handover message from the first access point , to use the second security algorithm; and deriving, by the mobile station , a new ciphering key and a new integrity protection key, in response to the changing to use the second security algorithm. sending , from a first access point using a first security algorithm in communication with a mobile station , a handover indication message to a second access point indicating that the mobile station is about to be handed over from the first access point to the second access point , the handover indication message including information indicating which of a multiple number of security algorithms the mobile station supports; receiving , in response, from the second access point a security requirement message indicating that the second access point requires use of a second security algorithm from the multiple number of security algorithms supported by the mobile station , the second security algorithm selected by the second access point as the preferred one from the multiple number of security algorithms supported by the mobile station , in response to receiving said handover indication message; sending , in response, to the mobile station a handover message instructing the mobile station to handover to the second access point and to use the second security algorithm selected by the second access point in communication with the second access point, wherein the handover message is secured with the first security algorithm; changing , by the mobile station , in response to receiving the handover message from the first access point , to use the second security algorithm; and deriving, by the mobile station , a new ciphering key and a new integrity protection key, in response to the changing to use the second security algorithm.
A printing ink composition suitable for microwaveable packaging comprising nitrocellulose resin, a solvent, a polyurethane resin, and a carbon black pigment having: a) an imaginary permittivity of ≤ 3 at 2450 MHz; and b) a surface oxygen content of 1wt% to 3wt%. a) an imaginary permittivity of ≤ 3 at 2450 MHz; and b) a surface oxygen content of 1wt% to 3wt%.
An inlay sheet configured to be used in a book-like identification document , comprising: - a first hinge layer (21; 21') consisting of polycarbonate; - a second hinge layer (22; 22') consisting of a flexible material different to polycarbonate, e.g. PET, polyurethane, fabric, mesh, the second hinge layer (22; 22') being attached to the first hinge layer (21; 21'); - a first datapage layer ; - a second datapage layer ; wherein the first datapage layer and the second datapage layer are attached to the first hinge layer (21; 21') and the second hinge layer (22; 22'), respectively, such that the first and second hinge layers (21, 22; 21', 22') are positioned between the first and second datapage layers for forming a datapage section having a datapage thickness (tdp), the first and second datapage layers forming a datapage inner front edge ; wherein the first and second hinge layers (21, 22; 21'22') extend beyond the datapage inner front edge such that a hinge section is formed having a hinge thickness (th) smaller than the datapage thickness (tdp). - a first hinge layer (21; 21') consisting of polycarbonate; - a second hinge layer (22; 22') consisting of a flexible material different to polycarbonate, e.g. PET, polyurethane, fabric, mesh, the second hinge layer (22; 22') being attached to the first hinge layer (21; 21'); - a first datapage layer ; - a second datapage layer ;
Device for monitoring electrical parameters connected to the internet comprising: • a measurement system configured to measure characteristic electrical quantities of electrical equipment units of a group of electrical equipment units, • a transmission system for transmitting the measured characteristic electrical quantities to the internet, • an electric power supply terminal designed to supply the measurement system and the transmission system with electricity, • data reading means for reading data present in an electric power consumption meter of the electrical equipment units, the data reading means being configured to process the data present in the electric power consumption meter, characterised in that it further comprises means for comparison of the data provided by the distinct electric power consumption meter and the measurement system. • a measurement system configured to measure characteristic electrical quantities of electrical equipment units of a group of electrical equipment units, • a transmission system for transmitting the measured characteristic electrical quantities to the internet, • an electric power supply terminal designed to supply the measurement system and the transmission system with electricity, • data reading means for reading data present in an electric power consumption meter of the electrical equipment units, the data reading means being configured to process the data present in the electric power consumption meter,
A device (12, 18; 202) for encoding audio data, the device comprising: a memory configured to store the audio data; and one or more processors in communication with the memory, the one or more processors being configured to: encode the audio data to form encoded audio data; select a renderer associated with the encoded audio data; and generate an encoded audio bitstream comprising the encoded audio data and data indicative of the selected renderer; characterized in that the selected renderer comprises one of an object-based renderer or an ambisonic renderer; and wherein the one or more processors are further configured to include the data indicative of the selected renderer in metadata of the encoded audio data. a memory configured to store the audio data; and one or more processors in communication with the memory, the one or more processors being configured to: encode the audio data to form encoded audio data; select a renderer associated with the encoded audio data; and generate an encoded audio bitstream comprising the encoded audio data and data indicative of the selected renderer; encode the audio data to form encoded audio data; select a renderer associated with the encoded audio data; and generate an encoded audio bitstream comprising the encoded audio data and data indicative of the selected renderer; characterized in that the selected renderer comprises one of an object-based renderer or an ambisonic renderer; and wherein the one or more processors are further configured to include the data indicative of the selected renderer in metadata of the encoded audio data. the selected renderer comprises one of an object-based renderer or an ambisonic renderer; and wherein the one or more processors are further configured to include the data indicative of the selected renderer in metadata of the encoded audio data.
A laminate comprising: a substrate; a buffer layer made of at least one or more kinds of oxide thin films, selected from the group consisting of a gallium oxide thin film, an oxide thin film made of gallium, indium and oxygen, and an oxide thin film made of gallium, indium, aluminum and oxygen, formed on the substrate; and a transparent conductive film layer made of an oxide thin film, mainly composed of titanium oxide, containing at least one or more kinds of elements selected from the group consisting of niobium, tantalum, molybdenum, arsenic, antimony and tungsten, comprising an anatase phase, and formed on the buffer layer. a substrate; a buffer layer made of at least one or more kinds of oxide thin films, selected from the group consisting of a gallium oxide thin film, an oxide thin film made of gallium, indium and oxygen, and an oxide thin film made of gallium, indium, aluminum and oxygen, formed on the substrate; and a transparent conductive film layer made of an oxide thin film, mainly composed of titanium oxide, containing at least one or more kinds of elements selected from the group consisting of niobium, tantalum, molybdenum, arsenic, antimony and tungsten, comprising an anatase phase, and formed on the buffer layer.
A communication method, comprising: receiving , by user equipment, first indication information from a network device, wherein the first indication information indicates a first resource; determining ), by the user equipment, a second resource, wherein the second resource and the first resource belong to a same resource set configured by the network device, and the first resource and the second resource are used to transmit a first downlink reference signal; and receiving , by the user equipment on a third resource, a second signal and/or channel transmitted by using a third antenna port, wherein the third antenna port has a quasi co-location QCL relationship with a second antenna port used when the first downlink reference signal is transmitted on the second resource, characterised in that the first indication information is further used to indicate a QCL type, the QCL type comprises a spatial receive end parameter, and a type of the QCL relationship is the QCL type. receiving , by user equipment, first indication information from a network device, wherein the first indication information indicates a first resource; determining ), by the user equipment, a second resource, wherein the second resource and the first resource belong to a same resource set configured by the network device, and the first resource and the second resource are used to transmit a first downlink reference signal; and receiving , by the user equipment on a third resource, a second signal and/or channel transmitted by using a third antenna port, wherein the third antenna port has a quasi co-location QCL relationship with a second antenna port used when the first downlink reference signal is transmitted on the second resource, characterised in that the first indication information is further used to indicate a QCL type, the QCL type comprises a spatial receive end parameter, and a type of the QCL relationship is the QCL type.
Operating method for an air-conditioning system of at least one motor vehicle, namely of a bus, for calculating in advance at least one temperature control schedule for a defined route or at least a route section thereof, comprising - preferably defining a desired motor-vehicle passenger compartment setpoint temperature, - defining a route, - determining at least one predicted parameter, wherein the predicted parameter comprises a predicted external climate on the route or at least a route section thereof and/or a predicted heat input into the motor-vehicle passenger compartment on the route or at least a route section thereof, - determining at least one temperature control schedule for the route or at least a route section thereof as a function of the determined predicted parameter, characterized by the method steps: - determining the temperature control schedule by means of a motor-vehicle-external control computer, and - remotely controlling the air-conditioning system as a function of the temperature control schedule, preferably via telematics. - preferably defining a desired motor-vehicle passenger compartment setpoint temperature, - defining a route, - determining at least one predicted parameter, wherein the predicted parameter comprises a predicted external climate on the route or at least a route section thereof and/or a predicted heat input into the motor-vehicle passenger compartment on the route or at least a route section thereof, - determining at least one temperature control schedule for the route or at least a route section thereof as a function of the determined predicted parameter, - determining the temperature control schedule by means of a motor-vehicle-external control computer, and - remotely controlling the air-conditioning system as a function of the temperature control schedule, preferably via telematics.
Heating device for a traction battery of a vehicle, comprising: an induction coil for wireless charging of the traction battery ; a ferrite shield surrounding the induction coil , and heat transfer means being a heating circuit adapted to transfer heat from the ferrite shield to the traction battery by means of a circulated fluid, the heat transfer means further being attached to the ferrite shield and being adapted to cover at least 10% of the outer surface of the traction battery . an induction coil for wireless charging of the traction battery ; a ferrite shield surrounding the induction coil , and heat transfer means being a heating circuit adapted to transfer heat from the ferrite shield to the traction battery by means of a circulated fluid, the heat transfer means further being attached to the ferrite shield and being adapted to cover at least 10% of the outer surface of the traction battery .
A host device , comprising: a plurality of master interfaces corresponding to a plurality of point-to-point, P2P, links for coupling to a corresponding plurality of first slave devices, wherein each first slave device includes a slave interface for coupling through a corresponding P2P link to a corresponding master interface on the host device; and characterised by a node aggregator configured to assign a unique link ID to each P2P link upon initiation of an enumeration process for the plurality of first slave devices, the node aggregator being further configured to receive a unique node ID equalling a concatenation of a slave bit and the unique link ID for the corresponding P2P link from each first slave device's slave interface, and wherein the node aggregator is further configured to address each first slave device through the corresponding master interface with a message including the first slave device's unique node ID, each message further including a bit-optimized address to be assigned to the first slave device, the bit-optimized address for each first slave device being shorter than the unique node ID for each first slave device. a plurality of master interfaces corresponding to a plurality of point-to-point, P2P, links for coupling to a corresponding plurality of first slave devices, wherein each first slave device includes a slave interface for coupling through a corresponding P2P link to a corresponding master interface on the host device; and characterised by a node aggregator configured to assign a unique link ID to each P2P link upon initiation of an enumeration process for the plurality of first slave devices, the node aggregator being further configured to receive a unique node ID equalling a concatenation of a slave bit and the unique link ID for the corresponding P2P link from each first slave device's slave interface, and wherein the node aggregator is further configured to address each first slave device through the corresponding master interface with a message including the first slave device's unique node ID, each message further including a bit-optimized address to be assigned to the first slave device, the bit-optimized address for each first slave device being shorter than the unique node ID for each first slave device.
Vehicle for the distribution of biosolid material, such as sewage sludge or defecation gypsum, or manure on agricultural land, said vehicle comprising: - a body adapted to contain the biosolid material and adapted to be transported on the agricultural land (T); - a spreader supported on at least one of the sides of the body , said spreader comprising picking means of the biosolid material from the body, conveying means of the biosolid material from the pickup means , said conveying means comprising an outlet mouth for the biosolid material towards the land (T); - member actuating means adapted to move the conveying means from a retracted position, in which the outlet mouth is spaced above the surface of the land (T), to an advanced position, in which the outlet mouth is adapted to be buried in the ground at a given depth (D) or just above the surface of the land (T) ; characterized in that the spreader comprises a frame supported by opposite sides of the body , and in that said frame supports the picking means and the conveying means and in that the member actuating means are operatively connected to the frame to translate it in a vertical direction (Z) substantially perpendicular to the ground. - a body adapted to contain the biosolid material and adapted to be transported on the agricultural land (T); - a spreader supported on at least one of the sides of the body , said spreader comprising picking means of the biosolid material from the body, conveying means of the biosolid material from the pickup means , said conveying means comprising an outlet mouth for the biosolid material towards the land (T); - member actuating means adapted to move the conveying means from a retracted position, in which the outlet mouth is spaced above the surface of the land (T), to an advanced position, in which the outlet mouth is adapted to be buried in the ground at a given depth (D) or just above the surface of the land (T) ;
A method for wireless communications performed by a device in a wireless network, the method comprising: receiving a physical downlink control channel comprising downlink control information that schedules a transmission time interval for a physical shared channel; determining a bit value within the downlink control information; communicating over the physical shared channel during a portion of the transmission time interval excluding one or more intervals in time that correspond to a periodic signal, the transmission time interval overlapping in time with the one or more intervals to allow communication of the periodic signal during the one or more intervals, wherein the transmission time interval is overlapped in time with the one or more intervals based at least in part on the determined bit value; and communicating the periodic signal during each of the one or more intervals that overlap with the transmission time interval. receiving a physical downlink control channel comprising downlink control information that schedules a transmission time interval for a physical shared channel; determining a bit value within the downlink control information; communicating over the physical shared channel during a portion of the transmission time interval excluding one or more intervals in time that correspond to a periodic signal, the transmission time interval overlapping in time with the one or more intervals to allow communication of the periodic signal during the one or more intervals, wherein the transmission time interval is overlapped in time with the one or more intervals based at least in part on the determined bit value; and communicating the periodic signal during each of the one or more intervals that overlap with the transmission time interval.