mhurhangee/ep-ind-claims huggingface dataset:
A method for handling Real-time Transport Protocol, RTP, packets during a Voice over Long Term Evolution, VoLTE, call by a User Equipment, UE, during an UpLink, UL, data path, the method comprising: receiving, by a Robust Header Compression, ROHC, compressor in the UE, the RTP packets from an audio application; bypassing, by a Transmission Control Protocol/Internet Protocol, TCP/IP, layer in the UE, validation of at least one of an Internet Protocol, IP, header and a User Datagram Protocol, UDP, header; compressing, by the ROHC compressor, at least one of the IP header and the UDP header based on VoLTE call information; compressing, by the ROHC compressor, a RTP header for the RTP packets; and transmitting a ROHC packet to a terminating UE over a Radio Access Network, RAN, during the UL data path, wherein the ROHC packet includes a payload, information on the RTP header, and information on at least one of the IP header and the UDP header. receiving, by a Robust Header Compression, ROHC, compressor in the UE, the RTP packets from an audio application; bypassing, by a Transmission Control Protocol/Internet Protocol, TCP/IP, layer in the UE, validation of at least one of an Internet Protocol, IP, header and a User Datagram Protocol, UDP, header; compressing, by the ROHC compressor, at least one of the IP header and the UDP header based on VoLTE call information; compressing, by the ROHC compressor, a RTP header for the RTP packets; and transmitting a ROHC packet to a terminating UE over a Radio Access Network, RAN, during the UL data path, wherein the ROHC packet includes a payload, information on the RTP header, and information on at least one of the IP header and the UDP header.
An apparatus for reducing or controlling water consumption in bathrooms, the apparatus comprising a housing and being configured to receive data from one or more water consumption locations in a bathroom, the housing comprising: one or more sensors including a motion sensor configured to detect a movement in a certain distance from the apparatus in a bathroom as a first indication of activity in the bathroom, an audio sensor configured to monitor a sound of running water from one or more water consumption locations in a bathroom as a second indication of activity in the bathroom, optionally a humidity sensor configured to monitor the ambient humidity in a bathroom as a third indication of activity in the bathroom, and optionally an ambient temperature sensor; a controller configured to qualify at least a part of the data received from the one or more sensors by means of an algorithm to obtain qualified data, wherein the controller is configured to qualify at least a part of the data received from the audio sensor as qualified audio data by means of an algorithm based on a reference audio standard; a transmitting member configured to transmit the qualified data at a given point of time to an external unit, optionally via a mobile device, by means of low power signals; and a unique identification means being readable or scannable by a mobile device and configured to include output data based on the qualified data for reducing or controlling water consumption in the bathroom. one or more sensors including a motion sensor configured to detect a movement in a certain distance from the apparatus in a bathroom as a first indication of activity in the bathroom, an audio sensor configured to monitor a sound of running water from one or more water consumption locations in a bathroom as a second indication of activity in the bathroom, optionally a humidity sensor configured to monitor the ambient humidity in a bathroom as a third indication of activity in the bathroom, and optionally an ambient temperature sensor; a controller configured to qualify at least a part of the data received from the one or more sensors by means of an algorithm to obtain qualified data, wherein the controller is configured to qualify at least a part of the data received from the audio sensor as qualified audio data by means of an algorithm based on a reference audio standard; a transmitting member configured to transmit the qualified data at a given point of time to an external unit, optionally via a mobile device, by means of low power signals; and a unique identification means being readable or scannable by a mobile device and configured to include output data based on the qualified data for reducing or controlling water consumption in the bathroom.
A terminal device comprising: means configured to perform wireless and direct communication of data with another terminal device without being routed via a base station; means configured to generate information for charging for the wireless and direct communication with the other terminal device without being routed via the base station; the information for charging including radio resources information, wherein the radio resources information further includes: information indicating the number of resource blocks used for the wireless and direct communication, and information indicating the number of sub-frames used for the wireless and direct communication; and means configured to transmit the information for charging to a node, which is not involved in the wireless and direct communication. means configured to perform wireless and direct communication of data with another terminal device without being routed via a base station; means configured to generate information for charging for the wireless and direct communication with the other terminal device without being routed via the base station; the information for charging including radio resources information, wherein the radio resources information further includes: information indicating the number of resource blocks used for the wireless and direct communication, and information indicating the number of sub-frames used for the wireless and direct communication; and information indicating the number of resource blocks used for the wireless and direct communication, and information indicating the number of sub-frames used for the wireless and direct communication; and means configured to transmit the information for charging to a node, which is not involved in the wireless and direct communication.
A crystalline solid electrolyte being represented by Compositional Formula: Li x Si y P z S a Ha w, wherein Ha includes one or two or more of Br, Cl, I, and F, and 2.4 < (x - y)/(y + z) < 3.3, wherein the content of S is 55 to 73% by mass, the content of Si is 2 to 11% by mass, and the content of a Ha element is 0.02% by mass or more, the crystalline solid electrolyte having peaks exhibited at positions of 2θ = 20.2° ± 0.5°, 24.0° ± 0.5°, and 29.7° ± 0.5° and peaks exhibited at positions of 2θ = 24.8° ± 0.5° to 26.1° ± 0.5°, for a XRD pattern obtained by X-ray diffraction measurement using a CuKα line, the peaks being derived from a Li-Si-P-S type crystal structure, and the Li-Si-P-S type crystal structure being a crystal structure in which the crystal is a cubic crystal of a = b for a position coordinate in a crystal lattice, a PS 4 or SiS 4 tetrahedral center exists at the position of a = 0, b = 0, and c = 0.5, the position of a = 0, b = 0.5, and c = 0.69, and the position satisfying the following symmetry, and for the symmetry, the c-axis passing through a = 0 and b = 0.5 has the four-fold helical symmetry that is subjected to a translation by c = 0.5, thereby being the plane 004 to be the glide plane of 110 direction, being the plane 220 to be the glide plane of 001 direction, and being the plane 200 to be the mirror plane.
A system for controlling a direct current bus voltage, wherein the control system comprises a controller and an inverter, wherein an output end of the inverter is connected to a power grid, and an input end of the inverter is connected to a photovoltaic module through a direct current bus; and characterised in that the controller is configured to: obtain a power grid voltage; obtain a maximum sampling value of a direct current bus voltage of the inverter when the power grid voltage jumps, wherein the maximum sampling value of the direct current bus voltage is a maximum voltage value on the direct current bus in a time period for detecting a power grid voltage jump; obtain a first direct current bus voltage reference value based on the maximum sampling value of the direct current bus voltage, wherein the first direct current bus voltage reference value is greater than or equal to the maximum sampling value of the direct current bus voltage; and obtain a second direct current bus voltage reference value based on the first direct current bus voltage reference value and a preset first rising gradient value, the rising gradient value indicating a voltage rise of the bus voltage reference value over time, to limit a rising rate of the direct current bus voltage; wherein the first direct current bus voltage reference value is obtained at a current moment, whereas the second direct current bus voltage reference value is obtained at another moment after the current moment. an output end of the inverter is connected to a power grid, and an input end of the inverter is connected to a photovoltaic module through a direct current bus; and characterised in that the controller is configured to: obtain a power grid voltage; obtain a maximum sampling value of a direct current bus voltage of the inverter when the power grid voltage jumps, wherein the maximum sampling value of the direct current bus voltage is a maximum voltage value on the direct current bus in a time period for detecting a power grid voltage jump; obtain a first direct current bus voltage reference value based on the maximum sampling value of the direct current bus voltage, wherein the first direct current bus voltage reference value is greater than or equal to the maximum sampling value of the direct current bus voltage; and obtain a second direct current bus voltage reference value based on the first direct current bus voltage reference value and a preset first rising gradient value, the rising gradient value indicating a voltage rise of the bus voltage reference value over time, to limit a rising rate of the direct current bus voltage; wherein the first direct current bus voltage reference value is obtained at a current moment, whereas the second direct current bus voltage reference value is obtained at another moment after the current moment.
A device consisting of an integrated circuit comprising a license verification circuit for selectively activating one or more protected circuits of a device, the license verification circuit being adapted to: communicate outside of the device an identifier (DEVICE ID) associated with the device; receive a first license; derive a device key (DEVICE KEY) from the identifier (DEVICE ID) by applying a key derivation function; decrypt the first license using the device key and a symmetrical encryption/decryption algorithm in order to extract a first verification code; and activate a first protected circuit by loading an activation code into an activation register associated with the first protected circuit based on a verification of the first verification code. communicate outside of the device an identifier (DEVICE ID) associated with the device; receive a first license; derive a device key (DEVICE KEY) from the identifier (DEVICE ID) by applying a key derivation function; decrypt the first license using the device key and a symmetrical encryption/decryption algorithm in order to extract a first verification code; and activate a first protected circuit by loading an activation code into an activation register associated with the first protected circuit based on a verification of the first verification code.
A triboelectric fiber quality sensor for sensing a quality of a fiber, the fiber quality sensor comprising a first in-plane pair of mutually adjacent electrodes arranged for contacting the fiber to generate a first voltage over the electrodes, the first voltage being indicative of the quality of the fiber, the first pair of electrodes including: a first conductive electrode (1, Cu), and a first dielectric electrode (D, 2) having a first dielectric material (D, FEP) with a conductive backing. a first conductive electrode (1, Cu), and a first dielectric electrode (D, 2) having a first dielectric material (D, FEP) with a conductive backing.
An image generation device that generates an output image including a road image based on plural input images that are captured by plural cameras (2, 2L, 2R, 2B) mounted to a body (60, 63) to be operated, wherein input image portions of two cameras (2B, 2R; 2B, 2L) of the plural cameras that correspond to an overlapping area where image capturing ranges of the two cameras (2B, 2R; 2B, 2L) overlap are arranged to form a lattice pattern on the output image; the image generation device, being characterized in that the lattice pattern includes as a unit pattern a region that is defined by two circles having a center at a position of a first camera of the two cameras, and two circles having a center at a position of a second camera of the two cameras.
Liquid protection product for a substrate, such as a wall, a floor or a roof, having water-repellent and oil-repellent properties which allow it to protect said substrate against soiling, graffiti and pollution, and comprising a water-repellent and oil-repellent agent which is formed by a dispersion of a fluorinated acrylic copolymer, a synthetic binder, a coalescent agent and an agent for regulating the penetration of the liquid product into said substrate, characterised in that, per 1 kg, it comprises: - from 1 to 10 g of organic or inorganic, non-ionic surfactant pigments; - from 1 to 100 g of titanium dioxide in aqueous phase; - from 3 to 6 g of alcohol ether 2,2,4-trimethyl-1,3-pentanediol-mono-(2-methylpropanolate) as a coalescent agent; - from 8 to 40 g of said synthetic binder; - from 20 to 40 g of said water-repellent and oil-repellent agent; - from 0.75 to 5 g of said agent for regulating the penetration of said liquid product into the substrate; and - water ad 1 kg. - from 1 to 10 g of organic or inorganic, non-ionic surfactant pigments; - from 1 to 100 g of titanium dioxide in aqueous phase; - from 3 to 6 g of alcohol ether 2,2,4-trimethyl-1,3-pentanediol-mono-(2-methylpropanolate) as a coalescent agent; - from 8 to 40 g of said synthetic binder; - from 20 to 40 g of said water-repellent and oil-repellent agent; - from 0.75 to 5 g of said agent for regulating the penetration of said liquid product into the substrate; and - water ad 1 kg.
A method of configuring a unit of a networked safety system, the unit being connected to the network, and having a memory and an optical data receiver; and the method comprising the steps of: activating the optical data receiver on the unit; transmitting, by a remote communication device having an optical data transmitter, an optical data signal to the unit; recording data included in the optical data signal onto the unit' s memory; de-activating the optical data receiver on said unit; characterised in that, after de-activation of the optical data receiver, a common control unit in communication with the unit interrogates the unit to determine whether or not any changes have been made in the memory of the unit, and updating a memory in the common control unit with changes identified in the memory of the unit. activating the optical data receiver on the unit; transmitting, by a remote communication device having an optical data transmitter, an optical data signal to the unit; recording data included in the optical data signal onto the unit' s memory; de-activating the optical data receiver on said unit; characterised in that, after de-activation of the optical data receiver, a common control unit in communication with the unit interrogates the unit to determine whether or not any changes have been made in the memory of the unit, and updating a memory in the common control unit with changes identified in the memory of the unit.
An anti-theft horn assembly, comprising an anti-theft horn and a mounting bracket, wherein the mounting bracket is configured to fix the anti-theft horn at an inner side of a vehicle wing; the mounting bracket comprises a first fixing part, a substrate, a second fixing part, and an anti-theft horn mounting part; the first fixing part is located at a first end of the substrate for fixedly connecting with a vehicle cabin; the second fixing part is located at a second end of the substrate for fixedly connecting with a vehicle wing mounting bracket; and wherein the anti-theft horn mounting part is located at an inner side of the substrate and forms a U-shaped groove structure with the substrate, and the anti-theft horn is located in the U-shaped groove structure, and is fixedly connected to the anti-theft horn mounting part and is spaced from the inner side of the substrate. the mounting bracket comprises a first fixing part, a substrate, a second fixing part, and an anti-theft horn mounting part; the first fixing part is located at a first end of the substrate for fixedly connecting with a vehicle cabin; the second fixing part is located at a second end of the substrate for fixedly connecting with a vehicle wing mounting bracket; and wherein the anti-theft horn mounting part is located at an inner side of the substrate and forms a U-shaped groove structure with the substrate, and the anti-theft horn is located in the U-shaped groove structure, and is fixedly connected to the anti-theft horn mounting part and is spaced from the inner side of the substrate.
A seal molding system for forming a seal around a fitting mounted to a panel, comprising: a mold body having a mold inner geometry formed complementary to a fitting outer geometry of a fitting; the mold body having a mold base formed complementary to a panel surface; and the mold body including an injection hole for injecting sealant into a mold cavity, and a vent hole for venting air and sealant from the mold cavity, wherein the mold body is comprised of: a fixed base portion having a base portion inner geometry configured complementary to a fitting base; a rotatably adjustable top portion being mountable on top of the fixed base portion and having a top portion inner geometry configured complementary to a rotatable fitting feature being rotatably engaged to the fitting base; and the rotatably adjustable top portion being rotatable relative to the fixed base portion for clocking the top portion inner geometry into alignment with the rotatable fitting feature. a mold body having a mold inner geometry formed complementary to a fitting outer geometry of a fitting; the mold body having a mold base formed complementary to a panel surface; and the mold body including an injection hole for injecting sealant into a mold cavity, and a vent hole for venting air and sealant from the mold cavity, wherein the mold body is comprised of: a fixed base portion having a base portion inner geometry configured complementary to a fitting base; a rotatably adjustable top portion being mountable on top of the fixed base portion and having a top portion inner geometry configured complementary to a rotatable fitting feature being rotatably engaged to the fitting base; and the rotatably adjustable top portion being rotatable relative to the fixed base portion for clocking the top portion inner geometry into alignment with the rotatable fitting feature. a fixed base portion having a base portion inner geometry configured complementary to a fitting base; a rotatably adjustable top portion being mountable on top of the fixed base portion and having a top portion inner geometry configured complementary to a rotatable fitting feature being rotatably engaged to the fitting base; and the rotatably adjustable top portion being rotatable relative to the fixed base portion for clocking the top portion inner geometry into alignment with the rotatable fitting feature.
An uninterruptible power supply UPS system comprising: an AC input configured to be coupled to an AC power source; an AC output configured to be coupled to a load; a power converter circuit coupled to the AC input and the AC output and configured to selectively provide power to the load from the AC power source and an auxiliary power source; and a control circuit operatively coupled to the power converter circuit and configured to generate at least one galvanically isolated neutral reference from the AC power source and/or from the AC output and to control the power converter circuit responsive to the generated at least one neutral reference. an AC input configured to be coupled to an AC power source; an AC output configured to be coupled to a load; a power converter circuit coupled to the AC input and the AC output and configured to selectively provide power to the load from the AC power source and an auxiliary power source; and a control circuit operatively coupled to the power converter circuit and configured to generate at least one galvanically isolated neutral reference from the AC power source and/or from the AC output and to control the power converter circuit responsive to the generated at least one neutral reference.
An aircraft composite wing rib comprising: a web comprising a plurality of sheets of composite material, each sheet comprising a first face and an opposing second face, each face comprising a length and a width, each of the plurality of sheets coupled to at least one other of the plurality of sheets face to face such that the length and width of each face substantially match the length and width of a face of an adjacent sheet, the plurality of sheets formed to include: an upper chord member; a lower chord member; and a plurality of web members extending therebetween; and at least a first flange plate coupled to said web proximate an outer periphery of said web; and further comprising a second flange plate coupled to a side of said web opposite from said first flange plate wherein said first flange plate and said second flange plate sandwich said web therebetween; a flange extending away from said plurality of sheets of composite material that circumscribes an opening for the passage of a structural spar, said flange configured to facilitate coupling said web to the spar. a web comprising a plurality of sheets of composite material, each sheet comprising a first face and an opposing second face, each face comprising a length and a width, each of the plurality of sheets coupled to at least one other of the plurality of sheets face to face such that the length and width of each face substantially match the length and width of a face of an adjacent sheet, the plurality of sheets formed to include: an upper chord member; a lower chord member; and a plurality of web members extending therebetween; and an upper chord member; a lower chord member; and a plurality of web members extending therebetween; and at least a first flange plate coupled to said web proximate an outer periphery of said web; and further comprising a second flange plate coupled to a side of said web opposite from said first flange plate wherein said first flange plate and said second flange plate sandwich said web therebetween; a flange extending away from said plurality of sheets of composite material that circumscribes an opening for the passage of a structural spar, said flange configured to facilitate coupling said web to the spar.
An apparatus for purifying water from microbiological, organic, and chemical pollutants, comprising a working chamber, a liquid pumping system, a system to deliver gas to the apparatus, and a multi-electrode discharge device, gas being injected into the gaps between the electrodes, characterized in that the working chamber is a cylindrical dielectric pipe for pumping a liquid through, the electrodes of the discharge device are provided on the inside surface of the pipe in a circle at an identical spacing from one another, the surface of the electrodes is coated with an electrically insulating material, apertures are provided between the "working" surfaces of the electrodes for delivering gas to a hollow and into the pipe space, and the system to apply high voltage and deliver gas to the discharge device is provided beyond the working chamber.