mhurhangee/ep-ind-claims huggingface dataset:
A process of treating hydrogen gas liberated from the acid or alkaline dissolution of a metal, the process comprising a step of passing the liberated hydrogen gas through a reactor containing an oxidising agent for oxidation of the hydrogen gas into water, wherein the oxidizing agent comprises a metal oxide finely dispersed on an inert carrier and/or diluted with an inert, thermally-conductive diluent.
User equipment, UE, for reporting an unlicensed spectrum capability, wherein the UE comprises: a reporting module, configured to report an unlicensed spectrum capability parameter of the UE to a master base station of the UE when the UE is in a dual-connected state in order to allow the UE to be notified by the master base station of the unlicensed spectrum cells that are configured for the UE separately by the master base station and the secondary base station according to the unlicensed spectrum capability parameter, thereby allowing the UE to perform data transmission by using the unlicensed spectrum cells configured by the base station and the secondary base station, wherein the unlicensed spectrum capability parameter is used to indicate information about an unlicensed spectrum supported by the UE, and the information comprises a list of unlicensed spectrums supported by the UE and a maximum bandwidth value of each unlicensed spectrum; wherein the dual-connected state refers to a state in which the UE is simultaneously served by two or more base stations. a reporting module, configured to report an unlicensed spectrum capability parameter of the UE to a master base station of the UE when the UE is in a dual-connected state in order to allow the UE to be notified by the master base station of the unlicensed spectrum cells that are configured for the UE separately by the master base station and the secondary base station according to the unlicensed spectrum capability parameter, thereby allowing the UE to perform data transmission by using the unlicensed spectrum cells configured by the base station and the secondary base station, wherein the unlicensed spectrum capability parameter is used to indicate information about an unlicensed spectrum supported by the UE, and the information comprises a list of unlicensed spectrums supported by the UE and a maximum bandwidth value of each unlicensed spectrum; wherein the dual-connected state refers to a state in which the UE is simultaneously served by two or more base stations.
A system, comprising: a low-tension unwinding unit for receiving and unwinding a metal coil of metal strip; a non-contacting hold-down device positioned adjacent the low-tension unwinding unit to provide force on the metal strip towards the center of the metal coil during unwinding of the metal coil; a set of quenching zones for cooling the metal strip, wherein the set of quenching zones provides sufficient coolant to reduce a temperature of the metal strip by a rate of at least 30 °C per second; a coolant removal unit positioned downstream of the set of quenching zones; and a bridle unit positioned downstream of the coolant removal unit for increasing tension in the metal strip. a low-tension unwinding unit for receiving and unwinding a metal coil of metal strip; a non-contacting hold-down device positioned adjacent the low-tension unwinding unit to provide force on the metal strip towards the center of the metal coil during unwinding of the metal coil; a set of quenching zones for cooling the metal strip, wherein the set of quenching zones provides sufficient coolant to reduce a temperature of the metal strip by a rate of at least 30 °C per second; a coolant removal unit positioned downstream of the set of quenching zones; and a bridle unit positioned downstream of the coolant removal unit for increasing tension in the metal strip.
A method of treating grain with ozone, the method comprising: introducing ozone in a headspace above the grain in a first location; drawing the ozone into the grain with at least two fans until the ozone is detected in air drawn through a first fan of the at least two fans; once the ozone is detected in the air drawn through the first fan, reducing a flow of air generated by the first fan; and continuing to draw the ozone into the grain with the remaining fans of the at least two fans; wherein, after a first period of time of introducing the ozone in the first location, further comprises: introducing the ozone in the headspace above the grain in a second location; drawing the ozone into the grain with the at least two fans until the ozone is detected in air drawn through the first fan of the at least two fans; once the ozone is detected in the air drawn through the first fan, reducing a flow of air generated by the first fan; and continuing to draw the ozone into the grain with the remaining fans of the at least two fans. introducing ozone in a headspace above the grain in a first location; drawing the ozone into the grain with at least two fans until the ozone is detected in air drawn through a first fan of the at least two fans; once the ozone is detected in the air drawn through the first fan, reducing a flow of air generated by the first fan; and continuing to draw the ozone into the grain with the remaining fans of the at least two fans; wherein, after a first period of time of introducing the ozone in the first location, further comprises: introducing the ozone in the headspace above the grain in a second location; drawing the ozone into the grain with the at least two fans until the ozone is detected in air drawn through the first fan of the at least two fans; once the ozone is detected in the air drawn through the first fan, reducing a flow of air generated by the first fan; and continuing to draw the ozone into the grain with the remaining fans of the at least two fans. introducing the ozone in the headspace above the grain in a second location; drawing the ozone into the grain with the at least two fans until the ozone is detected in air drawn through the first fan of the at least two fans; once the ozone is detected in the air drawn through the first fan, reducing a flow of air generated by the first fan; and continuing to draw the ozone into the grain with the remaining fans of the at least two fans.
A method of constructing an ion guide comprising: providing an elongated spine member; providing a plurality of plates, each plate comprising an aperture therethrough for receiving the spine member and at least one electrode for use in guiding ions; arranging the apertures of the plates around the spine member and translating the plates along the spine member; and locking said plates in position on said spine member such that the plates are fixed axially with respect to the spine member and so that the electrodes of the plates are arranged so as to form an array of electrodes for use in guiding ions;; characterised in that different ones of the plates have different sized or shaped apertures and the spine member varies in size or shape along its axial length, and wherein the plates are translated axially along the spine member until they become locked at different axial positions. providing an elongated spine member; providing a plurality of plates, each plate comprising an aperture therethrough for receiving the spine member and at least one electrode for use in guiding ions; arranging the apertures of the plates around the spine member and translating the plates along the spine member; and locking said plates in position on said spine member such that the plates are fixed axially with respect to the spine member and so that the electrodes of the plates are arranged so as to form an array of electrodes for use in guiding ions;; characterised in that different ones of the plates have different sized or shaped apertures and the spine member varies in size or shape along its axial length, and wherein the plates are translated axially along the spine member until they become locked at different axial positions.
A passive optical network communications method, wherein the method comprises: receiving, by an optical network unit, a first message sent by an optical line terminal, wherein the first message carries backup wavelength channel ID information; switching, by the optical network unit when the optical network unit detects a fault, an operating wavelength channel of the optical network unit to a backup wavelength channel identified by the backup wavelength channel ID information; and performing, by the optical network unit, data communication over the switched-to backup wavelength channel. receiving, by an optical network unit, a first message sent by an optical line terminal, wherein the first message carries backup wavelength channel ID information; switching, by the optical network unit when the optical network unit detects a fault, an operating wavelength channel of the optical network unit to a backup wavelength channel identified by the backup wavelength channel ID information; and performing, by the optical network unit, data communication over the switched-to backup wavelength channel.
A first integrated circuit device comprising: a transmitter having circuitry (310, 315, 320, 320) to equalize data to be transmitted to a second integrated circuit over a signaling path; and characterized in that the circuitry includes plural taps and supports two equalization modes, including a high-power mode, where each of the plural taps provides compensation for only pre-tap inter-symbol interference, and a low-power mode where at least one of the plural taps provides compensation for post-tap inter-symbol interference, each of the high-power and the low-power modes configured to provide a level of operability based on channel characteristics of the signal path, and a selection between the high-power and the low-power mode is made irrespective of the channel characteristics of the signal path; the first integrated circuit device further comprising a receiver having a decision feedback equalizer adapted to equalize second data to be received from the second integrated circuit wherein the DFE is adapted to operate in one of the respective equalization modes. a high-power mode, where each of the plural taps provides compensation for only pre-tap inter-symbol interference, and a low-power mode where at least one of the plural taps provides compensation for post-tap inter-symbol interference, each of the high-power and the low-power modes configured to provide a level of operability based on channel characteristics of the signal path, and a selection between the high-power and the low-power mode is made irrespective of the channel characteristics of the signal path;
A component comprising: a body comprising zircon grains, and an intergranular phase present between the zircon grains, the intergranular phase comprising free silicon oxide, wherein SO OP < 0.5SO IP, SO IP is the weight percentage of free silicon oxide phase in the intergranular phase measured at a depth of 5000 μm from an outer surface of the body, and SO OP is the weight percentage of free silicon oxide phase in the intergranular phase measured at a depth of 100 μm from the outer surface of the body. a body comprising zircon grains, and an intergranular phase present between the zircon grains, the intergranular phase comprising free silicon oxide, wherein SO OP < 0.5SO IP, SO IP is the weight percentage of free silicon oxide phase in the intergranular phase measured at a depth of 5000 μm from an outer surface of the body, and SO OP is the weight percentage of free silicon oxide phase in the intergranular phase measured at a depth of 100 μm from the outer surface of the body.
A driver assistance apparatus comprising: at least one processor being configured to: generate a main image using at least one camera (195, 196, 197, 198); receive one or more sub images generated by at least one other vehicle using a communication unit; select at least one of the sub images; generate an expanded image using the main image and the selected at least one of the sub images, characterized in that the processor is further configured to: acquire GPS coordinate values within an electronic map, which match with a touched point; transmit, through the communication unit, an image request signal to two other vehicles (10, 11) which corresponds to the GPS coordinate values; and receive, through the communication unit, at least one of sub images transmitted by the two other vehicles (10, 11) in response to the image request signal. at least one processor being configured to: generate a main image using at least one camera (195, 196, 197, 198); receive one or more sub images generated by at least one other vehicle using a communication unit; select at least one of the sub images; generate an expanded image using the main image and the selected at least one of the sub images, generate a main image using at least one camera (195, 196, 197, 198); receive one or more sub images generated by at least one other vehicle using a communication unit; select at least one of the sub images; generate an expanded image using the main image and the selected at least one of the sub images, characterized in that the processor is further configured to: acquire GPS coordinate values within an electronic map, which match with a touched point; transmit, through the communication unit, an image request signal to two other vehicles (10, 11) which corresponds to the GPS coordinate values; and receive, through the communication unit, at least one of sub images transmitted by the two other vehicles (10, 11) in response to the image request signal. acquire GPS coordinate values within an electronic map, which match with a touched point; transmit, through the communication unit, an image request signal to two other vehicles (10, 11) which corresponds to the GPS coordinate values; and receive, through the communication unit, at least one of sub images transmitted by the two other vehicles (10, 11) in response to the image request signal.
An absorbent structure for use in disposable absorbent articles comprising: (a) a substrate layer, (b) absorbent polymer particles supported by said substrate layer, (c) a thermoplastic adhesive material comprising one or more oily substances, said thermoplastic adhesive material immobilizing said absorbent polymer particles on said substrate layer, (d) an oil-scavenger component contacting said absorbent polymer particles and said thermoplastic adhesive material, characterized in that the oil-scavenger component comprises at least one selected from the group consisting of 1-octadecanol, 1,2-dodecanediol, 1,2-hexadecanediol, 1-tetradecanol, 1,2-tetradecanediol, 1,14-tetradecanediol, 1-octadecanol, 1,2-octadecanediol, 1,12-octadecanediol, dodecanoic acid, octadecanoic acid, hexadecanedioic acid, tetradecanoic acid, tetradecanedioic acid, and combinations thereof. (a) a substrate layer, (b) absorbent polymer particles supported by said substrate layer, (c) a thermoplastic adhesive material comprising one or more oily substances, said thermoplastic adhesive material immobilizing said absorbent polymer particles on said substrate layer, (d) an oil-scavenger component contacting said absorbent polymer particles and said thermoplastic adhesive material,
Registration system,for registering bottles and similar containers, which comprise features arranged on a container wall, wherein the registration system, past which the containers are conveyed standing upright on a rotating plate, such as to be capable of rotation, comprises a lighting unit, which comprises a carrier element with a light surface in the form of a circle section oriented towards the container, which surrounds the container in sections but which is spaced axially at a distance from it, and an optical assembly with at least one camera, characterized in that the lighting unit comprises on its lighting surface at least one fibre optic, at which light sources are arranged vertically and in vertically aligned rows, which are spaced at a distance from one another, such that, from or by the lighting unit, a stripe-shaped vertically aligned light pattern with a plurality of vertically aligned light beams or strips can be projected onto a container wall area, wherein the container wall area illuminated with the stripe-shaped light pattern corresponds to some 40% of the total circumference of the container, and wherein the said container wall area can be appraised by the optical assembly with a plurality of cameras, wherein the cameras are arranged height-offset in relation to the lighting unit.
A quinoxaline derivative represented by a general formula, where, α represents a substituted or unsubstituted arylene group having 6 to 13 carbon atoms; β represents a substituted or unsubstituted arylene group having 6 to 13 carbon atoms; n represents an integer of 1; Py represents a substituted or unsubstituted pyridyl group; R 1 represents any of an alkyl group having 1 to 4 carbon atoms and a substituted or unsubstituted aryl group having 6 to 13 carbon atoms; and R 11 to R 14 are the same or different from each other and each represent any of hydrogen, an alkyl group having 1 to 4 carbon atoms, and a substituted or unsubstituted aryl group having 6 to 13 carbon atoms.
A power storage apparatus of a power generation system using natural energy generation, power of which changes with time, wherein the power storage apparatus is adapted to relieving change of power generation of the power generation system by executing charge and discharge, wherein the power storage apparatus comprises a plurality of electricity storage devices (2-1, 2-2, 2-3) respectively comprising a converter (2-1-2, 2-2-2, 2-3-2) and a secondary battery (2-1-1, 2-2-1, 2-3-1), wherein the converter comprises a charge rate calculator for detecting the value (SOC1 - SOC3) of a charge rate of the secondary battery, a control unit is provided including a power station output target value calculator for calculating a power station output target value (PSysT), a charge and discharge power instruction calculator (3-6, 3-2) for calculating a change relief charge and discharge instruction value (PBMitiC1, PBMitiC2, PBMitiC3) on the basis of the power station output target value (PSysT), a charge rate target value calculator for calculating a charge rate target value (SOCT1 - SOCT3) of the plurality of electricity storage devices (2-1, 2-2, 2-3), and a charge rate management charge and discharge instruction calculator (3-5, 3-7) for correcting the change relief charge and discharge instruction value (PBMitiC1, PBMitiC2, PBMitiC3) on the basis of the charge rate target value (SOCT1 - SOCT3) and the detected value (SOC1 - SOC3) of the charge rate and calculating a corrected charge and discharge power instruction value (PBC1, PBC2, PBC3) for instructing the converters (2-1-2, 2-2-2, 2-3-2) of each of the electricity storage devices, the converters (2-1-2, 2-2-2, 2-3-2) are configured so as to control the charge and discharge power of the secondary batteries (2-1-1, 2-2-1, 2-3-1) so as to follow the corrected charge and discharge power instruction value (PBC1, PBC2, PBC3) from the control unit and to mitigate changes of a combined power formed by adding power outputted from the power generation system and the charge and discharge power outputted from the power storage apparatus, and the control unit includes a deterioration index calculator for calculating a correction value of the charge rate target value (SOCT1 - SOCT3) of the power storage apparatus according to characteristics or an operation history of the plurality of secondary batteries (2-1-1, 2-2-1, 2-3-1) and instructing the charge rate target value calculator of the correction value.
Method for imaging the inner contour of a tube having the following steps: - providing a tube, - radiating light having a first polarization direction onto a first end of the provided tube in the longitudinal direction of the tube, wherein the component of the radiated light that has travelled through the tube wall in the longitudinal direction is attenuated owing to absorption and/or scattering processes, and wherein the component of the radiated light that is incident on the internal cross section of the tube travels through the tube in the longitudinal direction in substantially unattenuated fashion, - reflecting the radiated light downstream of a second tube end, wherein the radiated light passes through an optical element for rotating the polarization direction before and after the reflection, with the result that the light after its second passage through the optical element has the second polarization direction, - wherein the light that is returning through the tube due to the reflection has the second polarization direction that is orthogonal with respect to the first polarization direction, - filtering the returning light with a polarization filter to transmit only the returning light having the second polarization direction, - wherein the returning light is recorded after its passage through the polarization filter using a receiver for receiving the returning light. - providing a tube, - radiating light having a first polarization direction onto a first end of the provided tube in the longitudinal direction of the tube, wherein the component of the radiated light that has travelled through the tube wall in the longitudinal direction is attenuated owing to absorption and/or scattering processes, and wherein the component of the radiated light that is incident on the internal cross section of the tube travels through the tube in the longitudinal direction in substantially unattenuated fashion, - reflecting the radiated light downstream of a second tube end, wherein the radiated light passes through an optical element for rotating the polarization direction before and after the reflection, with the result that the light after its second passage through the optical element has the second polarization direction, - wherein the light that is returning through the tube due to the reflection has the second polarization direction that is orthogonal with respect to the first polarization direction, - filtering the returning light with a polarization filter to transmit only the returning light having the second polarization direction, - wherein the returning light is recorded after its passage through the polarization filter using a receiver for receiving the returning light.