mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, for a wireless network, comprising: a receiver module to receive an encrypted broadcast; and a processor coupled with the receiver module, the processor to: decrypt the encrypted broadcast with a first decryption key and a second decryption key, wherein the first decryption key is a first private key corresponding to a first public key of authorized users, said first public key used to encrypt the broadcast first, and wherein the second decryption key corresponds to a second public key of authorized applications, said second public key used to encrypt the broadcast after encryption with the first public key; and identify, based on the decrypted broadcast, device-to-device, D2D, discovery information associated with a remote UE. a receiver module to receive an encrypted broadcast; and a processor coupled with the receiver module, the processor to: decrypt the encrypted broadcast with a first decryption key and a second decryption key, wherein the first decryption key is a first private key corresponding to a first public key of authorized users, said first public key used to encrypt the broadcast first, and wherein the second decryption key corresponds to a second public key of authorized applications, said second public key used to encrypt the broadcast after encryption with the first public key; and identify, based on the decrypted broadcast, device-to-device, D2D, discovery information associated with a remote UE. decrypt the encrypted broadcast with a first decryption key and a second decryption key, wherein the first decryption key is a first private key corresponding to a first public key of authorized users, said first public key used to encrypt the broadcast first, and wherein the second decryption key corresponds to a second public key of authorized applications, said second public key used to encrypt the broadcast after encryption with the first public key; and identify, based on the decrypted broadcast, device-to-device, D2D, discovery information associated with a remote UE.
A method of packaging ancillary data for digital television content provider, the method carried out by the DTV content provider, comprising: providing a digital representation of the video content; packaging closed caption data to form a part of the video content; and where the closed caption data comprises: a window definition that defines a hidden window, the hidden window being a closed captioning window which, by virtue of one or more visibility or transparency attributes of the window definition, will not be rendered as visible at a receiver; an indicator in the hidden window that signifies the presence of information in the hidden window that is to be parsed out as ancillary data, and the ancillary data defined to be within the hidden window; and whereby, neither the indicator nor the ancillary data are displayable as closed caption data. providing a digital representation of the video content; packaging closed caption data to form a part of the video content; and where the closed caption data comprises: a window definition that defines a hidden window, the hidden window being a closed captioning window which, by virtue of one or more visibility or transparency attributes of the window definition, will not be rendered as visible at a receiver; an indicator in the hidden window that signifies the presence of information in the hidden window that is to be parsed out as ancillary data, and the ancillary data defined to be within the hidden window; and a window definition that defines a hidden window, the hidden window being a closed captioning window which, by virtue of one or more visibility or transparency attributes of the window definition, will not be rendered as visible at a receiver; an indicator in the hidden window that signifies the presence of information in the hidden window that is to be parsed out as ancillary data, and the ancillary data defined to be within the hidden window; and whereby, neither the indicator nor the ancillary data are displayable as closed caption data.
A method for fabricating an optoelectronic device, the method comprising: generating, by a laser beam generator, a laser beam; splitting, by a set of beam splitters, the laser beam into portions of the laser beam; and directing the portions of the laser beam towards the plurality of targets, each of the plurality of targets being submerged in a corresponding synthesis solvent, and each of the portions of the laser beam is directed towards its corresponding target by one or more of the set of beam splitters, wherein interaction of each portion of the laser beam with a corresponding target of the plurality of targets releases nanoparticles into the corresponding synthesis solvent to create a nanoparticle solution including both synthesis solvent and released nanoparticles, characterized in that each of the plurality of targets is in a corresponding synthesis chamber, the method further comprising collecting, in a collection chamber, nanoparticle solution from at least one of the plurality of synthesis chambers; and depositing the collected nanoparticle solution on a substrate having interdigitated electrodes to form an optoelectronic device, wherein depositing the collected nanoparticle solution on a substrate comprises spray-coating, dip-coating, or spin-coating the substrate with the nanoparticle solution. generating, by a laser beam generator, a laser beam; splitting, by a set of beam splitters, the laser beam into portions of the laser beam; and directing the portions of the laser beam towards the plurality of targets, each of the plurality of targets being submerged in a corresponding synthesis solvent, and each of the portions of the laser beam is directed towards its corresponding target by one or more of the set of beam splitters, wherein interaction of each portion of the laser beam with a corresponding target of the plurality of targets releases nanoparticles into the corresponding synthesis solvent to create a nanoparticle solution including both synthesis solvent and released nanoparticles, characterized in that each of the plurality of targets is in a corresponding synthesis chamber, the method further comprising collecting, in a collection chamber, nanoparticle solution from at least one of the plurality of synthesis chambers; and depositing the collected nanoparticle solution on a substrate having interdigitated electrodes to form an optoelectronic device, wherein depositing the collected nanoparticle solution on a substrate comprises spray-coating, dip-coating, or spin-coating the substrate with the nanoparticle solution.
A composition for forming a coating layer, which comprises composite particles each comprising a particle containing titanium oxide, a first covering layer containing cerium oxide and a second covering layer containing silicon oxide in this order from the inside, wherein the amount of cerium oxide is from 5 to 30 parts by mass based on 100 parts by mass of titanium oxide, the amount of silicon oxide is from 5 to 60 parts by mass based on 100 parts by mass of titanium oxide, and the average particle size of the composite particles is from 0.15 to 3 μm, a resin and a liquid medium, wherein the resin is a fluororesin.
A metal oxide, having the general formula of Co 3-x M x O 4, wherein 0 < x ≤ 0.3, M comprises at least one of the following metal elements: Al, Mg, Ti, Zr, Ni, Mn, Y, Sc, V, Cr, Ga, Nb, Mo, In, Ce, Pr, Er, Yb, Lu, or W, and a difference value, measured by an energy spectrometer of a scanning electron microscopy, of the weight percentage of one of M in two regions having the same area is E, wherein O<E≤1 wt.%, wherein an average valence of M in the metal oxide is A, and +2≤A≤+3.5. M comprises at least one of the following metal elements: Al, Mg, Ti, Zr, Ni, Mn, Y, Sc, V, Cr, Ga, Nb, Mo, In, Ce, Pr, Er, Yb, Lu, or W, and a difference value, measured by an energy spectrometer of a scanning electron microscopy, of the weight percentage of one of M in two regions having the same area is E, wherein O<E≤1 wt.%, wherein an average valence of M in the metal oxide is A, and +2≤A≤+3.5.
A display apparatus comprising: a liquid crystal display; a plurality of light-emitting elements (491, 492) for backlighting the liquid crystal display, the light-emitting elements being arranged along a side of the liquid crystal display; a backlight cover covering with its front face the plurality of light-emitting elements (491, 492) and the area of the liquid crystal display, the backlight cover being made of a heat-conducting material for dissipating the heat generated by the light-emitting elements and an electronic circuit assembly positioned on the rear face of the backlight cover (1010, 1020), characterized in that the backlight cover comprises protrusions positioned at sides of the backlight cover for mounting the display apparatus into a target location. a liquid crystal display; a plurality of light-emitting elements (491, 492) for backlighting the liquid crystal display, the light-emitting elements being arranged along a side of the liquid crystal display; a backlight cover covering with its front face the plurality of light-emitting elements (491, 492) and the area of the liquid crystal display, the backlight cover being made of a heat-conducting material for dissipating the heat generated by the light-emitting elements and an electronic circuit assembly positioned on the rear face of the backlight cover (1010, 1020), characterized in that the backlight cover comprises protrusions positioned at sides of the backlight cover for mounting the display apparatus into a target location.
A method for preparing a modified collagen, the method comprising the steps of: (a) providing isolated collagen; (b) freezing the isolated collagen; (c) dehydrating the frozen collagen; and (d) maturing the dehydrated collagen, wherein the maturing step comprises storing the dehydrated collagen at a temperature of at least 40 °C for at least six weeks, or storing the dehydrated collagen at a temperature of at least 65 °C for at least one week, or storing the dehydrated collagen at a temperature of at least 30 °C for at least two months. (a) providing isolated collagen; (b) freezing the isolated collagen; (c) dehydrating the frozen collagen; and (d) maturing the dehydrated collagen, wherein the maturing step comprises storing the dehydrated collagen at a temperature of at least 40 °C for at least six weeks, or storing the dehydrated collagen at a temperature of at least 65 °C for at least one week, or storing the dehydrated collagen at a temperature of at least 30 °C for at least two months.
A balancing device for an overhead construction which is arrangeable on a building structure, comprising a canopy plate which is clamped in a support profile having two support legs (14, 16) in a connection region, wherein at least one bore (28, 34, 40) is formed in at least one support leg (14, 16), in which bore in each case one adjustment screw (30, 36, 46) is arranged, and wherein the adjustment screws (30, 36, 46) are arranged punctually or in a row (a, b, c, d,..., n) in the support profile, and wherein the canopy plate is supported to be adjustable by force actuation of the adjustment screw (30, 36, 46) via pressure elements (26, 32, 38) limited to an angular range, characterized in that each adjustment screw (30, 36, 46) is assigned in each case one pressure element (26, 32, 38) and in that the pressure element (26, 32, 38) is formed in the shape of a wedge.
A light-emitting diode module comprising a light-emitting diode chip mounted on a board, and a cover, the cover comprising an outer dam dispensed on the board, and a central filling, which is filled into the outer dam, wherein the outer dam is made from a cured resin; wherein the central filling is made from a cured transparent silicone based resin, and wherein the central filling comprises color conversion particles; characterized in that the outer dam is non-transparent and comprises reflecting particles throughout the bulk of the outer dam material, and the central filling is chemically linked to the outer dam across the interface between the two materials.
A bladed rotor for a gas turbine engine, the bladed rotor comprising a hub and a circumferential array of blades extending from the hub, each blade having an airfoil extending from a gaspath side of a platform provided at a periphery of the hub; and characterised by further comprising: an annular array of projections depending from an interior side of the blade platform at circumferential locations generally corresponding to every second blade, the projections cooperating to form a circumferentially interrupted rib, the interrupted rib configured to provide a desired frequency response to the bladed rotor.
A rain protection system comprising: a pump having a pump housing; a power source housed within a control housing; a control unit housed inside the control housing, wherein the control unit is configured to at least partially control the pump; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover; the cover is biased by a biasing means to remain in the closed state; characterized in that: the open state is achieved when the cover is being moved against the force exerted by the biasing means. a pump having a pump housing; a power source housed within a control housing; a control unit housed inside the control housing, wherein the control unit is configured to at least partially control the pump; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover; the cover is biased by a biasing means to remain in the closed state; characterized in that: the open state is achieved when the cover is being moved against the force exerted by the biasing means.
A method for controlling a pulse oximeter, comprising: resetting and starting a measurement period countdown timer; determining whether the measurement period countdown timer has expired; resetting and starting a measurement window countdown timer and receiving accelerometer data from an accelerometer coupled to the pulse oximeter in response to determining that the measurement period countdown timer has expired; determining a patient activity state based at least in part on the received accelerometer data; determining whether the measurement window countdown timer has expired; in response to determining that the measurement window countdown timer has expired, turning on the pulse oximeter; in response to determining that the measurement window countdown timer has not expired, determining whether the patient activity state is a rest state and turning on the pulse oximeter in response to determining the patient activity state is a rest state; controlling the pulse oximeter to take measurements in response to turning on the pulse oximeter; and turning off the pulse oximeter in response to taking the pulse oximeter measurements. resetting and starting a measurement period countdown timer; determining whether the measurement period countdown timer has expired; resetting and starting a measurement window countdown timer and receiving accelerometer data from an accelerometer coupled to the pulse oximeter in response to determining that the measurement period countdown timer has expired; determining a patient activity state based at least in part on the received accelerometer data; determining whether the measurement window countdown timer has expired; in response to determining that the measurement window countdown timer has expired, turning on the pulse oximeter; in response to determining that the measurement window countdown timer has not expired, determining whether the patient activity state is a rest state and turning on the pulse oximeter in response to determining the patient activity state is a rest state; controlling the pulse oximeter to take measurements in response to turning on the pulse oximeter; and turning off the pulse oximeter in response to taking the pulse oximeter measurements.
Wiper arm, wherein the wiper arm comprises an articulating part, a lever part and a spring, wherein the parts (12, 14) form a common joint, with the result that the lever part has a degree of freedom relative to the articulating part, the parts (12, 14) thus being connected to one another by the spring, wherein the lever part is positioned along the degree of freedom by the spring, wherein the spring is a torsion spring which is arranged in the region of the joint, wherein the side elements of the lever part engage around the articulating part in the region of the joint and a pin projects transversely to the longitudinal direction through the side parts and the articulating part, wherein the torsion spring is arranged on the pin, characterized in that the side elements have tabs which project between the side elements, and the torsion spring has extensions for tensioning the torsion spring, wherein the extensions lie against the tabs, and the articulating part has a support surface for an extension, wherein the support surface is moulded on the back element, and in that a first extension lies against a tab of the lever part and a second extension lies against the support surface, and in that an extension lies against a tab, and at least two extensions lie against the support surface, wherein the second extensions are in the form of an extension-like loop.
A covered member with excellent sliding properties having a hard film on a working surface, the hard film including: an A layer, in the A layer an a1 layer and an a2 layer being alternately laminated, the a1 layer comprising a nitride or carbonitride having 30% or more of chromium in terms of atomic ratio in metal component including metalloid, and the a2 layer comprising a nitride or carbonitride having 60% or more of vanadium in terms of atomic ratio in metal component including metalloid; and a B layer on top of the A layer, the B layer comprising a nitride or carbonitride having 60% or more of vanadium in terms of atomic ratio in metal component including metalloid, wherein each of the a1 and a2 layers of the A layer has a film thickness of 50 nm or less, with the film thickness of the a2 layer being greater than that of the a1 layer, and the B layer having a film thickness of 0.2 μm or greater. an A layer, in the A layer an a1 layer and an a2 layer being alternately laminated, the a1 layer comprising a nitride or carbonitride having 30% or more of chromium in terms of atomic ratio in metal component including metalloid, and the a2 layer comprising a nitride or carbonitride having 60% or more of vanadium in terms of atomic ratio in metal component including metalloid; and a B layer on top of the A layer, the B layer comprising a nitride or carbonitride having 60% or more of vanadium in terms of atomic ratio in metal component including metalloid, wherein each of the a1 and a2 layers of the A layer has a film thickness of 50 nm or less, with the film thickness of the a2 layer being greater than that of the a1 layer, and the B layer having a film thickness of 0.2 μm or greater.
An inlay for a small-sized, multilayer, portable data carrier, wherein the inlay has a fabric layer (20, 30) which is intimately connected with a plastic layer filling the mesh of the fabric, so that the inlay has a closed surface (50, 51) formed on the one hand by the raised fabric structure of the fabric layer (20, 30) and on the other hand by interjacent intermediate areas of plastic material, characterized in that the closed surface (50, 51) of the inlay is profiled.
A system for improving quality of experience with a wireless communication system, characterized in that the system comprises: a first access node within a plurality of access nodes (110, 111, 112, 304, 306, 802), the first access node collects data comprising a probability distribution of channel gains that have been obtained for one or more channels in the wireless communication system; and a processor coupled to the first access node, the processor identifies user or network behavior by performing steps comprising: receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience. a first access node within a plurality of access nodes (110, 111, 112, 304, 306, 802), the first access node collects data comprising a probability distribution of channel gains that have been obtained for one or more channels in the wireless communication system; and a processor coupled to the first access node, the processor identifies user or network behavior by performing steps comprising: receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience. receiving the collected data; performing an ergodic analysis such that consistent use patterns within the collected data are exploited to determine a policy that satisfies one or more constraints; and providing the policy to at least one access node within the plurality of access nodes to cause the at least one access node to adapt one or more parameters to improve the quality of experience.