mhurhangee/ep-ind-claims huggingface dataset:
A flight range-restricting system that is configured to control a flight range of an unmanned aerial vehicle, UAV,, the flight range-restricting system comprising: a database including a UAV capabilities storage area configured to store UAV capabilities data indicative of technical specifications of the UAV and including a maximum range of the UAV, and a restricted airspace storage area configured to store restricted airspace data indicative of a restricted airspace; and a range-restricting control unit communicatively coupled to the database, wherein the range-restricting control unit is configured to control the flight range of the UAV based on a current location of the UAV, the UAV capabilities data, and the restricted airspace data, wherein the range-restricting control unit is configured to determine a range circle of the UAV based on the current location of the UAV and the UAV capabilities data, wherein the range-restricting control unit is configured to restrict operation of the UAV when the range circle interferes with the restricted airspace; and wherein the range circle is centered about the current location of the UAV, or about the current location of a remote UAV control device that is configured to control operation of the UAV, with a radius representing the maximum range of the UAV. a database including a UAV capabilities storage area configured to store UAV capabilities data indicative of technical specifications of the UAV and including a maximum range of the UAV, and a restricted airspace storage area configured to store restricted airspace data indicative of a restricted airspace; and a range-restricting control unit communicatively coupled to the database, wherein the range-restricting control unit is configured to control the flight range of the UAV based on a current location of the UAV, the UAV capabilities data, and the restricted airspace data, wherein the range-restricting control unit is configured to determine a range circle of the UAV based on the current location of the UAV and the UAV capabilities data, wherein the range-restricting control unit is configured to restrict operation of the UAV when the range circle interferes with the restricted airspace; and wherein the range circle is centered about the current location of the UAV, or about the current location of a remote UAV control device that is configured to control operation of the UAV, with a radius representing the maximum range of the UAV.
A method of bonding materials, comprising: defining a bond interface between two materials in a cure zone on a surface of an object; non-conductively heating the bond interface without directly heating the surface outside of the cure zone, wherein non-conductively heating the bond interface includes emitting microwave radiation from microwave emitters coupled to a housing; characterized in that the method further comprises: determining a temperature of the bond interface with a temperature sensor, modulating emission of the microwave radiation from at least a subset of the microwave emitters based on the temperature of the bond interface, and enclosing the cure zone with the housing configured to isolate the cure zone from the surface of the object outside of the cure zone, and from a space surrounding the housing; wherein enclosing the cure zone with the housing includes adjusting a shape of the housing, and sealing a flexible portion (220b/224b) of the housing against a curved portion of the surface of the object, defining a bond interface between two materials in a cure zone on a surface of an object; non-conductively heating the bond interface without directly heating the surface outside of the cure zone, wherein non-conductively heating the bond interface includes emitting microwave radiation from microwave emitters coupled to a housing; characterized in that the method further comprises: determining a temperature of the bond interface with a temperature sensor, modulating emission of the microwave radiation from at least a subset of the microwave emitters based on the temperature of the bond interface, and enclosing the cure zone with the housing configured to isolate the cure zone from the surface of the object outside of the cure zone, and from a space surrounding the housing; wherein enclosing the cure zone with the housing includes adjusting a shape of the housing, and sealing a flexible portion (220b/224b) of the housing against a curved portion of the surface of the object, determining a temperature of the bond interface with a temperature sensor, modulating emission of the microwave radiation from at least a subset of the microwave emitters based on the temperature of the bond interface, and enclosing the cure zone with the housing configured to isolate the cure zone from the surface of the object outside of the cure zone, and from a space surrounding the housing; wherein enclosing the cure zone with the housing includes adjusting a shape of the housing, and sealing a flexible portion (220b/224b) of the housing against a curved portion of the surface of the object,
A portable pain treatment device including: a base portion having a first plurality of light emitting devices and a first heating unit on a bottom surface of the base portion; a handle that is separated from the base portion by an elliptical shaped opening, the handle including; a second plurality of light emitting devices positioned on an inner surface of the elliptical shaped opening; a second heating unit positioned on the inner surface of the elliptical shaped opening; and the portable pain treatment device further includes a control unit configured to control the light intensity of the first and second plurality of light emitting devices (108/110) and the heat intensity of the first and second heating units (105/306). a base portion having a first plurality of light emitting devices and a first heating unit on a bottom surface of the base portion; a handle that is separated from the base portion by an elliptical shaped opening, the handle including; a second plurality of light emitting devices positioned on an inner surface of the elliptical shaped opening; a second heating unit positioned on the inner surface of the elliptical shaped opening; and the portable pain treatment device further includes a control unit configured to control the light intensity of the first and second plurality of light emitting devices (108/110) and the heat intensity of the first and second heating units (105/306).
A method of making a dental implant, the method comprising: (i) selecting a composition which comprises a polymeric material and an apatite, wherein the polymeric material comprises a polymeric material which comprises a repeat unit of formula wherein t1 and w1 independently represent 0 or 1 and v1 represents 0, 1 or 2; and wherein the ratio of the wt% of said polymeric material divided by the wt% of the hydroxyapatite is in the range 1 to 9; (ii) forming said composition into a shape which defines said dental implant; and (iii) subjecting the implant to a humid atmosphere which comprises greater than 20% humidity for at least 5 days and at a temperature in the range 15 to 100°C for at least five days. (i) selecting a composition which comprises a polymeric material and an apatite, wherein the polymeric material comprises a polymeric material which comprises a repeat unit of formula wherein t1 and w1 independently represent 0 or 1 and v1 represents 0, 1 or 2; and wherein the ratio of the wt% of said polymeric material divided by the wt% of the hydroxyapatite is in the range 1 to 9; (ii) forming said composition into a shape which defines said dental implant; and (iii) subjecting the implant to a humid atmosphere which comprises greater than 20% humidity for at least 5 days and at a temperature in the range 15 to 100°C for at least five days.
A pyrotechnical gas generator comprising at least one pyrotechnical charge, at least one ignitor (5, 6), and a cylindrical casing enclosing said at least one charge and said at least one ignitor (5, 6), said cylindrical casing having an axial direction (D A) and a radial direction (D R) and comprising an annular wall extending along said axial direction (D A) of said casing, and gas ejection holes arranged on said annular wall, characterized in that said cylindrical casing defines a first chamber comprising a first cylindrical partition defining a second chamber enclosing a gas generant and a first ignitor, the first chamber further comprising a second cylindrical partition defining an ignition chamber enclosing an ignition load and a second ignitor, and each gas ejection hole extends in a output plan forming a non-zero angle (α) with a tangential plan which is tangent to said annular wall at said gas ejection hole.
A touch control array substrate applied in a liquid crystal display, the touch control array substrate comprising a touch electrode layer having a plurality of touch electrode blocks configured to detect a touch and configured to provide at least a portion of back light for image display in the touch control array substrate by reflecting ambient light, characterized in that each of the plurality of touch electrode blocks comprises a reflective part and a substantially transparent part electrically connected to each other. the touch control array substrate comprising a touch electrode layer having a plurality of touch electrode blocks configured to detect a touch and configured to provide at least a portion of back light for image display in the touch control array substrate by reflecting ambient light, characterized in that each of the plurality of touch electrode blocks comprises a reflective part and a substantially transparent part electrically connected to each other.
A decolorable toner, comprising a binder resin and a coloring agent which contains a color former compound and a color developing agent being present in a temperature control agent and has a capsule structure such that it is covered with an outer shell, and having a volume average particle diameter of from 5.0 to 15.0 μm, and a particle size distribution CV of 35% or less. a coloring agent which contains a color former compound and a color developing agent being present in a temperature control agent and has a capsule structure such that it is covered with an outer shell, and having a volume average particle diameter of from 5.0 to 15.0 μm, and a particle size distribution CV of 35% or less.
A method of providing a service using a keypad, the method comprising: displaying a text box (600, 1000) and a keypad on a screen; recognizing a start identifier input through the keypad and displaying the start identifier in the text box (600, 1000); recognizing a command input and displaying the command in the text box; recognizing a termination identifier input and displaying the termination identifier in the text box (60, 1000); performing an action according to the command when the termination identifier is inputted; and displaying in the text box (600, 1000) a result according to the action in place of the start identifier, the command and the termination identifier, wherein the performing of the action comprises: determining whether there is a parameter inputted before the start identifier, and, if there is the parameter in front of the start identifier, performing the action according to the command and the parameter. displaying a text box (600, 1000) and a keypad on a screen; recognizing a start identifier input through the keypad and displaying the start identifier in the text box (600, 1000); recognizing a command input and displaying the command in the text box; recognizing a termination identifier input and displaying the termination identifier in the text box (60, 1000); performing an action according to the command when the termination identifier is inputted; and displaying in the text box (600, 1000) a result according to the action in place of the start identifier, the command and the termination identifier, wherein the performing of the action comprises: determining whether there is a parameter inputted before the start identifier, and, if there is the parameter in front of the start identifier, performing the action according to the command and the parameter.
A process for effecting catalytic exothermic reactions in liquid phase involving thermal exchanges, said reactions being dimerization reactions of branched olefins or etherification reactions between branched olefins and linear alcohols, characterized in that it uses a tubular reactor, for catalytic reactions involving thermal exchanges, essentially consisting of a vertical tube-bundle exchanger whose tubes contain catalyst, having inlet and outlet nozzles for each passage side of the reagents, catalyst and thermal exchange liquid, characterized in that said reactor has one or more metallic supports situated outside the lower tube plate in the lower part of the reactor for sustaining the catalyst without metallic supporting devices of the catalyst in the tubes, so that the same catalyst is contained not only in the tubes of the tube-bundle but also in said lower part outside the lower tube plate and also in the upper part outside the upper tube plate, further characterized in that said reactor has a feeding distributor, which comprises a series of vertical and/or side holes, in communication with the lower inlet/outlet nozzle of the reactor, is positioned at a distance from said tube plate greater than 10 mm, whereby the feeding distributor is a central distributor, which is a tube, modified creating a series of circular holes so as to allow the liquid to also be discharged laterally, optionally comprising a plate introduced into the distributor, in addition to the side holes, as a deflector, positioned at a suitable distance from the central hole, so as to further reduce the central flow in favour of the side flow, or has several feeding nozzles, preferably two or four, equidistant from the vertical axis of the reactor, each in communication with a feeding distributor, above which a flow deflector, preferably perforated or perforated and tilted, is positioned, optionally for the introduction of a part of the process fluid with an additional small central nozzle, said catalyst consisting of styrene-divinylbenzene polymeric resins having sulfonic groups as functional centres, wherein said process comprises the following further essential aspects: • the process fluid flows upwards; • the thermostat-regulation fluid flows in the shell side in co-current or countercurrent with respect to the reagents in relation to the quantity of heat to be exchanged; • the thermostat-regulation fluid leaving the reactor is brought back to the desired temperature in a suitable external item before being re-circulated into the reactor. • the process fluid flows upwards; • the thermostat-regulation fluid flows in the shell side in co-current or countercurrent with respect to the reagents in relation to the quantity of heat to be exchanged; • the thermostat-regulation fluid leaving the reactor is brought back to the desired temperature in a suitable external item before being re-circulated into the reactor.
Silicon rubber composition comprising a hydrocarbon extender oil in an amount between 20 and 40 wt.%, wherein the oil is a Fischer-Tropsch derived oil having a kinematic viscosity at 40°C as measured according to DIN 51562 of between 5 and 18 mm 2 /sec, a pour point as measured according to DIN ISO 3016 of below -20° C and a CN number as measured according to IEC 590 of between 15 and 30%.
A heat exchanger header comprising: a primary fluid duct extending between a fluid port and a first branched region; a plurality of secondary fluid ducts fluidly connected to the primary fluid duct at the first branched region, wherein the plurality of secondary fluid ducts extends from the first branched region such that an overhang region is formed laterally between adjacent ones of the plurality of secondary fluid ducts, and wherein each of the plurality of secondary fluid ducts extends between the first branched region and a second branched region; a plurality of tertiary fluid ducts fluidly connected to each of the plurality of secondary fluid ducts at the second branched regions; wherein the heat exchanger header is additively manufactured as a single, monolithic unit; characterized in that the heat exchanger header further comprises: a primary horn integrally formed with and extending from the overhang region; an at least one secondary horn integrally formed with and extending from one of the plurality of tertiary fluid ducts; and a sacrificial support structure extending between the primary horn and the at least one secondary horn. a primary fluid duct extending between a fluid port and a first branched region; a plurality of secondary fluid ducts fluidly connected to the primary fluid duct at the first branched region, wherein the plurality of secondary fluid ducts extends from the first branched region such that an overhang region is formed laterally between adjacent ones of the plurality of secondary fluid ducts, and wherein each of the plurality of secondary fluid ducts extends between the first branched region and a second branched region; a plurality of tertiary fluid ducts fluidly connected to each of the plurality of secondary fluid ducts at the second branched regions; wherein the heat exchanger header is additively manufactured as a single, monolithic unit; a primary horn integrally formed with and extending from the overhang region; an at least one secondary horn integrally formed with and extending from one of the plurality of tertiary fluid ducts; and a sacrificial support structure extending between the primary horn and the at least one secondary horn.
A mobile station which performs communication using a same bearer over component carriers belonging to different base stations (MeNB, SeNB), wherein one of the different base stations is a base station of a secondary cell, the mobile station comprising: a reception unit configured to receive a message indicating the base station to which uplink data are to be transmitted; a determination unit configured to determine which of the different base stations in which the same bearer is configured is a base station to which the uplink data are to be transmitted according to the received message; and a transmission unit configured to transmit the uplink data to the determined base station; wherein the message is an RRC Connection Reconfiguration message including a PDCP-Config Information Element field indicating the base station to which the uplink data are to be transmitted and the reception unit receives the RRC Connection Reconfiguration message upon addition of a component carrier of the secondary cell, wherein the RRC Connection Reconfiguration message is used to configure the bearer that is to be used to transmit the uplink data to the determined base station. a reception unit configured to receive a message indicating the base station to which uplink data are to be transmitted; a determination unit configured to determine which of the different base stations in which the same bearer is configured is a base station to which the uplink data are to be transmitted according to the received message; and a transmission unit configured to transmit the uplink data to the determined base station; wherein the message is an RRC Connection Reconfiguration message including a PDCP-Config Information Element field indicating the base station to which the uplink data are to be transmitted and the reception unit receives the RRC Connection Reconfiguration message upon addition of a component carrier of the secondary cell, wherein the RRC Connection Reconfiguration message is used to configure the bearer that is to be used to transmit the uplink data to the determined base station.
A process for producing polymer-supported metal nanoparticles comprising: mixing a hydrophobic metal precursor compound in an aqueous non-reducing solvent in the presence of an organic polymer that self-organizes into nanotubes or nanosheets, the nanotubes or nanosheets confining the metal precursor compound therein; and, allowing the metal precursor compound to reduce within the nanotubes or nanosheets without addition of reducing agent to form metal nanoparticles confined in the nanotubes or nanosheets.
A powder moldable vinyl chloride resin composition for a real-stitched surface skin comprising: vinyl chloride resin particles (a) having an average degree of polymerization of at least 1,200 and no greater than 5,000 and an average particle diameter of at least 50 μm and no greater than 500 μm; a trimellitate plasticizer (b); vinyl chloride resin fine particles (c) having an average degree of polymerization of at least 1,000 and no greater than 5,000 and an average particle diameter of at least 0.1 μm and no greater than 10 μm; and vinyl chloride resin fine particles (d) having an average degree of polymerization of less than 1,000 and an average particle diameter of at least 0.1 μm and no greater than 10 μm, and wherein the average degree of polymerization is measured in accordance with JIS K6720-2, and wherein the average particle diameter refers to the volume average particle diameter measured by a laser diffraction method in accordance with JIS Z8825. vinyl chloride resin particles (a) having an average degree of polymerization of at least 1,200 and no greater than 5,000 and an average particle diameter of at least 50 μm and no greater than 500 μm; a trimellitate plasticizer (b); vinyl chloride resin fine particles (c) having an average degree of polymerization of at least 1,000 and no greater than 5,000 and an average particle diameter of at least 0.1 μm and no greater than 10 μm; and vinyl chloride resin fine particles (d) having an average degree of polymerization of less than 1,000 and an average particle diameter of at least 0.1 μm and no greater than 10 μm, and wherein the average degree of polymerization is measured in accordance with JIS K6720-2, and wherein the average particle diameter refers to the volume average particle diameter measured by a laser diffraction method in accordance with JIS Z8825.