mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a Java Card device for updating a converted applet, CAP, file comprising at least one existing component on the Java Card device, the method comprising steps of: receiving from a terminal one or multiple first commands, the first command comprising an update file for updating the CAP file, or, the multiple first commands comprising the update file and each of the multiple first commands comprising a portion of the update file; determining at least one element type or location of at least one existing first element comprised in the CAP file using type information or first location information comprised in the update file, each of the at least one element type representing one or more of: at least one component each describing an aspect of the CAP file, or, at least one item of at least one component each describing an aspect of the CAP file; searching the Java Card device for the at least one existing first element using the at least one determined element type or location; and if the at least one existing first element is found, replacing each of the at least one existing first element by one of at least one new first element comprised in the update file, wherein an element type of each of the at least one new first element is the same as an element type of the existing first element replaced by the new first element, and the one or multiple first commands are of an instruction type of instructing the Java Card device to implement the replacing step. receiving from a terminal one or multiple first commands, the first command comprising an update file for updating the CAP file, or, the multiple first commands comprising the update file and each of the multiple first commands comprising a portion of the update file; determining at least one element type or location of at least one existing first element comprised in the CAP file using type information or first location information comprised in the update file, each of the at least one element type representing one or more of: at least one component each describing an aspect of the CAP file, or, at least one item of at least one component each describing an aspect of the CAP file; searching the Java Card device for the at least one existing first element using the at least one determined element type or location; and if the at least one existing first element is found, replacing each of the at least one existing first element by one of at least one new first element comprised in the update file, wherein an element type of each of the at least one new first element is the same as an element type of the existing first element replaced by the new first element, and the one or multiple first commands are of an instruction type of instructing the Java Card device to implement the replacing step.
A robot cleaner comprising: a cleaner body; a dust suction unit and a dust collection unit mounted in the cleaner body; and a driving device configured to move the cleaner body, wherein the driving device comprises: a power generation unit configured to generate power; a power transmission unit configured to transmit the power generated by the power generation unit to a wheel; and the wheel rotated by the power transmitted from the power transmission unit, the wheel comprises: a wheel member connected to the power transmission unit; a first member coupled to an outer circumference of the wheel member close to the power transmission unit; and a second member coupled to an outer circumference of the wheel member far from the power transmission unit, the second member having a diameter less than that of the first member; wherein the second member is made of a more flexible member than the first member and is provided with a plurality of space parts each having an empty space defined therein such that the second member can be easily deformed, and wherein the first member and the second member are disposed overlapping each other or abutting on each other when viewed from above. a cleaner body; a dust suction unit and a dust collection unit mounted in the cleaner body; and a driving device configured to move the cleaner body, wherein the driving device comprises: a power generation unit configured to generate power; a power transmission unit configured to transmit the power generated by the power generation unit to a wheel; and the wheel rotated by the power transmitted from the power transmission unit, a power generation unit configured to generate power; a power transmission unit configured to transmit the power generated by the power generation unit to a wheel; and the wheel rotated by the power transmitted from the power transmission unit, the wheel comprises: a wheel member connected to the power transmission unit; a first member coupled to an outer circumference of the wheel member close to the power transmission unit; and a second member coupled to an outer circumference of the wheel member far from the power transmission unit, the second member having a diameter less than that of the first member; a wheel member connected to the power transmission unit; a first member coupled to an outer circumference of the wheel member close to the power transmission unit; and a second member coupled to an outer circumference of the wheel member far from the power transmission unit, the second member having a diameter less than that of the first member; wherein the second member is made of a more flexible member than the first member and is provided with a plurality of space parts each having an empty space defined therein such that the second member can be easily deformed, and wherein the first member and the second member are disposed overlapping each other or abutting on each other when viewed from above.
A polymer electrolyte membrane comprising: a non-crosslinked ion conductor; and a porous support having a plurality of pores filled with the ion conductor, wherein the porous support comprises a polymer having at least one crosslinking functional group, the ion conductor is a fluorine-based ion conductor, a hydrocarbon-based ion conductor, or a mixture thereof and the crosslinking functional group is selected from the group consisting of a hydroxyl group (-OH), a carboxyl group (-COOH), and an amine group (-NH 2) such that the crosslinking functional group is capable of being bonded to the ion conductor upon occurrence of degradation of the ion conductor to thereby cause the degraded ion conductor to be crosslinked, and the polymer is a polyphenylene sulfide copolymer substituted with the crosslinking functional group, which includes a first repeating unit having the crosslinking functional group and a second repeating unit not having the crosslinking functional group and is represented by Formula 2 below: wherein (i) R 1, R 2, R 3 and R 4 are each independently a hydrogen atom, a hydroxyl group (-OH), a carboxyl group (-COOH), or an amine group (-NH 2), (ii) at least one of R 1, R 2, R 3 and R 4 is not a hydrogen atom, (iii) m is number of the first repeating unit, (iv) n is number of the second repeating unit, and (v) a ratio of the number of the first repeating unit to the number of the second repeating unit (m:n) is 1:99 to 50:50. a non-crosslinked ion conductor; and a porous support having a plurality of pores filled with the ion conductor, wherein the porous support comprises a polymer having at least one crosslinking functional group, the ion conductor is a fluorine-based ion conductor, a hydrocarbon-based ion conductor, or a mixture thereof and the crosslinking functional group is selected from the group consisting of a hydroxyl group (-OH), a carboxyl group (-COOH), and an amine group (-NH 2) such that the crosslinking functional group is capable of being bonded to the ion conductor upon occurrence of degradation of the ion conductor to thereby cause the degraded ion conductor to be crosslinked, and the polymer is a polyphenylene sulfide copolymer substituted with the crosslinking functional group, which includes a first repeating unit having the crosslinking functional group and a second repeating unit not having the crosslinking functional group and is represented by Formula 2 below:
An anti-ice arrangement for a gas turbine engine, comprising: an engine static structure; a fan blade housed for rotation within the engine static structure; a magnetic field source (310a, 310b, 310c) mounted in close proximity to the fan blade; wherein the magnetic field source (310a, 310b, 310c) is configured to induce eddy currents in the fan blade to increase a surface temperature of the fan blade; and characterised in that the anti-ice arrangement comprises a tailored resistance coating (512; 812) disposed on the fan blade, wherein the tailored resistance coating (512; 812) is configured to increase or decrease heat generated by the eddy currents through the tailored resistance coating (512; 812). an engine static structure; a fan blade housed for rotation within the engine static structure; a magnetic field source (310a, 310b, 310c) mounted in close proximity to the fan blade; wherein the magnetic field source (310a, 310b, 310c) is configured to induce eddy currents in the fan blade to increase a surface temperature of the fan blade; and characterised in that the anti-ice arrangement comprises a tailored resistance coating (512; 812) disposed on the fan blade, wherein the tailored resistance coating (512; 812) is configured to increase or decrease heat generated by the eddy currents through the tailored resistance coating (512; 812).
A fiber optic apparatus, comprising: an attachment housing comprising a top, a bottom and at least one side defining an attachment interior chamber configured to support at least a portion of fiber optic equipment, a fiber optic housing (492, 518) comprising a housing interior chamber configured to support fiber optic equipment to couple the attachment interior chamber and the housing interior chamber and expand the capacity of the fiber optic housing (492, 518), a rear door (496, 536), the fiber optical housing further comprising a tab disposed on an edge of a bottom of the fiber optic housing (492, 518), wherein the attachment housing is tool-lessly, and by other than external fasteners, configured to removably attach to a rear of the fiber optic housing (492, 518) with a rear door (496, 536) removed from the fiber optic housing, wherein the rear door (496, 536) is configured to be reinstalled to a rear of the attachment housing, characterized in that the rear door (496, 536) comprises a hinge portion (583, 538B) and the tab is configured to receive a channel (540A, 540B) being disposed on the hinge portion (538A, 538B) of the rear door (496, 536) to allow the rear door (496, 536) to be easily installed and removed to and from the fiber optic housing (492, 518). an attachment housing comprising a top, a bottom and at least one side defining an attachment interior chamber configured to support at least a portion of fiber optic equipment, a fiber optic housing (492, 518) comprising a housing interior chamber configured to support fiber optic equipment to couple the attachment interior chamber and the housing interior chamber and expand the capacity of the fiber optic housing (492, 518), a rear door (496, 536), the fiber optical housing further comprising a tab disposed on an edge of a bottom of the fiber optic housing (492, 518), wherein the attachment housing is tool-lessly, and by other than external fasteners, configured to removably attach to a rear of the fiber optic housing (492, 518) with a rear door (496, 536) removed from the fiber optic housing, wherein the rear door (496, 536) is configured to be reinstalled to a rear of the attachment housing, characterized in that the rear door (496, 536) comprises a hinge portion (583, 538B) and the tab is configured to receive a channel (540A, 540B) being disposed on the hinge portion (538A, 538B) of the rear door (496, 536) to allow the rear door (496, 536) to be easily installed and removed to and from the fiber optic housing (492, 518).
A method for controlling a speaker, the speaker being electrically powered with a Power over Ethernet, PoE, power source, and being connected to a short-term energy storage, comprising: receiving audio for playback on the speaker; acquiring a time-resolved power analysis of the audio; calculating a time-resolved speaker power requirement for a speaker playing back the audio; comparing the time-resolved speaker power requirement with a combined capacity of the PoE power source and the short-term energy storage; and adjusting one or more of: a dynamic range, a frequency range, and an output gain of a digital signal processor, such that the speaker power requirement meets the combined capacity of the low-power source and the short-term energy storage for the duration of a playback of the received audio on the speaker, wherein the output gain is lowered as a last step prior to the short-term energy storage getting depleted, in case adjusting at least one of the dynamic range and the frequency range is not sufficient. receiving audio for playback on the speaker; acquiring a time-resolved power analysis of the audio; calculating a time-resolved speaker power requirement for a speaker playing back the audio; comparing the time-resolved speaker power requirement with a combined capacity of the PoE power source and the short-term energy storage; and adjusting one or more of: a dynamic range, a frequency range, and an output gain of a digital signal processor, such that the speaker power requirement meets the combined capacity of the low-power source and the short-term energy storage for the duration of a playback of the received audio on the speaker, wherein the output gain is lowered as a last step prior to the short-term energy storage getting depleted, in case adjusting at least one of the dynamic range and the frequency range is not sufficient.
A method for a wireless communication device having a first subscription and a second subscription to request uplink grants associated with the first subscription, the method comprising: tuning away from the first subscription to the second subscription for a tune-away time interval; determining whether the tune-away time interval exceeds a threshold; transmitting at least one scheduling request associated with the first subscription for a throttled count in response to the tune-away time interval exceeding the threshold, wherein the throttled count is less than a default count; determining whether an uplink grant has been received in response to any of the at least one scheduling request transmitted within the throttled count; and initiating an uplink data Random Access Channel, RACH, process in response to not receiving the uplink grant, characterized in that the throttled count is determined as inversely proportional to the length of the tune-away time interval, wherein ranges of the length of the tune-away time interval are associated with a certain throttled count. tuning away from the first subscription to the second subscription for a tune-away time interval; determining whether the tune-away time interval exceeds a threshold; transmitting at least one scheduling request associated with the first subscription for a throttled count in response to the tune-away time interval exceeding the threshold, wherein the throttled count is less than a default count; determining whether an uplink grant has been received in response to any of the at least one scheduling request transmitted within the throttled count; and initiating an uplink data Random Access Channel, RACH, process in response to not receiving the uplink grant, characterized in that the throttled count is determined as inversely proportional to the length of the tune-away time interval, wherein ranges of the length of the tune-away time interval are associated with a certain throttled count.
A method comprising: determining, by a mobile device that one or more system information instances requested in a request message are not received in a reply message from a base station, wherein the request message comprises a request bitmap indicating the requested system information instances and the reply message comprises a reply bitmap indicating the system information instances in the reply message; acquiring, by the mobile device, the system information instances indicated in the request bitmap and the reply bitmap from the reply message; and requesting, by the mobile device, in a further request message, the system information instances from the base station that are indicated in the request bitmap and not indicated in the reply bitmap; wherein either: the request message is a Radio Resource Control, RRC, message, and the reply message is a RRC message; or the request message is a Media Access Control, MAC, Control Element, CE, message, and the reply message is a MAC CE message. determining, by a mobile device that one or more system information instances requested in a request message are not received in a reply message from a base station, wherein the request message comprises a request bitmap indicating the requested system information instances and the reply message comprises a reply bitmap indicating the system information instances in the reply message; acquiring, by the mobile device, the system information instances indicated in the request bitmap and the reply bitmap from the reply message; and requesting, by the mobile device, in a further request message, the system information instances from the base station that are indicated in the request bitmap and not indicated in the reply bitmap; wherein either: the request message is a Radio Resource Control, RRC, message, and the reply message is a RRC message; or the request message is a Media Access Control, MAC, Control Element, CE, message, and the reply message is a MAC CE message. the request message is a Radio Resource Control, RRC, message, and the reply message is a RRC message; or the request message is a Media Access Control, MAC, Control Element, CE, message, and the reply message is a MAC CE message.
Method for determining the weight of a vehicle equipped with a front end assembly and a rear end assembly, the method comprising measuring the angle of the slope (α) of the surface on which the vehicle is, measuring the cant angle (θ) of said surface, measuring the vertical force (Fz1, Fz2) exerted on the front end assembly of the vehicle and on the rear end assembly of the vehicle, characterized in that it comprises: - calculating a first parameter equal to the sum of the vertical force exerted on the front end assembly and of the vertical force exerted on the rear end assembly; - calculating a second parameter representative of the surface from the measured angle of the slope of the surface, from the measured cant angle and from a coefficient dependent on what is called the "Brouilhet effect" in French, corresponding to the horizontal forces transmitted to the rear end assembly; and - dividing the first parameter by the second parameter in order to deduce therefrom the weight of the vehicle. - calculating a first parameter equal to the sum of the vertical force exerted on the front end assembly and of the vertical force exerted on the rear end assembly; - calculating a second parameter representative of the surface from the measured angle of the slope of the surface, from the measured cant angle and from a coefficient dependent on what is called the "Brouilhet effect" in French, corresponding to the horizontal forces transmitted to the rear end assembly; and - dividing the first parameter by the second parameter in order to deduce therefrom the weight of the vehicle.
A modular radiating element of a ceiling or wall for heating and/or cooling a building room, the modular radiating element once mounted to said ceiling 11 or to said wall comprising: an emitting plate arranged below said ceiling or wall of said room; at least one heat transfer pipe forming an array of tubes, said heat transfer pipe being able to be connected to a distribution conduit of a building and/or to a heat transfer pipe of another modular radiating element so as to allow a heat transfer fluid to pass inside thereof, said emitting plate in direct contact with said heat transfer pipe being stamped or shaped in a sinusoidal shape so as to match the shape of the heat transfer pipe, said emitting plate and said at least one heat transfer pipe being separated from each other and said emitting plate is arranged above or respectively both above and below the tubes of said at least one heat transfer pipe, said emitting plate and said at least one heat transfer pipe being made of different materials, characterized in that said at least one heat transfer pipe is made of a non-corrodable and thermally conductive material having a conductivity coefficient of at least 15 Watt/m.K and of which said non-corrodable and thermally conductive material is selected from among copper, stainless steel, galvanized steel, zinc, brass and/or mixtures thereof and in that said emitting plate is made of a heat-conducting material having a conductivity coefficient of at least 15 Watt/m.K and having a density of at most 3000 kg/m 3 and of which said heat-conducting material is selected from aluminum, magnesium, graphite, and/or mixtures thereof. an emitting plate arranged below said ceiling or wall of said room; at least one heat transfer pipe forming an array of tubes, said heat transfer pipe being able to be connected to a distribution conduit of a building and/or to a heat transfer pipe of another modular radiating element so as to allow a heat transfer fluid to pass inside thereof, said emitting plate in direct contact with said heat transfer pipe being stamped or shaped in a sinusoidal shape so as to match the shape of the heat transfer pipe, said emitting plate and said at least one heat transfer pipe being separated from each other and said emitting plate is arranged above or respectively both above and below the tubes of said at least one heat transfer pipe, said emitting plate and said at least one heat transfer pipe being made of different materials, characterized in that said at least one heat transfer pipe is made of a non-corrodable and thermally conductive material having a conductivity coefficient of at least 15 Watt/m.K and of which said non-corrodable and thermally conductive material is selected from among copper, stainless steel, galvanized steel, zinc, brass and/or mixtures thereof and in that said emitting plate is made of a heat-conducting material having a conductivity coefficient of at least 15 Watt/m.K and having a density of at most 3000 kg/m 3 and of which said heat-conducting material is selected from aluminum, magnesium, graphite, and/or mixtures thereof.
A toy gun comprising: a trigger; a cartridge in which cartridge bullet loading portions capable of being loaded with bullets are continuously provided and which is installed at a cartridge installation position ahead of or behind the trigger; a link mechanism which extends from the trigger in a direction away from the cartridge installation position and is thereafter inverted and whose tip is extended to the cartridge; and a nail which is actuated through the link mechanism in conjunction with the actuation of the trigger and moves the cartridge. a trigger; a cartridge in which cartridge bullet loading portions capable of being loaded with bullets are continuously provided and which is installed at a cartridge installation position ahead of or behind the trigger; a link mechanism which extends from the trigger in a direction away from the cartridge installation position and is thereafter inverted and whose tip is extended to the cartridge; and a nail which is actuated through the link mechanism in conjunction with the actuation of the trigger and moves the cartridge.