mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication method in a mobile communication system which includes a first radio access network not supporting circuit-switched communications, a second radio access network supporting circuit-switched communications, and a service control network, and which is capable of being set to switch a voice communication path between a first mobile station and a second mobile station from a path via the first radio access network to a path via the second radio access network in an anchor node in a visited network of the first mobile station, the method comprising the steps of: causing a mobility management node in the visited network to acquire capability of the first mobile station and to notify a subscriber management server of the capability of the first mobile station in an attach process or a location registration process of the first mobile station, and causing a control node which controls the anchor node to acquire the capability of the first mobile station in a registration process of the first mobile station with the service control network, the method further comprising a step of causing the control node to determine whether or not to set the anchor node for switching the voice communication path based on the capability of the first mobile node, in an originating process from the first mobile station to the second mobile station or a terminating process from the second mobile station to the first mobile station. causing a mobility management node in the visited network to acquire capability of the first mobile station and to notify a subscriber management server of the capability of the first mobile station in an attach process or a location registration process of the first mobile station, and causing a control node which controls the anchor node to acquire the capability of the first mobile station in a registration process of the first mobile station with the service control network, the method further comprising a step of causing the control node to determine whether or not to set the anchor node for switching the voice communication path based on the capability of the first mobile node, in an originating process from the first mobile station to the second mobile station or a terminating process from the second mobile station to the first mobile station.
A processing module for an Impulse-Radio Ultra-WideBand, I-R UWB, receiver device, the processing module configured to: receive a signal comprising one or more frames, each frame comprising a synchronization-symbol-portion, a secure-training-sequence-portion, and a data-payload-portion, wherein each data bit is spread over multiple chips and wherein the STS-portion is unknown at the receiver and not spread; and perform a carrier recovery process on the signal, wherein at least part of the secure-training-sequence-portion of each of the one or more frames is excluded from the carrier recovery process by pausing the carrier recovery process for a duration of the at least part of the secure-training-sequence-portion. receive a signal comprising one or more frames, each frame comprising a synchronization-symbol-portion, a secure-training-sequence-portion, and a data-payload-portion, wherein each data bit is spread over multiple chips and wherein the STS-portion is unknown at the receiver and not spread; and perform a carrier recovery process on the signal, wherein at least part of the secure-training-sequence-portion of each of the one or more frames is excluded from the carrier recovery process by pausing the carrier recovery process for a duration of the at least part of the secure-training-sequence-portion.
A method for controlling a start/stop operation of an internal combustion engine in a motor vehicle, wherein the controlling controls a starting device having a starter motor and an engaging device in order to start the internal combustion engine and carry out a start/stop operation, the rotational speed and the position of a crankshaft of the internal combustion engine being detected by means of a detector device, wherein, after the internal combustion engine has been switched off, a time for engaging into a gear rim of a decelerating internal combustion engine is determined, wherein the time for engaging of the starter pinion is calculated as a time in a tolerance range shortly before or shortly after an ignitable top dead centre of the internal combustion engine, in which time the rotational speed of the internal combustion engine has a substantially small change in the rotational speed over time.
A battery pack for a surgical instrument, the battery pack comprising: (a) a battery; (b) a high range monitoring circuit, wherein the high range monitoring circuit is configured to be activated when an electrical current discharged from the battery exceeds a threshold, wherein the high range monitoring circuit is further configured to assess the electrical current discharged from the battery at a first rate; and (c) a low range monitoring circuit, wherein the low range monitoring circuit is configured to be activated when the electrical current discharged from the battery is below the threshold, wherein the low range monitoring circuit is further configured to assess the electrical current discharged from the battery at a second rate; wherein the battery is configured to conserve power when the low range monitoring circuit is activated; and wherein the low range monitoring circuit includes a timing device configured to measure a time elapsed since activation of the low range monitoring circuit, wherein the timing device is operable to decrease the second rate when the low range monitoring circuit remains operational for a predetermined time; and wherein the first rate is greater than the second rate. (a) a battery; (b) a high range monitoring circuit, wherein the high range monitoring circuit is configured to be activated when an electrical current discharged from the battery exceeds a threshold, wherein the high range monitoring circuit is further configured to assess the electrical current discharged from the battery at a first rate; and (c) a low range monitoring circuit, wherein the low range monitoring circuit is configured to be activated when the electrical current discharged from the battery is below the threshold, wherein the low range monitoring circuit is further configured to assess the electrical current discharged from the battery at a second rate;
A computer-implemented method, comprising: under control of one or more processors: establishing a communicative connection between an electronic device and an audio broadcasting device that is configured to broadcast a high quality audio segment of a live event, based at least in part on a first user selection received via a user interface of the electronic device, the audio broadcasting device configured to broadcast the high quality audio segment of the live event to the electronic device; initiating, via the electronic device, a video recording of the live event by a recording device to create a video segment of the live event based at least in part on a second user selection received via the user interface of the electronic device, wherein the recording device further generates a low quality audio segment of the live event in conjunction with the video segment; receiving, via the electronic device, the high quality audio segment of the live event from the audio broadcasting device; merging, in real-time on the electronic device, the video segment of the live event and the high quality audio segment of the live event to create a merged audio-visual track; wherein the merging comprises identifying a characterizing feature in each of the low quality audio segment and the high quality audio segment and synchronizing the video segment with the high quality audio segment based at least in part on matching timestamps associated with the characteristic features, and creating a high fidelity audio-visual file of the live event, the high fidelity audio-visual file including at least the merged audio-visual track. establishing a communicative connection between an electronic device and an audio broadcasting device that is configured to broadcast a high quality audio segment of a live event, based at least in part on a first user selection received via a user interface of the electronic device, the audio broadcasting device configured to broadcast the high quality audio segment of the live event to the electronic device; initiating, via the electronic device, a video recording of the live event by a recording device to create a video segment of the live event based at least in part on a second user selection received via the user interface of the electronic device, wherein the recording device further generates a low quality audio segment of the live event in conjunction with the video segment; receiving, via the electronic device, the high quality audio segment of the live event from the audio broadcasting device; merging, in real-time on the electronic device, the video segment of the live event and the high quality audio segment of the live event to create a merged audio-visual track; wherein the merging comprises identifying a characterizing feature in each of the low quality audio segment and the high quality audio segment and synchronizing the video segment with the high quality audio segment based at least in part on matching timestamps associated with the characteristic features, and creating a high fidelity audio-visual file of the live event, the high fidelity audio-visual file including at least the merged audio-visual track.
A computer-implemented method for managing a blockchain-based centralized ledger system, the method comprising: maintaining a plurality of blockchains in the blockchain-based centralized ledger system by a computing system, each of the plurality of blockchains comprising a plurality of blocks storing transaction data; maintaining a centralized trust timestamp blockchain by the computing system, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of a trust time server for the plurality of blockchains, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system; receiving timestamp requests for a plurality of to-be-timestamped blocks in the plurality of blockchains by the computing system, each of the timestamp requests including information of a respective to-be-timestamped block; receiving a timestamp and associated signature of the trust time server for the to-be-timestamped blocks from the trust time server by the computing system; and storing information of the timestamp and the associated signature of the trust time server and the information of the to-be-timestamped blocks in a timestamp block of the centralized trust timestamp blockchain by the computing system. maintaining a plurality of blockchains in the blockchain-based centralized ledger system by a computing system, each of the plurality of blockchains comprising a plurality of blocks storing transaction data; maintaining a centralized trust timestamp blockchain by the computing system, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of a trust time server for the plurality of blockchains, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system; receiving timestamp requests for a plurality of to-be-timestamped blocks in the plurality of blockchains by the computing system, each of the timestamp requests including information of a respective to-be-timestamped block; receiving a timestamp and associated signature of the trust time server for the to-be-timestamped blocks from the trust time server by the computing system; and storing information of the timestamp and the associated signature of the trust time server and the information of the to-be-timestamped blocks in a timestamp block of the centralized trust timestamp blockchain by the computing system.
A tray for a gas/liquid contact column comprising: a tray deck; an inlet distribution area; and a downcomer, wherein the downcomer comprises: an angled portion, the angled portion extending away from, and downward relative to, the tray deck, the angled portion terminating in a distributor region, the distributor region having a series of discharge ports formed in the angled portion, characterized in that each discharge port is a V-shaped notch having more than one side, at least one side having a flange that extends below the discharge port, such that fluid flowing down the downcomer is distributed as the fluid flows through the distributor region. a tray deck; an inlet distribution area; and a downcomer, wherein the downcomer comprises: an angled portion, the angled portion extending away from, and downward relative to, the tray deck, the angled portion terminating in a distributor region, the distributor region having a series of discharge ports formed in the angled portion, characterized in that each discharge port is a V-shaped notch having more than one side, at least one side having a flange that extends below the discharge port, such that fluid flowing down the downcomer is distributed as the fluid flows through the distributor region. an angled portion, the angled portion extending away from, and downward relative to, the tray deck, the angled portion terminating in a distributor region, the distributor region having a series of discharge ports formed in the angled portion, characterized in that each discharge port is a V-shaped notch having more than one side, at least one side having a flange that extends below the discharge port, such that fluid flowing down the downcomer is distributed as the fluid flows through the distributor region.
Household refrigeration appliance with a housing, in which a first, upper receiving space for foodstuffs and a second, lower receiving space for foodstuffs that is separate therefrom are embodied, wherein the two receiving spaces (3, 4) are separated from one another on the front side by a crossbar of the household refrigeration appliance, and with a light module, which is arranged on a front side of the crossbar, wherein the light module has a module housing, characterised in that the module housing has a rear housing part, which has a rear wall and a plurality of separate snap-fit elements (20, 21, 22), wherein the snap-fit elements (20, 21, 22) are embodied in one piece with the rear housing part and are snap-fitted into snap-fit element receptacles (12, 13, 14), which are embodied on the crossbar, wherein the rear housing part is in direct contact with a rear area of the rear wall in a planar manner on the front side, and that a circuit board of the light module is T-shaped, in particular a subregion of the circuit board is a T "stem", which extends through a slot in the rear wall of the rear housing part through the rear wall towards the rear and/or a further subregion of the circuit board is a T "roof, which is arranged in contact with a front area of the rear wall of the rear housing part.
A sulfide solid electrolyte having: diffraction peak A observed within a range of 2θ = 20.0° to 24.0°; and diffraction peak B observed within a range of 2θ = 24.4° to 26.4°, diffraction peak A and diffraction peak B being observed by performing X-ray diffraction measurement using CuKα1 radiation, and a ratio of I A to I B, I A /I B, being 2.0 or less, wherein I A is an intensity of diffraction peak A and I B is an intensity of diffraction peak B, and comprising elemental lithium (Li), elemental phosphorus, elemental sulfur, an elemental halogen, and elemental oxygen. a ratio of I A to I B, I A /I B, being 2.0 or less, wherein I A is an intensity of diffraction peak A and I B is an intensity of diffraction peak B, and comprising elemental lithium (Li), elemental phosphorus, elemental sulfur, an elemental halogen, and elemental oxygen.
A component of a turbine comprising a vane, a carrier element (6, 7, 8, 9) and at least four interfaces between the vane and the carrier element (6, 7, 8, 9), wherein the turbine comprises a rotation axis and the vane comprises a trailing edge, a leading edge, a radially outer platform with a leading edge side and a trailing edge side, and a radially inner platform with a leading edge side and a trailing edge side, and a first interface is located at the leading edge side of the radially outer platform, a second interface is located at the leading edge side of the radially inner platform, a third interface is located at the trailing edge side of the radially outer platform and a fourth interface is located at the trailing edge side of the radially inner platform characterised in that the at least four interfaces are sealed by means of leaf seals (11, 12, 13, 14).
A stacked electro-optically active organic diode comprising: an anode electrode layer; a cathode electrode layer; a first electro-optically active organic layer arranged between said electrodes (102, 162); a second electro-optically active organic layer arranged between said first electro-optically active organic layer and said cathode electrode layer; a low electron affinity layer arranged between the first electro-optically active organic layer and the second electro-optically active organic layer, said low electron affinity layer being formed of a first transparent inorganic semiconductor material having an electron affinity between 0.5 eV and 3.5 eV and comprising BaO, BaSe, La 2 O 3 or Ce 2 O 3; and a high electron affinity layer arranged between said second electro-optically active organic layer and the low electron affinity layer, said high electron affinity layer being formed of a second transparent inorganic semiconductor material, wherein said second transparent inorganic semiconductor material has an electron affinity between 4 eV and 8 eV, wherein said low electron affinity layer and said high electron affinity layer constitute a bilayer structure, wherein the low electron affinity layer and said high electron affinity layer each has a thickness above 20 nm (200 Å). an anode electrode layer; a cathode electrode layer; a first electro-optically active organic layer arranged between said electrodes (102, 162); a second electro-optically active organic layer arranged between said first electro-optically active organic layer and said cathode electrode layer; a low electron affinity layer arranged between the first electro-optically active organic layer and the second electro-optically active organic layer, said low electron affinity layer being formed of a first transparent inorganic semiconductor material having an electron affinity between 0.5 eV and 3.5 eV and comprising BaO, BaSe, La 2 O 3 or Ce 2 O 3; and a high electron affinity layer arranged between said second electro-optically active organic layer and the low electron affinity layer, said high electron affinity layer being formed of a second transparent inorganic semiconductor material, wherein said second transparent inorganic semiconductor material has an electron affinity between 4 eV and 8 eV, wherein said low electron affinity layer and said high electron affinity layer constitute a bilayer structure,
A floor mountable aircraft seat comprising a posterior surface, a seal frame and a gap covering fabric extending from the posterior surface of the aircraft seat, the seal frame comprising: a frame disposed on the posterior surface of the floor mountable aircraft seat; at least two frame displacing elements (208, 504, 608); and one or more fabric tensioning elements (210, 212, 214, 216) configured to keep the gap covering fabric connected to the posterior surface of the aircraft seat in tension around the frame, and wherein the at least two frame displacing elements are configured to independently displace vertical edges of the frame and independently displace horizontal edges of the frame to support the gap covering fabric. a frame disposed on the posterior surface of the floor mountable aircraft seat; at least two frame displacing elements (208, 504, 608); and one or more fabric tensioning elements (210, 212, 214, 216) configured to keep the gap covering fabric connected to the posterior surface of the aircraft seat in tension around the frame, and wherein the at least two frame displacing elements are configured to independently displace vertical edges of the frame and independently displace horizontal edges of the frame to support the gap covering fabric.
Microencapsulated simethicone particles comprising: simethicone and a water soluble coating, wherein the simethicone is at least about 50% by weight of the particle, and wherein the water soluble coating is gelatin, whey protein isolate, or mixtures thereof. simethicone and a water soluble coating, wherein the simethicone is at least about 50% by weight of the particle, and wherein the water soluble coating is gelatin, whey protein isolate, or mixtures thereof.
A high-strength cold-rolled steel sheet having excellent ductility consisting of: by wt %, carbon C: 0.1% to 0.3%, silicon Si: 0.1% to 2.0%, aluminum Al: 0.005% to 1.5%, manganese Mn: 1.5% to 3.0%, phosphorus P: 0.04% or less and excluding 0%, sulfur S: 0.015% or less and excluding 0%, nitrogen N: 0.02% or less and excluding 0%, optionally at least one selected from the group consisting of titanium Ti: 0.005% to 0.1%, niobium Nb: 0.005% to 0.1%, vanadium V: 0.005% to 0.1%, zirconium Zr: 0.005% to 0.1%, and tungsten W: 0.005% to 0.5%, optionally at least one selected from the group consisting of molybdenum Mo: 1% or less and excluding 0%, nickel Ni: 1% or less and excluding 0%, copper Cu: 0.5% or less and excluding 0%, and chromium Cr: 1% or less and excluding 0%, optionally at least one selected from the group consisting of antimony Sb: 0.04% or less and excluding 0%, calcium Ca: 0.01% or less and excluding 0%, bismuth Bi: 0.1% or less and excluding 0%, and boron B: 0.01% or less and excluding 0%, and a remainder of iron Fe and inevitable impurities, wherein a sum of Si and Al by wt% satisfies 1.0% or more, and wherein a microstructure comprises: by area fraction, 5% or less of polygonal ferrite having a minor axis to major axis ratio of 0.4 or greater, 70% or less and excluding 0% of acicular ferrite having a minor axis to major axis ratio of 0.4 or less, 25% or less and excluding 0% of acicular retained austenite, and a remainder of martensite. by wt %, carbon C: 0.1% to 0.3%, silicon Si: 0.1% to 2.0%, aluminum Al: 0.005% to 1.5%, manganese Mn: 1.5% to 3.0%, phosphorus P: 0.04% or less and excluding 0%, sulfur S: 0.015% or less and excluding 0%, nitrogen N: 0.02% or less and excluding 0%, optionally at least one selected from the group consisting of titanium Ti: 0.005% to 0.1%, niobium Nb: 0.005% to 0.1%, vanadium V: 0.005% to 0.1%, zirconium Zr: 0.005% to 0.1%, and tungsten W: 0.005% to 0.5%, optionally at least one selected from the group consisting of molybdenum Mo: 1% or less and excluding 0%, nickel Ni: 1% or less and excluding 0%, copper Cu: 0.5% or less and excluding 0%, and chromium Cr: 1% or less and excluding 0%, optionally at least one selected from the group consisting of antimony Sb: 0.04% or less and excluding 0%, calcium Ca: 0.01% or less and excluding 0%, bismuth Bi: 0.1% or less and excluding 0%, and boron B: 0.01% or less and excluding 0%, and a remainder of iron Fe and inevitable impurities, wherein a sum of Si and Al by wt% satisfies 1.0% or more, and wherein a microstructure comprises: by area fraction, 5% or less of polygonal ferrite having a minor axis to major axis ratio of 0.4 or greater, 70% or less and excluding 0% of acicular ferrite having a minor axis to major axis ratio of 0.4 or less, 25% or less and excluding 0% of acicular retained austenite, and a remainder of martensite.