mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a web-based real-time communication, WebRTC, by a user equipment, UE, the method comprising: transmitting , to a web server, a message requesting information about an internet protocol multimedia subsystem, IMS, network to which the UE is to access, for a WebRTC service; receiving address information of the IMS network to which the UE is to access from the web server, in response to the transmitted message; establishing a websocket connection for the WebRTC service with an enhanced Proxy Call Session Control Function, eP-CSCF; transmitting , to a packet data network, PDN, gateway, a bearer setup request message requesting establishment of a bearer for signaling messages of the WebRTC service; establishing the bearer with the PDN gateway, based on a policy and charging control, PCC, rule, wherein the PCC rule comprises service data filter information and quality of service, QoS, parameters designating a QoS with a higher priority than at least one bearer for other web traffic; and transmitting, to the IMS network, the signaling messages for the WebRTC service through the websocket connection and the bearer, according to the service data filter information and the QoS parameters included in the PCC rule. transmitting , to a web server, a message requesting information about an internet protocol multimedia subsystem, IMS, network to which the UE is to access, for a WebRTC service; receiving address information of the IMS network to which the UE is to access from the web server, in response to the transmitted message; establishing a websocket connection for the WebRTC service with an enhanced Proxy Call Session Control Function, eP-CSCF; transmitting , to a packet data network, PDN, gateway, a bearer setup request message requesting establishment of a bearer for signaling messages of the WebRTC service; establishing the bearer with the PDN gateway, based on a policy and charging control, PCC, rule, wherein the PCC rule comprises service data filter information and quality of service, QoS, parameters designating a QoS with a higher priority than at least one bearer for other web traffic; and transmitting, to the IMS network, the signaling messages for the WebRTC service through the websocket connection and the bearer, according to the service data filter information and the QoS parameters included in the PCC rule.
Method of manufacturing a shear web for a wind turbine rotor blade, the shear web having a shear web portion and a flange portion for connecting the shear web to a spar cap of the wind turbine rotor blade, the method comprising the steps of: • Providing a manufacturing mold having a first mold surface for the shear web portion , a second mold surface for the flange portion , and an abutment, wherein the second mold surface is disposed at an angle α to the first mold surface and the abutment is opposite the second mold surface , • Arranging a first layer of reinforcing fibers in the manufacturing mold such that a first partial surface of the first layer is arranged on the first mold surface and a second partial surface of the first layer is arranged on the second mold surface , • Arranging a pultruded profile in the manufacturing mold so that an upper surface of the pultruded profile faces the second mold surface and the second partial surface of the first layer is arranged between the upper surface and the second mold surface , • Supporting the pultruded profile on the abutment, • Embedding the pultruded profile and the reinforcing fibers in a plastic material, • Removing the finished shear web from the manufacturing mold , the shear web portion comprising the first partial surface of the first layer and the flange portion comprising the pultruded profile . • Providing a manufacturing mold having a first mold surface for the shear web portion , a second mold surface for the flange portion , and an abutment, wherein the second mold surface is disposed at an angle α to the first mold surface and the abutment is opposite the second mold surface , • Arranging a first layer of reinforcing fibers in the manufacturing mold such that a first partial surface of the first layer is arranged on the first mold surface and a second partial surface of the first layer is arranged on the second mold surface , • Arranging a pultruded profile in the manufacturing mold so that an upper surface of the pultruded profile faces the second mold surface and the second partial surface of the first layer is arranged between the upper surface and the second mold surface , • Supporting the pultruded profile on the abutment, • Embedding the pultruded profile and the reinforcing fibers in a plastic material, • Removing the finished shear web from the manufacturing mold , the shear web portion comprising the first partial surface of the first layer and the flange portion comprising the pultruded profile .
A method in a wireless device comprising: receiving a first anchor carrier in standalone spectrum shifted +/- 2.5 kHz or +/- 7.5 kHz from a 100 kHz raster grid; receiving an indication on the first anchor carrier that the first anchor carrier is operated as one of an inband carrier or a guardband carrier; receiving a second carrier in standalone spectrum, the second carrier separated from the first anchor carrier by less than 400 kHz; and utilizing the first anchor carrier and the at least one second carrier for data communication. receiving a first anchor carrier in standalone spectrum shifted +/- 2.5 kHz or +/- 7.5 kHz from a 100 kHz raster grid; receiving an indication on the first anchor carrier that the first anchor carrier is operated as one of an inband carrier or a guardband carrier; receiving a second carrier in standalone spectrum, the second carrier separated from the first anchor carrier by less than 400 kHz; and utilizing the first anchor carrier and the at least one second carrier for data communication.
A user equipment comprising: means for receiving a handover command from a source base station , wherein the handover command includes a radio resource control container from a target base station, wherein the radio resource control container comprises information regarding a coverage enhancement level dependent set of physical random access channel resources for a coverage enhancement level decided for the user equipment; and means for transmitting a physical random access channel preamble to the target base station based, at least partially, upon said information, means for receiving a handover command from a source base station , wherein the handover command includes a radio resource control container from a target base station, wherein the radio resource control container comprises information regarding a coverage enhancement level dependent set of physical random access channel resources for a coverage enhancement level decided for the user equipment; and means for transmitting a physical random access channel preamble to the target base station based, at least partially, upon said information,
A method, comprising: providing a data connection between a communication device and an additional communication device, the data connection formed by connecting at least one terminal of a connector comprised in the communication device to at least one external terminal of a mating connector of a communication cable; detecting, by a sensing module , a movement associated with removing the mating connector from the connector , wherein the sensing module comprises a touch sensor configured to detect an object moving near the connector , and wherein the movement comprises the object moving near the connector ; providing a termination signal to the communication device to terminate the data connection; and terminating data communication via the data connection in response to the termination signal . providing a data connection between a communication device and an additional communication device, the data connection formed by connecting at least one terminal of a connector comprised in the communication device to at least one external terminal of a mating connector of a communication cable; detecting, by a sensing module , a movement associated with removing the mating connector from the connector , wherein the sensing module comprises a touch sensor configured to detect an object moving near the connector , and wherein the movement comprises the object moving near the connector ; providing a termination signal to the communication device to terminate the data connection; and terminating data communication via the data connection in response to the termination signal .
A composition comprising an effective amount of a thiolated nitro fatty acid of the formula: wherein x is 1 to 5; and q, m, p and t are, independently, 1 to 10, or a pharmaceutically acceptable salt thereof; and a pharmaceutically acceptable excipient. wherein x is 1 to 5; and q, m, p and t are, independently, 1 to 10, or a pharmaceutically acceptable salt thereof; and a pharmaceutically acceptable excipient.
A method for transmitting a to-be-sent reference signal performed by an apparatus, the method comprising the steps of: • determining (step 801) a first resource , wherein the first resource consists of multiple symbols used to transmit the to-be-sent reference signal, the multiple symbols used to transmit the to-be-sent reference signal forming a first number of symbols; • determining (step 801) a second resource , wherein the second resource consists of multiple symbols used to transmit a to-be-sent message, the multiple symbols used to transmit the to-be-sent message forming a second number of symbols; • determining (step 802) an overlapping portion, wherein: ∘ the overlapping portion consists of all at least one symbol that belong in terms of time-domain locations to both, the multiple symbols used to transmit the to-be-sent reference signal and the multiple symbols used to transmit the to-be-sent message, and ∘ a number of overlapping symbols is less than the first number of symbols; • determining (step 803) that none of the at least one symbol in the overlapping portion is used to transmit the to-be-sent reference signal, and • transmitting the to-be-sent reference signal in one or more symbols, among the multiple symbols used to transmit the to-be-sent reference signal, other than the at least one symbol in the overlapping portion. • determining (step 801) a first resource , wherein the first resource consists of multiple symbols used to transmit the to-be-sent reference signal, the multiple symbols used to transmit the to-be-sent reference signal forming a first number of symbols; • determining (step 801) a second resource , wherein the second resource consists of multiple symbols used to transmit a to-be-sent message, the multiple symbols used to transmit the to-be-sent message forming a second number of symbols; • determining (step 802) an overlapping portion, wherein: ∘ the overlapping portion consists of all at least one symbol that belong in terms of time-domain locations to both, the multiple symbols used to transmit the to-be-sent reference signal and the multiple symbols used to transmit the to-be-sent message, and ∘ a number of overlapping symbols is less than the first number of symbols; ∘ the overlapping portion consists of all at least one symbol that belong in terms of time-domain locations to both, the multiple symbols used to transmit the to-be-sent reference signal and the multiple symbols used to transmit the to-be-sent message, and ∘ a number of overlapping symbols is less than the first number of symbols; • determining (step 803) that none of the at least one symbol in the overlapping portion is used to transmit the to-be-sent reference signal, and • transmitting the to-be-sent reference signal in one or more symbols, among the multiple symbols used to transmit the to-be-sent reference signal, other than the at least one symbol in the overlapping portion.
A method for generating plasma or laser pulses by means of high frequency excitation pulses , wherein a medium is excited with high frequency excitation pulses in order to fulfil plasma or laser pulse specifications , wherein the high frequency excitation pulses are established at least partially dependent on a preceding high frequency excitation of the medium , characterized in that establishment of the high frequency excitation pulses is at least partially carried out in such a way that the high frequency excitation pulses become commensurately more strongly reduced in energy when a remaining excitation of the medium by the preceding high frequency excitation is higher, and that the high frequency excitation pulses are at least partially reduced in energy by shortening the high frequency excitation pulses , particularly with their start and/or end times being modified.
A method of sending Uplink Control Information, UCI, comprising: in the case that an overlapping of Physical Uplink Control Channel, PUCCH and Physical Uplink Shared Channel, PUSCH, in a time domain occurs, selecting a PUSCH to carry and send UCI, based on at least one of an uplink data scheduling type and a numerology of uplink carrier; wherein the uplink data scheduling type comprises scheduling by Downlink Control Information, DCI, and the selecting the PUSCH to carry and send the UCI comprises: in a case that the PUSCH is scheduled by DCI and the DCI indicates an Aperiodic Channel State Information, A-CSI, reporting or a Semi-Persistent Channel State Information, SP-CSI, reporting, selecting the PUSCH to carry and send the UCI. in the case that an overlapping of Physical Uplink Control Channel, PUCCH and Physical Uplink Shared Channel, PUSCH, in a time domain occurs, selecting a PUSCH to carry and send UCI, based on at least one of an uplink data scheduling type and a numerology of uplink carrier; wherein the uplink data scheduling type comprises scheduling by Downlink Control Information, DCI, and the selecting the PUSCH to carry and send the UCI comprises: in a case that the PUSCH is scheduled by DCI and the DCI indicates an Aperiodic Channel State Information, A-CSI, reporting or a Semi-Persistent Channel State Information, SP-CSI, reporting, selecting the PUSCH to carry and send the UCI.
An apparatus comprising: a high side heat exchanger configured to remove heat from a refrigerant; a flash tank configured to store the refrigerant from the high side heat exchanger; a first load configured to use the refrigerant to remove heat from a space proximate the first load; a first compressor configured to compress the refrigerant from the first load; an auxiliary cooling system configured to remove heat from the refrigerant stored in the flash tank during a power outage; and characterized in that a first check valve is configured to direct the refrigerant between the first load and the first compressor back to the flash tank when the pressure of the refrigerant between the first load and the first compressor exceeds a threshold during the power outage. a high side heat exchanger configured to remove heat from a refrigerant; a flash tank configured to store the refrigerant from the high side heat exchanger; a first load configured to use the refrigerant to remove heat from a space proximate the first load; a first compressor configured to compress the refrigerant from the first load; an auxiliary cooling system configured to remove heat from the refrigerant stored in the flash tank during a power outage; and characterized in that a first check valve is configured to direct the refrigerant between the first load and the first compressor back to the flash tank when the pressure of the refrigerant between the first load and the first compressor exceeds a threshold during the power outage.
A system comprising a vibration member and a control apparatus comprising an instruction unit , a pulse generating circuit , a switching circuit , a power supply circuit , and a vibration member driving circuit , wherein the vibration member includes at least an elastic body and an electro-mechanical energy conversion element fixed to the elastic body; the instruction unit, pulse generating circuit, switching unit, and power supply circuit are configured to input an alternating input voltage Vi of a drive frequency fd into the driving circuit; the driving circuit is configured to generate an alternating voltage Vo of the drive frequency fd based on the alternating input voltage Vi and to apply the alternating voltage Vo to the electro-mechanical energy conversion element to cause vibrations in the elastic body, the driving circuit comprises: an inductor and a capacitor serially connected to the electro-mechanical energy conversion element, wherein 0.73 * fm < fs < 1.2 * fm is satisfied, where fs is a series resonance frequency by the inductor and the capacitor , and fm is a resonance frequency of the vibration member; the system being characterized in that the values of the inductance L of the inductor, of the capacitance C of the capacitor, and of the inherent capacitance Cd' of the electro-mechanical energy conversion element are selected so that a peak frequency fe is calculated as: fe = 1 / 2 π L ⋅ C ⋅ Cd ′ C + Cd ′ , and the following conditions are satisfied: 1.4 * fm ≤ fe ≤ 2 * fm , and fe < 2 * fd , wherein, if the drive frequency fd were changed, an amplitude of the alternating voltage Vo would have a peak value at the frequency fe. an inductor and a capacitor serially connected to the electro-mechanical energy conversion element, wherein 0.73 * fm < fs < 1.2 * fm is satisfied, where fs is a series resonance frequency by the inductor and the capacitor , and fm is a resonance frequency of the vibration member; the system being characterized in that the values of the inductance L of the inductor, of the capacitance C of the capacitor, and of the inherent capacitance Cd' of the electro-mechanical energy conversion element are selected so that a peak frequency fe is calculated as: fe = 1 / 2 π L ⋅ C ⋅ Cd ′ C + Cd ′ , and the following conditions are satisfied: 1.4 * fm ≤ fe ≤ 2 * fm , and fe < 2 * fd , wherein, 1.4 * fm ≤ fe ≤ 2 * fm , and fe < 2 * fd , wherein, if the drive frequency fd were changed, an amplitude of the alternating voltage Vo would have a peak value at the frequency fe.
Jet fuel composition consisting of a petroleum derived jet fuel component and a renewable component consisting of hydroprocessed esters and fatty acids, wherein - the jet fuel composition contains 1 to 50vol% of the renewable component and has a freezing point of -40°C or below, preferably of -47°C and below, - the renewable component has a freezing point below - 30°C, and - the petroleum derived jet fuel component has a freezing point of -40°C or below and a content of C9-C12 normal paraffins from 17wt% to 25wt%, and wherein - the freezing point of the jet fuel composition is lower than a theoretical freezing point calculated from a linear relation, this theoretical freezing point being obtained by pondering the freezing point of each component by its volume content and addition of the results, - the jet fuel composition has a normal paraffins content of C9-C12 paraffins from 10 to 20wt% and a total normal paraffins content from 15 to 30wt%, the above-mentioned freezing points of the jet fuel composition and of its components being determined using a single and same method chosen from ASTM D2386-19 or ASTM D7153-15e1. - the jet fuel composition contains 1 to 50vol% of the renewable component and has a freezing point of -40°C or below, preferably of -47°C and below, - the renewable component has a freezing point below - 30°C, and - the petroleum derived jet fuel component has a freezing point of -40°C or below and a content of C9-C12 normal paraffins from 17wt% to 25wt%, and wherein - the freezing point of the jet fuel composition is lower than a theoretical freezing point calculated from a linear relation, this theoretical freezing point being obtained by pondering the freezing point of each component by its volume content and addition of the results, - the jet fuel composition has a normal paraffins content of C9-C12 paraffins from 10 to 20wt% and a total normal paraffins content from 15 to 30wt%,
An injection molding compounder , comprising: an extruder with at least one extruder screw being arranged in an extruder housing , an injection unit with an injection screw being arranged in an injection housing , wherein the injection unit has an effective length (h) being defined from the injection nozzle of the injection unit up to the end of the windings of the injection screw being remote therefrom, characterized in that at the injection housing a melt inlet is provided which is connected with an outlet of the extruder , wherein the distance between the melt inlet and the injection nozzle is larger than one third of the effective length (h), and wherein between the outlet of the extruder and the melt inlet of the injection unit a valve is arranged, wherein the valve is at least a two-way valve which directs the melt into the injection unit or alternatively into the surroundings, or the valve is a three-way valve which in addition comprises the state of the closed valve. an extruder with at least one extruder screw being arranged in an extruder housing , an injection unit with an injection screw being arranged in an injection housing , wherein the injection unit has an effective length (h) being defined from the injection nozzle of the injection unit up to the end of the windings of the injection screw being remote therefrom, characterized in that at the injection housing a melt inlet is provided which is connected with an outlet of the extruder , wherein the distance between the melt inlet and the injection nozzle is larger than one third of the effective length (h), and wherein between the outlet of the extruder and the melt inlet of the injection unit a valve is arranged, wherein the valve is at least a two-way valve which directs the melt into the injection unit or alternatively into the surroundings, or the valve is a three-way valve which in addition comprises the state of the closed valve.
A composition for correcting an inversion of the blood coagulation factor VIII (F8) gene, the composition comprising: (a) RNA-guided endonuclease or a nucleotide sequence encoding the RNA-guided endonuclease; and (b) guiding RNA specifically recognizing the following nucleotide sequence or a complementary sequence thereof, or a nucleotide encoding the guiding RNA, the specifically recognized nucleotide sequence being a 15- to 25-bp nucleotide sequence included in the nucleotide sequence of SEQ ID NO: 4, wherein the 15- to 25-bp nucleotide sequence does not have a nucleotide sequence with sequence homology of at least 80% to another nucleotide sequence within SEQ ID NO: 4, and at the same time, of which the 5'-N(G/A)G-3' nucleotide is linked downstream. (a) RNA-guided endonuclease or a nucleotide sequence encoding the RNA-guided endonuclease; and (b) guiding RNA specifically recognizing the following nucleotide sequence or a complementary sequence thereof, or a nucleotide encoding the guiding RNA, the specifically recognized nucleotide sequence being a 15- to 25-bp nucleotide sequence included in the nucleotide sequence of SEQ ID NO: 4, wherein the 15- to 25-bp nucleotide sequence does not have a nucleotide sequence with sequence homology of at least 80% to another nucleotide sequence within SEQ ID NO: 4, and at the same time, of which the 5'-N(G/A)G-3' nucleotide is linked downstream.