mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical connector, in particular for a medical device intended to be fixed on the skin of a user, comprising a base secured to the device and a plug intended to be secured to an electrical conductor, characterized in that the plug comprises a single connection means and the base comprises a plurality of connection means , each of them being suitable for cooperating with the connecting means of the plug to ensure the connection between the base and the plug.
An electrical junction box for a vehicle comprising several relays , a relay support , and a leadframe including junction sections , each relay including electrical connection pins allowing the plugging of the relay in the relay support and allowing electrical connection to the leadframe , characterized in that each relay includes a communication bus interface which is joined to a pin of the relay called control pin , and in that the leadframe includes a section forming a communication bus, the relay control pins being electrically connected to the section forming a communication bus when the relays are plugged into the support .
User equipment adapted to communicate with a base station in a radio communication system that supports narrow band communication, the user equipment comprising: a retrieval unit adapted to retrieve, from the base station, information for identifying a second frequency band via a first frequency band, wherein a synchronization signal and broadcast information are transmitted on the first frequency band, and the synchronization signal and the broadcast information are not transmitted on the second frequency band; a controller adapted to perform timing alignment control using a signal transmitted on the first frequency band regardless of whether the second frequency band is configured; and an identifying unit adapted to identify a center frequency of the second frequency band based on the information retrieved by the retrieval unit, wherein the information is reported to the user equipment using an RRC Connection Setup message or a RRC connection Reestablishment message. a retrieval unit adapted to retrieve, from the base station, information for identifying a second frequency band via a first frequency band, wherein a synchronization signal and broadcast information are transmitted on the first frequency band, and the synchronization signal and the broadcast information are not transmitted on the second frequency band; a controller adapted to perform timing alignment control using a signal transmitted on the first frequency band regardless of whether the second frequency band is configured; and an identifying unit adapted to identify a center frequency of the second frequency band based on the information retrieved by the retrieval unit, wherein the information is reported to the user equipment using an RRC Connection Setup message or a RRC connection Reestablishment message.
A control method of an internal combustion engine including an in-cylinder injection fuel injection valve arranged to inject a fuel to a combustion chamber , and a port injection fuel injection valve arranged to inject the fuel to an intake port , the control method comprising: sensing or estimating a fuel temperature at a tip end portion of the in-cylinder injection fuel injection valve; sensing an intake pressure; judging whether or not a flash boiling condition in which a flash boiling condition may be generated is satisfied, based on the fuel temperature and the intake pressure; setting the in-cylinder fuel injection valve to a default fuel injection valve; and injecting an entire or a part of the fuel from the port injection fuel injection valve by decreasing an injection amount ratio of the in-cylinder injection fuel injection valve when the flash boiling condition is satisfied. sensing or estimating a fuel temperature at a tip end portion of the in-cylinder injection fuel injection valve; sensing an intake pressure; judging whether or not a flash boiling condition in which a flash boiling condition may be generated is satisfied, based on the fuel temperature and the intake pressure; setting the in-cylinder fuel injection valve to a default fuel injection valve; and injecting an entire or a part of the fuel from the port injection fuel injection valve by decreasing an injection amount ratio of the in-cylinder injection fuel injection valve when the flash boiling condition is satisfied.
Timepiece movement provided with a three-dimensional element and first means (2, 4-10) for rotationally driving this three-dimensional element about an axis of rotation, this three-dimensional element comprising an internal part (23-27, 33, 39-41) comprising a complication, and the complication being a tourbillon mechanism (23-27, 33, 39-41), characterized in that this three-dimensional element is hollow and comprises an external part (28-32), on which the first driving means (2, 4-10) act, second driving means (12-22) being provided to rotationally drive, notably about the axis of rotation , at least a fraction (23-25, 33, 39) of this internal part (23-27, 33, 39-41), independently of the external part (28-32).
An isolated antibody or antigen-binding fragment thereof that binds a SARS-CoV-2 spike protein comprising the amino acid sequence set forth in SEQ ID NO: 832, wherein said isolated antibody or antigen-binding fragment comprises a heavy chain variable region (HCVR) comprising the amino acid sequence set forth in SEQ ID NO: 202, and a light chain variable region (LCVR) comprising the amino acid sequence set forth in SEQ ID NO: 210.
Method of operating under water an antenna device connected to a frequency-tunable circuit, said circuit being arranged to be tunable to select between a first frequency and a second frequency, said method comprising: tuning said circuit between a first frequency and a second frequency for obtaining a variable directional radiation pattern by the antenna device, wherein said first frequency and a second frequency are predetermined according to the saltwater-freshwater content of the water, wherein the directional radiation pattern of the antenna device for the first frequency is directional and the directional pattern of the antenna device for the second frequency is omnidirectional, independently of the antenna device being submerged in fresh water or salt water, wherein the first frequency is lower than 11.1 MHz and the second frequency is higher than 888 MHz, and wherein the antenna device is a dipole with 50 cm length or a loop antenna with radius of 16 cm, any one of the dipole and the loop antenna consisting of a 3 mm thick copper wire and an insulator thickness of 50 μm and a relative permittivity of 3. said circuit being arranged to be tunable to select between a first frequency and a second frequency, said method comprising: tuning said circuit between a first frequency and a second frequency for obtaining a variable directional radiation pattern by the antenna device, wherein said first frequency and a second frequency are predetermined according to the saltwater-freshwater content of the water, wherein the directional radiation pattern of the antenna device for the first frequency is directional and the directional pattern of the antenna device for the second frequency is omnidirectional, independently of the antenna device being submerged in fresh water or salt water, wherein the first frequency is lower than 11.1 MHz and the second frequency is higher than 888 MHz, and wherein the antenna device is a dipole with 50 cm length or a loop antenna with radius of 16 cm, any one of the dipole and the loop antenna consisting of a 3 mm thick copper wire and an insulator thickness of 50 μm and a relative permittivity of 3. tuning said circuit between a first frequency and a second frequency for obtaining a variable directional radiation pattern by the antenna device, wherein said first frequency and a second frequency are predetermined according to the saltwater-freshwater content of the water, wherein the directional radiation pattern of the antenna device for the first frequency is directional and the directional pattern of the antenna device for the second frequency is omnidirectional, independently of the antenna device being submerged in fresh water or salt water, wherein the first frequency is lower than 11.1 MHz and the second frequency is higher than 888 MHz, and wherein the antenna device is a dipole with 50 cm length or a loop antenna with radius of 16 cm, any one of the dipole and the loop antenna consisting of a 3 mm thick copper wire and an insulator thickness of 50 μm and a relative permittivity of 3.
Method of measuring the electrical conductivity of a medium, wherein the medium is subjected to a magnetic alternating field (primary field) by a transmitting coil so that currents are induced in the medium and constitute a further magnetic alternating field (secondary field), wherein the secondary field is measured with a receiving coil and the conductivity of the medium is evaluated therefrom, wherein the primary field is measured directly or indirectly at the location of the transmitting coil and the contribution of the primary field to the field at the location of the receiving coil is evaluated therefrom, characterized in that the transmitting coil is subdivided into individual conductor pieces and it is determined separately for each of these conductor pieces, which contribution the primary field generated by this conductor piece provides to the field at the location of the receiving coil.
A ruthenium compound represented by the following general formula : wherein, R 1 to R 3 each independently represent a C 1-5 alkyl group, provided that when R 1 is a methyl group, R 2 and R 3 are groups different from each other.
A method of wireless communication, comprising: receiving on a first component carrier, CC, signaling indicating an aperiodic channel state information, CSI, report request for a plurality of CCs; determining a CSI processing time requirement based on subcarrier spacing, SCS, numerologies of the CCs; determining whether to report or drop a CSI reporting for each of the CCs based on the CSI processing time requirement; monitoring CSI reference signal, CSI-RS, transmissions on the CCs; and reporting CSI feedback based on CSI-RS measurements of the CSI-RS transmissions, wherein determining the processing time requirement comprises: identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS. receiving on a first component carrier, CC, signaling indicating an aperiodic channel state information, CSI, report request for a plurality of CCs; determining a CSI processing time requirement based on subcarrier spacing, SCS, numerologies of the CCs; determining whether to report or drop a CSI reporting for each of the CCs based on the CSI processing time requirement; monitoring CSI reference signal, CSI-RS, transmissions on the CCs; and reporting CSI feedback based on CSI-RS measurements of the CSI-RS transmissions, wherein determining the processing time requirement comprises: identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS. identifying a minimum SCS among SCSs for the physical downlink control channel, PDCCH, with which the signalling was received indicating the aperiodic CSI report request, the physical uplink shared channel, PUSCH, with which the CSI feedback is to be reported, and the CSI-RS transmissions; and determining the processing time requirement based on the identified minimum SCS.
A method for an apparatus, wherein the apparatus is a first station, in the following also referred to as STA, comprising: establishing a wireless communication link between a first station and a second STA in a 6-GHz band ; and communicating between the first STA and the second STA in the 6-GHz band using a low-power indoor, in the following also referred to as LPI, long range, in the following also referred to as LR, physical-layer protocol data unit, in the following also referred to as PPDU, , wherein the LPI LR PPDU comprises a legacy preamble, a universal signal field, in the following also referred to as U-SIG, an extreme-high-throughput signal field, in the following also referred to as EHT-SIG, an extreme-high-throughput short training field, in the following also referred to as EHT-STF, an extreme-high-throughput long training field, in the following also referred to as EHT-LTF, and a payload, wherein each of the legacy preamble, U-SIG and EHT-SIG is modulated and duplicated over multiple 20-MHz subchannels for a 80-MHz, 160-MHz or 320-MHz bandwidth over which the LPI LR PPDU is transmitted, and wherein each of the EHT-STF, EHT-LTF and payload is modulated and transmitted on an entirety of the 80-MHz, 160-MHz or 320-MHz bandwidth. establishing a wireless communication link between a first station and a second STA in a 6-GHz band ; and communicating between the first STA and the second STA in the 6-GHz band using a low-power indoor, in the following also referred to as LPI, long range, in the following also referred to as LR, physical-layer protocol data unit, in the following also referred to as PPDU, , wherein the LPI LR PPDU comprises a legacy preamble, a universal signal field, in the following also referred to as U-SIG, an extreme-high-throughput signal field, in the following also referred to as EHT-SIG, an extreme-high-throughput short training field, in the following also referred to as EHT-STF, an extreme-high-throughput long training field, in the following also referred to as EHT-LTF, and a payload, wherein each of the legacy preamble, U-SIG and EHT-SIG is modulated and duplicated over multiple 20-MHz subchannels for a 80-MHz, 160-MHz or 320-MHz bandwidth over which the LPI LR PPDU is transmitted, and wherein each of the EHT-STF, EHT-LTF and payload is modulated and transmitted on an entirety of the 80-MHz, 160-MHz or 320-MHz bandwidth.
Awning for a vehicle , comprising a supporting frame , which, in the mounted state, spans a roof area , wherein at least one roofing membrane is allocated to the roof area , wherein the roofing membrane is connected to the supporting frame , wherein the supporting frame comprises frame elements , characterised in that the frame elements comprise a sheathing , in which an air hose is arranged, wherein the sheathing is closed by means of a cover on at least one end side , wherein the cover can be at least partially removed to extend the air hose .
Wiper device with at least one wiper drive that is provided to drive a wiper arm in a direction-changing manner over a wiping region of a vehicle windscreen , and with at least one control and/or regulating unit that is provided to actuate the at least one wiper drive to move the wiper arm between a first wiping region boundary and a second wiping region boundary , and with at least one interface that is provided for communications between the control and/or regulating unit and an external end user unit , characterized in that the external end user unit is provided at least for adjusting the first wiping region boundary .
A spacecraft comprising: a body , a radiator panel , and a heat dissipating unit thermally coupled with the radiator panel; wherein the spacecraft is configured to operate in an orbital plane , such that the spacecraft has a yaw axis within the orbital plane and directed from a spacecraft coordinate system origin toward nadir, a pitch axis orthogonal to the orbital plane and passing through the spacecraft coordinate system origin, and a roll axis orthogonal to the pitch axis and the yaw axis and passing through the spacecraft coordinate system origin; and the radiator panel includes a surface area external to an east or west facing external surface of the body, a first portion of the surface area facing a first direction that is parallel to the roll axis, and a second portion of the surface area facing a second direction that has a component parallel to the yaw axis. a body , a radiator panel , and a heat dissipating unit thermally coupled with the radiator panel; wherein the spacecraft is configured to operate in an orbital plane , such that the spacecraft has a yaw axis within the orbital plane and directed from a spacecraft coordinate system origin toward nadir, a pitch axis orthogonal to the orbital plane and passing through the spacecraft coordinate system origin, and a roll axis orthogonal to the pitch axis and the yaw axis and passing through the spacecraft coordinate system origin; and the radiator panel includes a surface area external to an east or west facing external surface of the body, a first portion of the surface area facing a first direction that is parallel to the roll axis, and a second portion of the surface area facing a second direction that has a component parallel to the yaw axis.
A coding and modulation apparatus comprising - an encoder configured to encode input data into cell words according to a low density parity check code, LDPC, and - a modulator configured to modulate said cell words into constellation values of a non-uniform constellation and to assign bit combinations to constellation values of the used non-uniform constellation, wherein said modulator is configured to use, based on a modulation and coding scheme, MCS, index describing a single carrier, SC, mode, a total number of 64 constellation points and the code rate, a non-uniform constellation as defined in sub-group B3 for 64-QAM with code rates of 1/2, 5/8, 3/4 or 13/16, or a non-uniform constellation obtained therefrom through inversion of a bit label and/or through interchanging of bit positions, wherein the constellation points are defined as follows: B3) 64-QAM NUC bit label constellation value 000000 +1.0414-0.1712i 000001 +0.7230-0.1517i 000010 +1.0997-0.5419i 000011 +0.7484-0.4663i 000100 -1.04140.1712i 000101 -0.7230-0.1517i 000110 -1.0997-05419i 000111 -0.7484-0.4663i 001000 +1.0414+0.1712i 001001 +0.7230+0.1517i 001010 +1.0997+0.5419i 001011 +0.7484+0.4663i 001100 -1.0414+0.1712i 001101 -0.7230+0.1517i 001110 -1.0997+0.5419i 001111 -0.7484+0.4663i 010000 +0.1414-0.1379i 010001 +0.4272-0.1421i 010010 +0.1440-0.4167i 010011 +0.4369-0.4317i 010100 -0.1414-0.1379i 010101 -0.4272-0.1421i 010110 -0.1440-0.4167i 010111 -0.4369-0.4317i 011000 +0.1414+0.1379i 011001 +0.4272+0.1421i 011010 +0.1440+0.4167i 011011 +0.4369+0.4317i 011100 -0.1414+0.1379i 011101 -0.4272+0.1421i 011110 -0.1440+0.4167i 011111 -0.4369+0.4317i 100000 +1.4058-0.2115i 100001 +0.5981-1.1597i 100010 +1.0691-0.9443i 100011 +0.7360-0.8042i 100100 -1.4058-0.2115i 100101 -0.5981-1.1597i 100110 -1.0691-0.9443i 100111 -0.7360-0.8042i 101000 +1.4058+0.2115i 101001 +0.5981+11597i 101010 +1.0691+0.9443i 101011 +0.7360+0.8042i 101100 -1.4058+0.2115i 101101 -0.5981+1.1597i 101110 -1.0691+0.9443i 101111 -0.7360+0.8042i 110000 +0.1695-1.0298i 110001 +0.2236-1.3784i 110010 +0.1426-0.7102i 110011 +0.4351-0.7394i 110100 -0.1695-1.0298i 110101 -0.2236-1.3784i 110110 -0.1426-0.7102i 110111 -0.4351-0.7394i 111000 +0.1695+10298i 111001 +0.2236+13784i 111010 +0.1426+0.7102i 111011 +0.4351+0.7394i 111100 -0.1695+1.0298i 111101 -0.2236+1.3784i 111110 -0.1426+0.7102i 111111 -0.4351+0.7394i - an encoder configured to encode input data into cell words according to a low density parity check code, LDPC, and - a modulator configured to modulate said cell words into constellation values of a non-uniform constellation and to assign bit combinations to constellation values of the used non-uniform constellation,
An isolated peptide wherein the peptide has a length of from 20 amino acids to 25 amino acids and comprises the amino acid sequence: X 1 LKX 2 X 3 X 4 CX 5 X 5 SX 6 X 7 FPX 8 X 9 WDLRX 10 (SEQ ID NO:14), where X 1 is L or K; X 2 is D or N; X 3 is C or W; X 4 is K, R, or S; X 5 is R, H, or S; X 6 is R or P; X 7 is L or V; X 8 is R or G; X 9 is T or N; and X 10 is Q or L; and wherein the peptide is capable of modulating an immune response to a virus in an individual. X 1 LKX 2 X 3 X 4 CX 5 X 5 SX 6 X 7 FPX 8 X 9 WDLRX 10 (SEQ ID NO:14), where X 1 is L or K; X 2 is D or N; X 3 is C or W; X 4 is K, R, or S; X 5 is R, H, or S; X 6 is R or P; X 7 is L or V; X 8 is R or G; X 9 is T or N; and X 10 is Q or L; and wherein the peptide is capable of modulating an immune response to a virus in an individual.
A method of lining a branch area in a pipeline using an inflatable bladder , wherein the method comprises: a step of inserting a branch liner on the inflatable bladder , a step of treating the branch liner with a heat-curable resin, a step of deflating the inflatable bladder , a step of positioning the inflatable bladder and the branch liner into the branch area of a pipeline, a step of inflating the inflatable bladder, a step of running a flow of compressed air and steam through the inflatable bladder while maintaining temperature of at least 50 °C of the inflatable bladder or the branch liner until the heat-curable resin has cured, a step of monitoring the temperature of the inflatable bladder or the branch liner at least until the temperature falls below 40 °C, a step of deflating the inflatable bladder, and a step of removing the inflatable bladder from the pipeline. a step of inserting a branch liner on the inflatable bladder , a step of treating the branch liner with a heat-curable resin, a step of deflating the inflatable bladder , a step of positioning the inflatable bladder and the branch liner into the branch area of a pipeline, a step of inflating the inflatable bladder, a step of running a flow of compressed air and steam through the inflatable bladder while maintaining temperature of at least 50 °C of the inflatable bladder or the branch liner until the heat-curable resin has cured, a step of monitoring the temperature of the inflatable bladder or the branch liner at least until the temperature falls below 40 °C, a step of deflating the inflatable bladder, and a step of removing the inflatable bladder from the pipeline.