mhurhangee/patent-ind-claim-en huggingface dataset:
A device for measuring biometric variables of the eyes for calculating intraocular lenses, consisting of a multi-point keratometer and an OCT arrangement , the OCT arrangement and the multi-point keratometer being on a common instrument axis , characterized in that the multi-point keratometer consists of light sources at different radial distances from the instrument axis , configured to telecentrically illuminate the cornea in punctiform fashion by collinear beams of measurement light, and a camera , upstream of which a telecentricity aperture is attached, the camera being adapted to telecentrically detect beams reflected by the cornea, and in that the OCT arrangement is designed as a laterally scanning swept-source system with a detection region detecting the whole eye over the whole axial length thereof, wherein the scanning direction of the OCT arrangement is aligned such that at least one B-scan of the OCT runs through at least one keratometer measurement point, wherein the multi-point keratometer has at least 12 keratometer measurement points, which are arranged in annular fashion in at least 2 rings. intraocular lenses, consisting of a multi-point keratometer and an OCT arrangement , the OCT arrangement and the multi-point keratometer being on a common instrument axis , characterized in that the multi-point keratometer consists of light sources at different radial distances from the instrument axis , configured to telecentrically illuminate the cornea in punctiform fashion by collinear beams of measurement light, and a camera , upstream of which a telecentricity aperture is attached, the camera being adapted to telecentrically detect beams reflected by the cornea, and in that the OCT arrangement is designed as a laterally scanning swept-source system with a detection region detecting the whole eye over the whole axial length thereof, wherein the scanning direction of the OCT arrangement is aligned such that at least one B-scan of the OCT runs through at least one keratometer measurement point, wherein the multi-point keratometer has at least 12 keratometer measurement points, which are arranged in annular fashion in at least 2 rings.
Rotorcraft comprising a fuselage , said fuselage extending longitudinally from rear (AR) to front (AV) from a tail to a nose , and transversely from a first flank to a second flank , said fuselage extending vertically upwards and being surmounted by a single main rotor contributing to providing the rotorcraft with at least part of its lift, a rectangular reference frame being attached to said rotorcraft and presenting a first unit vector (VR) extending in a forward direction from the centre of gravity (CG) of the rotorcraft towards the front (AV), said rectangular reference frame presenting a second unit vector (VT) extending from the centre of gravity (CG) in a direction going from the first flank to the second flank , and said rectangular reference frame presenting a third unit vector (VL) extending in an elevation direction (S1) from the centre of gravity (CG) towards the main rotor , said rotorcraft comprising a first propeller and a second propeller carried respectively by two arms and exerting respectively first thrust (P1, P10) and a second thrust (P2, P20), said two arms not forming a canard wing, the first propeller and the second propeller being arranged transversely on either side of said fuselage , said first propeller and said second propeller respectively having first blades and second blades for rotating respectively about a first axis of rotation (AXROT1) and a second axis of rotation (AXROT2), said first blades presenting pitch that can vary collectively in an identical manner over a first pitch range generating a said first thrust (P1) directed towards the front of the rotorcraft and over a second pitch range generating a said first thrust (P10) directed towards the rear of the rotorcraft , where said rotorcraft includes an adjustment system acting on the first propeller and the second propeller , said second blades presenting pitch that can vary collectively in an identical manner at least over a third pitch range generating a said second thrust (P2, P20) directed solely towards the front of the rotorcraft, said adjustment system being configured, at least during a stage of hovering flight, to position said first propeller in a first low speed configuration (conflb), the first thrust (P10) in the first low speed configuration (conf1b) having a first horizontal component (P101) directed parallel to the first vector (VR) and in a direction opposite to the first vector (VR), and a first vertical component (P102) directed parallel to the third vector (VL) in the elevation direction (S1), said adjustment system being configured, at least during the stage of hovering flight, to position said second propeller in a second low speed configuration (conf2b), the second thrust (P20) in the second low speed configuration (conf2b) comprising a second horizontal component (P201) directed parallel to the first vector (VR) and in the same direction as the first vector (VR), and a second vertical component (P202) directed parallel to the third vector (VL) in the same direction as the third vector(VL).
A distribution device having a device for feeding through or the fixation of lines, in particular pipes or cables, therein, wherein a V-shaped entry shaft is formed in a wall surface of the distribution device , in which at least one interchangeable element for feeding through lines is arranged, characterized in that the distribution device is a distribution cabinet and the wall surface with the V-shaped entry shaft constitutes an intermediate part of the distribution cabinet.
A method for controlling an audio system, the method comprising: substantially sealing an ear canal of a user by an acoustic noise reduction, further referred as ANR, headphone having an ANR module, tapping at least one of the headphone worn by a user, an ear of the user, and the head of the user to cause an acoustic pressure change in an ear canal of the user; sensing a current provided to the ANR module, the current being responsive to the pressure change in the ear canal; determining a peak value from the sensed current; comparing the peak value and a value of threshold to determine if a tap occurred; and characterized in that the threshold is an adaptive threshold and if the tap is determined to have occurred, determining an updated value for the adaptive threshold based on the peak value and one or more prior peak values. substantially sealing an ear canal of a user by an acoustic noise reduction, further referred as ANR, headphone having an ANR module, tapping at least one of the headphone worn by a user, an ear of the user, and the head of the user to cause an acoustic pressure change in an ear canal of the user; sensing a current provided to the ANR module, the current being responsive to the pressure change in the ear canal; determining a peak value from the sensed current; comparing the peak value and a value of threshold to determine if a tap occurred; and characterized in that the threshold is an adaptive threshold and if the tap is determined to have occurred, determining an updated value for the adaptive threshold based on the peak value and one or more prior peak values.
A data transmission method, comprising: determining (S110), by a terminal, M time unit or units configured for uplink transmission in an unlicensed carrier and N time units configured for downlink transmission in the unlicensed carrier, wherein M is a positive integer, N is a positive integer greater than or equal to 2, and the time units are timeslots; and receiving (S120), by the terminal, downlink data sent by a base station over the N time units in the unlicensed carrier, characterized by sending (S130), by the terminal, feedback information, which is corresponding to the downlink data in the N time units, to the base station over a first time unit of the M time unit or units in the unlicensed carrier, wherein the first time unit is after the N time units, and a difference value between a starting moment of the first time unit and a starting moment of the last time unit of the N time units is equal to or greater than a system feedback processing latency. determining (S110), by a terminal, M time unit or units configured for uplink transmission in an unlicensed carrier and N time units configured for downlink transmission in the unlicensed carrier, wherein M is a positive integer, N is a positive integer greater than or equal to 2, and the time units are timeslots; and receiving (S120), by the terminal, downlink data sent by a base station over the N time units in the unlicensed carrier, characterized by sending (S130), by the terminal, feedback information, which is corresponding to the downlink data in the N time units, to the base station over a first time unit of the M time unit or units in the unlicensed carrier, wherein the first time unit is after the N time units, and a difference value between a starting moment of the first time unit and a starting moment of the last time unit of the N time units is equal to or greater than a system feedback processing latency.
A method for data transmission, applied to a transmitting end user equipment, UE, in a device-to-device, D2D, sidelink, SL, transmission system, the method comprising: acquiring configuration information from a network side device; determining whether a hybrid automatic repeat request, HARQ, retransmission needs to be performed based on the configuration information; and transmitting, according to a result of the determining, data to be transmitted to a receiving end UE, the method further comprising: after determining that the HARQ retransmission needs to be performed, sending, to the receiving end UE, a HARQ transmission mode of the data to be transmitted through a physical sidelink control channel, PSCCH, and/or a physical sidelink shared channel, PSSCH, wherein the HARQ transmission mode comprises an HARQ retransmission mode without requiring feedback and an HARQ retransmission mode requiring feedback. acquiring configuration information from a network side device; determining whether a hybrid automatic repeat request, HARQ, retransmission needs to be performed based on the configuration information; and transmitting, according to a result of the determining, data to be transmitted to a receiving end UE, the method further comprising: after determining that the HARQ retransmission needs to be performed, sending, to the receiving end UE, a HARQ transmission mode of the data to be transmitted through a physical sidelink control channel, PSCCH, and/or a physical sidelink shared channel, PSSCH, wherein the HARQ transmission mode comprises an HARQ retransmission mode without requiring feedback and an HARQ retransmission mode requiring feedback.
A compound of formula Ib: wherein: X is OH, wherein the hydroxyl group can optionally be functionalized as succinate or attached to a solid support; ODMT; or a carboxylic acid; the 3' end of a strand of a RNAi agent; or the 3' end of a molecule comprising a strand of a RNAi agent, wherein the 3' end of the strand terminates in a phosphate or modified internucleoside linker and further comprises in 5' to 3' order: a spacer, and a second phosphate or modified internucleoside linker; q is 0, 1 or 2; R 6 is phenyl which is unsubstituted or substituted with a benzoxy group; R 7 is hydrogen or hydroxy-ethyl, wherein if R 7 is hydroxy-ethyl, the hydroxyl is optionally functionalized as succinate or attached to a solid support; R 8 is hydrogen or methoxy; Y 1 is CH or N; and Y 2 is N or CR 9 ; wherein R 9 is selected from hydrogen and methyl. X is OH, wherein the hydroxyl group can optionally be functionalized as succinate or attached to a solid support; ODMT; or a carboxylic acid; the 3' end of a strand of a RNAi agent; or the 3' end of a molecule comprising a strand of a RNAi agent, wherein the 3' end of the strand terminates in a phosphate or modified internucleoside linker and further comprises in 5' to 3' order: a spacer, and a second phosphate or modified internucleoside linker; q is 0, 1 or 2; R 6 is phenyl which is unsubstituted or substituted with a benzoxy group; R 7 is hydrogen or hydroxy-ethyl, wherein if R 7 is hydroxy-ethyl, the hydroxyl is optionally functionalized as succinate or attached to a solid support; R 8 is hydrogen or methoxy; Y 1 is CH or N; and Y 2 is N or CR 9 ; wherein R 9 is selected from hydrogen and methyl.
A user equipment comprising: a measurement unit configured to perform measurement for computing channel state information; a reception unit configured to receive first configuration information and second configuration information from a base station device; a configuring unit configured to configure a 1st set of subframe sets based on the first configuration information, and to configure a 2nd set of subframe sets based on the second configuration information, the 1st set of subframe sets including a first subframe set and a second subframe set, and the 2nd set of subframe sets including a third subframe set and a fourth subframe set; and a transmitting unit configured to transmit a channel state information report corresponding to at least one of the first subframe set, the second subframe set, the third subframe set, and the fourth subframe set; wherein the first configuration information is not configured in a case that the second configuration information is configured, and for the user equipment configured with the 2nd set of subframe sets based on the second configuration information, in a case of collision between channel state information reports of a same serving cell and with physical uplink control channel reporting types of a same priority, the channel state information report corresponding to the fourth subframe set is dropped. a measurement unit configured to perform measurement for computing channel state information; a reception unit configured to receive first configuration information and second configuration information from a base station device; a configuring unit configured to configure a 1st set of subframe sets based on the first configuration information, and to configure a 2nd set of subframe sets based on the second configuration information, the 1st set of subframe sets including a first subframe set and a second subframe set, and the 2nd set of subframe sets including a third subframe set and a fourth subframe set; and a transmitting unit configured to transmit a channel state information report corresponding to at least one of the first subframe set, the second subframe set, the third subframe set, and the fourth subframe set; wherein the first configuration information is not configured in a case that the second configuration information is configured, and for the user equipment configured with the 2nd set of subframe sets based on the second configuration information, in a case of collision between channel state information reports of a same serving cell and with physical uplink control channel reporting types of a same priority, the channel state information report corresponding to the fourth subframe set is dropped.
A method, comprising: receiving a collided signal, the collided signal comprising a first signal carrying a first packet and having a first power and a second signal carrying a second packet and having a second power, the first power being greater than the second power; amplifying and digitizing the collided signal into a first digital signal at a first gain and a second digital signal at a second gain that is greater than the first gain; determining a nonlinear interference component of the first packet on the second packet from the first digital signal; decoding the first packet from the first digital signal; re-encoding the first packet with a first estimated channel effect into an estimated signal; calculating a linear interference component of the first packet on the second packet from the estimated signal; removing the linear interference component and the nonlinear interference component from the second digital signal to produce a de-interfered signal; and decoding the second packet from the de-interfered signal. receiving a collided signal, the collided signal comprising a first signal carrying a first packet and having a first power and a second signal carrying a second packet and having a second power, the first power being greater than the second power; amplifying and digitizing the collided signal into a first digital signal at a first gain and a second digital signal at a second gain that is greater than the first gain; determining a nonlinear interference component of the first packet on the second packet from the first digital signal; decoding the first packet from the first digital signal; re-encoding the first packet with a first estimated channel effect into an estimated signal; calculating a linear interference component of the first packet on the second packet from the estimated signal; removing the linear interference component and the nonlinear interference component from the second digital signal to produce a de-interfered signal; and decoding the second packet from the de-interfered signal.
On-board device for reading a telegram of a balise installed at a point along a route followed by a guided vehicle in which said on-board device is designed to be installed, said on-board device comprising: - a receiver comprising an antenna capable of picking up the telegram transmitted by the balise and configured for delivering a reception signal (S1) to a processing unit ; - the processing unit configured for processing the reception signal (S1) in order to read the telegram sent by the balise ; and being characterized in that it comprises a test component configured for adding to the reception signal (S1) and before its processing by the processing unit a test signal (S2), said test signal being configured for acting as a noise for limiting a sensitivity of the receiver . - a receiver comprising an antenna capable of picking up the telegram transmitted by the balise and configured for delivering a reception signal (S1) to a processing unit ; - the processing unit configured for processing the reception signal (S1) in order to read the telegram sent by the balise ; and being characterized in that it comprises a test component configured for adding to the reception signal (S1) and before its processing by the processing unit a test signal (S2), said test signal being configured for acting as a noise for limiting a sensitivity of the receiver .
An S-nitrosylating agent for use in treating very long-chain acyl-coenzyme A dehydrogenase deficiency (VLCADD), wherein said S-nitrosylating agent is selected from the group consisting of S-nitroso-N-acetyl cysteine, acidic nitrite, nitrosyl chloride, alkyl nitrate, ethyl nitrite, amyl nitrite, glutathione (GSH), glutathione oligomer, S-nitrosoglutathione (GSNO), S-nitrosocysteinyl glycine, S-nitrosocysteine, N-acetyl cysteine, nitroglycerine, nitroprusside, nitric oxide, S-nitrosohemoglobin, S-nitrosoalbumin, 5-nitroso-N-acetylpenicillamine, S-nitroso-gamma-methyl-L-homocysteine, 5-nitroso-L-homocysteine, S-nitroso-gamma-thio-L-leucine, S-nitroso-delta-thio-L-leucine, S-nitrosoalbumin, and pharmaceutically acceptable salts thereof.
Use of carrageenan in cosmetic preparations comprising 2,4-bis-{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine) for reducing soiling and/or discolouration of textiles caused by UV filters in the preparation.
A solar module backsheet formed as multilayer backsheet which comprises the following components in this order: a. an optional cover layer, especially comprising polyurethane or a polyolefin as polymer main component, b. an insulation layer and c. a back layer forming the outside of the backsheet which is in direct contact with the insulation layer, wherein the insulation layer contains a crosslinked material on the basis of polyolefin as polymer main component and the back layer contains a material on the basis of polyurethane as polymer main component, especially such a material which was produced with blocked reaction partners. a. an optional cover layer, especially comprising polyurethane or a polyolefin as polymer main component, b. an insulation layer and c. a back layer forming the outside of the backsheet which is in direct contact with the insulation layer,
A method for two-way protection of a chip card and at least one environment of the chip card against unauthorized use, wherein the environment contains a chip card terminal , wherein the chip card has a first identifier , wherein the method has the following environment authentication steps: - generating a ciphertext from at least one first communication parameter (K1; KA1, D1) using a first symmetric key (S1) derived from the first identifier, wherein a protected first communication channel between the chip card terminal and the chip card is definable using the communication parameter, - transmitting the ciphertext from the chip card to the chip card terminal over a predefined communication channel , and - attempting a decryption of the ciphertext using a second symmetric key (S2) by means of the chip card terminal , wherein the result of the decryption is the first communication parameter only if the first symmetric key equals the second symmetric key, and therefore the protected first communication channel is definable between the chip card terminal and the chip card only if the first identifier is correct, wherein the first communication parameter (K1; KA1, D1) comprises cryptographic information of the chip card, wherein, in the event that the decryption of the ciphertext is successful, the chip card terminal derives a further symmetric key (S4) from the cryptographic information in order to encrypt the communication between the chip card terminal and the chip card, wherein the chip card is successfully authenticated to the environment by way of the encryption with the further symmetric key (S4). - generating a ciphertext from at least one first communication parameter (K1; KA1, D1) using a first symmetric key (S1) derived from the first identifier, wherein a protected first communication channel between the chip card terminal and the chip card is definable using the communication parameter, - transmitting the ciphertext from the chip card to the chip card terminal over a predefined communication channel , and - attempting a decryption of the ciphertext using a second symmetric key (S2) by means of the chip card terminal , wherein the result of the decryption is the first communication parameter only if the first symmetric key equals the second symmetric key, and therefore the protected first communication channel is definable between the chip card terminal and the chip card only if the first identifier is correct, wherein the first communication parameter (K1; KA1, D1) comprises cryptographic information of the chip card, wherein, in the event that the decryption of the ciphertext is successful, the chip card terminal derives a further symmetric key (S4) from the cryptographic information in order to encrypt the communication between the chip card terminal and the chip card, wherein the chip card is successfully authenticated to the environment by way of the encryption with the further symmetric key (S4).