mhurhangee/patent-ind-claim-en huggingface dataset:
A seismic streamer cable , comprising: elongated strength members extending along the length of the streamer ; a plurality of sensor holders spaced longitudinally along the elongated strength members ; at least one sensor holder of the plurality of sensor holders comprising: a pair of rigid support plates , each of which is provided with a pair of apertures arranged to couple the support plates to the strength members such that the support plates are longitudinally spaced apart along the strength members leaving a space between them, wherein each support plate includes a central receptacle ; and a particle motion sensor assembly disposed in the space between the rigid support plates , the particle motion sensor assembly having opposed longitudinal end portions that are received and fixedly engaged by the central receptacles of the support plates . elongated strength members extending along the length of the streamer ; a plurality of sensor holders spaced longitudinally along the elongated strength members ; at least one sensor holder of the plurality of sensor holders comprising: a pair of rigid support plates , each of which is provided with a pair of apertures arranged to couple the support plates to the strength members such that the support plates are longitudinally spaced apart along the strength members leaving a space between them, wherein each support plate includes a central receptacle ; and a particle motion sensor assembly disposed in the space between the rigid support plates , the particle motion sensor assembly having opposed longitudinal end portions that are received and fixedly engaged by the central receptacles of the support plates . a pair of rigid support plates , each of which is provided with a pair of apertures arranged to couple the support plates to the strength members such that the support plates are longitudinally spaced apart along the strength members leaving a space between them, wherein each support plate includes a central receptacle ; and a particle motion sensor assembly disposed in the space between the rigid support plates , the particle motion sensor assembly having opposed longitudinal end portions that are received and fixedly engaged by the central receptacles of the support plates .
A bypass valve , comprising - a valve housing defining a valve chamber , wherein the valve housing wall includes an inlet opening and an outlet opening and both openings are connected with the valve chamber , - a piston , which is is movably arranged in the valve chamber , comprising a sealing surface resting on the wall of the valve housing and on the inlet opening , - a waterproof cassette being closed by a plug , wherein the piston is provided with the first permanent magnet being arranged on the side of the piston facing away from the inlet opening , and the waterproof cassette is provided with a second permanent magnet and a linear spring , wherein the spring is clamped between the second permanent magnet and the plug and wherein the first permanent magnet and the second permanent magnet face each other with like poles, characterized in that , the waterproof cassette is tightly inserted into the valve chamber and it does not extend into any part of the valve chamber in which the inlet opening and the outlet opening are arranged. - a valve housing defining a valve chamber , wherein the valve housing wall includes an inlet opening and an outlet opening and both openings are connected with the valve chamber , - a piston , which is is movably arranged in the valve chamber , comprising a sealing surface resting on the wall of the valve housing and on the inlet opening , - a waterproof cassette being closed by a plug , wherein the piston is provided with the first permanent magnet being arranged on the side of the piston facing away from the inlet opening , and the waterproof cassette is provided with a second permanent magnet and a linear spring , wherein the spring is clamped between the second permanent magnet and the plug and wherein the first permanent magnet and the second permanent magnet face each other with like poles, characterized in that , the waterproof cassette is tightly inserted into the valve chamber and it does not extend into any part of the valve chamber in which the inlet opening and the outlet opening are arranged. wherein the piston is provided with the first permanent magnet being arranged on the side of the piston facing away from the inlet opening , and the waterproof cassette is provided with a second permanent magnet and a linear spring , wherein the spring is clamped between the second permanent magnet and the plug and wherein the first permanent magnet and the second permanent magnet face each other with like poles, characterized in that , the waterproof cassette is tightly inserted into the valve chamber and it does not extend into any part of the valve chamber in which the inlet opening and the outlet opening are arranged.
A method comprising: transmitting, by a wireless device, a message comprising a preamble and a transport block; and receiving, during a discontinuous reception, DRX, active time of a DRX operation of the wireless device, a response to the message, wherein the DRX active time is based on a time window, for receiving the response to the message, that starts at least one symbol after a transmission occasion of the transport block. transmitting, by a wireless device, a message comprising a preamble and a transport block; and receiving, during a discontinuous reception, DRX, active time of a DRX operation of the wireless device, a response to the message, wherein the DRX active time is based on a time window, for receiving the response to the message, that starts at least one symbol after a transmission occasion of the transport block.
A method for treating a plant in a field by a farming machine that moves through the field: accessing an image of a plant, the image captured as the farming machine move past the plant in the field, the image comprising one or more pixels representing plant matter of the plant and one or more pixels representing airborne particulates; identifying pixels in the image representing the plant using a plant identification model by: classifying pixels in the image that represent plant matter as plant pixels, classifying pixels in the image that represent the airborne particulates as particulate pixels, and identifying the plant in a set of representative pixels in the image, the representative pixels including one or more plant pixels and one or more particulate pixels; and actuating a plurality of plant treatment mechanisms coupled to the farming machine to treat the identified plant as the farming machine moves past the plant in the field. accessing an image of a plant, the image captured as the farming machine move past the plant in the field, the image comprising one or more pixels representing plant matter of the plant and one or more pixels representing airborne particulates; identifying pixels in the image representing the plant using a plant identification model by: classifying pixels in the image that represent plant matter as plant pixels, classifying pixels in the image that represent the airborne particulates as particulate pixels, and identifying the plant in a set of representative pixels in the image, the representative pixels including one or more plant pixels and one or more particulate pixels; and classifying pixels in the image that represent plant matter as plant pixels, classifying pixels in the image that represent the airborne particulates as particulate pixels, and identifying the plant in a set of representative pixels in the image, the representative pixels including one or more plant pixels and one or more particulate pixels; and actuating a plurality of plant treatment mechanisms coupled to the farming machine to treat the identified plant as the farming machine moves past the plant in the field.
A compound having the structure wherein Z is tetrazole or CO 2 Q; each Q is independently selected from hydrogen or a protecting group; and wherein m is 0, 1, 2, 3, 4, 5, or 6; R is a pyridine ring selected from the group consisting of wherein X is fluorine, iodine, a radioisotope of fluorine, a radioisotope of iodine, chlorine, bromine, a radioisotope of bromine, a radioisotope of astatine, NO 2 , NH 2 , N + (R 2 ) 3 , Sn(R 2 ) 3 , Si(R 2 ) 3 , Hg(R 2 ), B(OH) 2 , -NHNH 2 , - NHN=CHR 3 , -NHNH-CH 2 R 3 ; n is 1, 2, 3, 4, or 5; Y is O, S, N(R'), C(O), NR'C(O), C(O)N(R'), OC(O), C(O)O, NR'C(O)NR', NR'C(S)NR', NR'S(O) 2 , S(CH 2 ) p , NR'(CH 2 ) p , O(CH 2 ) p , OC(O)CHR 8 NHC(O), NHC(O)CHR 8 NHC(O), or a covalent bond; wherein p is 1, 2, or 3, R' is H or C 1 -C 6 alkyl, and R 8 is hydrogen, alkyl, aryl or heteroaryl, each of which may be substituted; R 2 is C 1 -C 6 alkyl; and R 3 is aryl substituted by fluorine, iodine, a radioisotope of fluorine, a radioisotope of iodine, bromine, a radioisotope of bromine, or a radioisotope of astatine. Z is tetrazole or CO 2 Q; each Q is independently selected from hydrogen or a protecting group; and wherein m is 0, 1, 2, 3, 4, 5, or 6; R is a pyridine ring selected from the group consisting of wherein X is fluorine, iodine, a radioisotope of fluorine, a radioisotope of iodine, chlorine, bromine, a radioisotope of bromine, a radioisotope of astatine, NO 2 , NH 2 , N + (R 2 ) 3 , Sn(R 2 ) 3 , Si(R 2 ) 3 , Hg(R 2 ), B(OH) 2 , -NHNH 2 , - NHN=CHR 3 , -NHNH-CH 2 R 3 ; n is 1, 2, 3, 4, or 5; Y is O, S, N(R'), C(O), NR'C(O), C(O)N(R'), OC(O), C(O)O, NR'C(O)NR', NR'C(S)NR', NR'S(O) 2 , S(CH 2 ) p , NR'(CH 2 ) p , O(CH 2 ) p , OC(O)CHR 8 NHC(O), NHC(O)CHR 8 NHC(O), or a covalent bond; wherein p is 1, 2, or 3, R' is H or C 1 -C 6 alkyl, and R 8 is hydrogen, alkyl, aryl or heteroaryl, each of which may be substituted; R 2 is C 1 -C 6 alkyl; and R 3 is aryl substituted by fluorine, iodine, a radioisotope of fluorine, a radioisotope of iodine, bromine, a radioisotope of bromine, or a radioisotope of astatine.
A method of performing aperiodic sidelink, SL, channel state information, CSI, reporting performed by a first device , the method comprising: establishing a PC5 radio resource control, RRC, connection with a second device ; transmitting, to a base station, a scheduling request, SR, for requesting a SL resource; receiving, from the base station, information regarding the SL resource; and transmitting, to the second device , SL CSI on the SL resource, wherein the SR is triggered by physical, PHY, layer signaling related to triggering of the aperiodic SL CSI reporting. establishing a PC5 radio resource control, RRC, connection with a second device ; transmitting, to a base station, a scheduling request, SR, for requesting a SL resource; receiving, from the base station, information regarding the SL resource; and transmitting, to the second device , SL CSI on the SL resource, wherein the SR is triggered by physical, PHY, layer signaling related to triggering of the aperiodic SL CSI reporting.
A system for locating earth fault in a multi-phase power grid powered by a power source , the system comprising: an alternating voltage source synchronized with the power grid and which is connected between a zero point (N) of the power grid and earth (E), and a control unit configured to control the alternating voltage source in a fault current compensation mode to compensate for any ground fault current in the power network to a value below a threshold level, the system comprises at least one detector arranged in the power grid and communicatively connected to the control unit , which at least one detector is configured to register measurement values representing zero-sequence current and zero-sequence admittance, the control unit , when in a fault detection mode, is configured to gradually adjust a voltage from the alternating voltage source with respect to amplitude and/or phase angle so that a change of zero-sequence current and zero-sequence admittance between the alternating voltage source and a localization point can be measured by the at least one detector , the at least one detector is configured to apply registered measured values representing zero-sequence current and/or zero-sequence admittance to the control unit , and the control unit , in the fault detection mode is configured to localize a ground fault based on at least one of said measurement values representing changes of zero-sequence current and/or zero-sequence admittance, wherein the control unit 370 is characterised in that it is configured to switch to the fault compensation mode after the fault detection mode. an alternating voltage source synchronized with the power grid and which is connected between a zero point (N) of the power grid and earth (E), and a control unit configured to control the alternating voltage source in a fault current compensation mode to compensate for any ground fault current in the power network to a value below a threshold level, the system comprises at least one detector arranged in the power grid and communicatively connected to the control unit , which at least one detector is configured to register measurement values representing zero-sequence current and zero-sequence admittance, the control unit , when in a fault detection mode, is configured to gradually adjust a voltage from the alternating voltage source with respect to amplitude and/or phase angle so that a change of zero-sequence current and zero-sequence admittance between the alternating voltage source and a localization point can be measured by the at least one detector , the at least one detector is configured to apply registered measured values representing zero-sequence current and/or zero-sequence admittance to the control unit , and the control unit , in the fault detection mode is configured to localize a ground fault based on at least one of said measurement values representing changes of zero-sequence current and/or zero-sequence admittance, wherein the control unit 370 is characterised in that it is configured to switch to the fault compensation mode after the fault detection mode.
A washer or washer-dryer comprising a body ; a drum which is disposed in the body and wherein the laundry is loaded; a tub wherein the drum is disposed; and a baffle which is provided in the drum , which has at least one nozzle providing the delivery of water into the drum and which tumbles the laundry, the baffle having at least one filter filtering residues in the water such as detergent, dye, etc., at least one housing suitable for the placement of the filter , and a lid which covers the housing characterized by the filter with cationic polymer material comprising a filter body having an upper plate , a first opening provided on the upper plate , a second opening on the filter body aligning with the first opening , a pin disposed between the first opening and the second opening , and a spring surrounding the pin to enable the pin to be moved in the filter body ; and the baffle having the lid which covers the second opening , which detachably connects the filter to the housing and which comprises a discharge opening thereon, the pin having a first ring placed into the first opening and a second ring placed into the discharge hole and the filter comprising two sealing members one placed between the upper plate and the first ring and the other placed between the discharge hole and the second ring .
A method for receiving a downlink frame in a wireless communication system , the method comprising: receiving, by a first station, STA , a downlink orthogonal frequency division multiple access, OFDMA, frame , and the downlink OFDMA frame comprises resource units, RUs, different RUs in the downlink OFDMA frame are communicated by an access point, AP , to different stations including the first STA , wherein each of the RUs in the downlink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the downlink OFDMA frame by tracking a phase of OFDMA symbols in RUs based on the pilot tones carried in each of the RUs communicated by the first STA, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the downlink OFDMA frame. receiving, by a first station, STA , a downlink orthogonal frequency division multiple access, OFDMA, frame , and the downlink OFDMA frame comprises resource units, RUs, different RUs in the downlink OFDMA frame are communicated by an access point, AP , to different stations including the first STA , wherein each of the RUs in the downlink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the downlink OFDMA frame by tracking a phase of OFDMA symbols in RUs based on the pilot tones carried in each of the RUs communicated by the first STA, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the downlink OFDMA frame.
Facility for manufacturing tyres , said facility comprising an assembly station configured to place one or more tyre components onto a core so as to form an uncured annular tyre , a curing station configured to receive the assembly formed by said core and the uncured annular tyre and to heat said assembly during a curing operation so as to obtain a cured annular tyre , and an extraction station configured so as to separate, after the curing operation, the cured annular tyre from the core , said facility being characterized in that the core has a tubular wall extending along and around a central axis (X30) and which extends in thickness (E30) radially with respect to said central axis (X30) from a radially outer first annular face , referred to as "receiving face" , which is intended to receive the tyre component or components, as far as a radially inner second annular face , referred to as "exchange face" , which surrounds the central axis (X30) and which is intended to allow exchanges of heat between the tubular wall of the core and thermal sources external to said core , in that the curing station comprises a first, heating, thermal source which is designed to press against the exchange face of the core when said core is in said curing station so as to heat said core and the annular tyre during the curing operation, and then dissociate from the core so as to leave the exchange face free again when the core and the cured annular tyre leave said curing station and are transferred to the extraction station after the curing operation, and in that said extraction station comprises a second, refrigerating, thermal source which is designed so that when the core and the cured annular tyre are in the extraction station , it takes the place of the first thermal source in contact with said exchange face of the core so as to cool said core in such a way as to create a radial clearance between the receiving face of the core and the cured annular tyre through differential radial contraction of the tubular wall of the core relative to the cured annular tyre thus allowing an ejector member with which the extraction station is equipped to remove the cured annular tyre axially from the core .
Process for the production of a polymer polyol dispersion by melt emulsification involving only physical mixing of the components, wherein a stabilizer (S), comprising from 10 to 70% by weight, preferably 30 to 60% by weight, more preferably 40 to 55% by weight, based on the sum of all components, at least one polyol P2, and at least one polyol CSP which comprises the reaction product of at least one macromere M, styrene and acrylonitrile in P2, optionally with an initiator and/ or a chain transfer agent, wherein the content of macromere M of the stabilizer (S) is between 35 to 54 wt%, based on the sum of all components, and wherein the polyol CSP is preferably comb-structured, wherein the overall content of styrene of the stabilizer (S) is between 4 to 15 wt%, and/or the overall content of acrylonitrile of the stabilizer (S) is between 2 to 7 wt%, and wherein the macromere M is obtained by reacting 1,1-dimethyl meta isopropenyl benzyl isocyanate (TMI) with a polyether polyol PM, optionally in the presence of a Lewis acid catalyst is used.
Method for providing an input option on a touch-sensitive display surface , wherein the display surface is configured to display an image , wherein the display surface comprises a ridge/depression , and wherein the display surface is suitable for displaying at least part of the image also on/in the ridge/depression , comprising: displaying a plurality of marking areas near or adjacent to the ridge/depression or at least partially on/in the ridge/depression ; assigning in each case a section of the ridge/depression to each marking area , in particular based on the spatial distance from the region taken up by the display of the marking area and, in the case of a marking area displayed on/in the ridge/depression , based on the region of the ridge/depression in which the marking area is at least partially displayed; detecting a movement of a finger of a user passing over the ridge/depression at a section of the ridge/depression assigned to one of the marking areas ; activating a function assigned to the marking area in response to the detection. displaying a plurality of marking areas near or adjacent to the ridge/depression or at least partially on/in the ridge/depression ; assigning in each case a section of the ridge/depression to each marking area , in particular based on the spatial distance from the region taken up by the display of the marking area and, in the case of a marking area displayed on/in the ridge/depression , based on the region of the ridge/depression in which the marking area is at least partially displayed; detecting a movement of a finger of a user passing over the ridge/depression at a section of the ridge/depression assigned to one of the marking areas ; activating a function assigned to the marking area in response to the detection.
Method for mounting a stator body equipped with a winding in an internal bearing surface of a skirt of a bearing and in a second, guiding internal bearing surface of a skirt of another bearing of a rotary electric machine, such as a motor vehicle alternator or alternator-starter, characterized in that the skirt is heated locally by induction before the body equipped with its winding is mounted in the skirt , in that the internal bearing surface of the skirt is heated locally by induction and in that the body is threaded axially into the other bearing after the body is mounted in the bearing .