mhurhangee/ep-ind-claims huggingface dataset:
Lighting and/or signaling system, especially for a motor vehicle, comprising: - a first primary light source producing a first primary light beam (L 1) of given wavelength, - a first wavelength conversion device of the reflecting type receiving the first primary light beam (L 1) and returning a secondary light radiation, - an optical imaging system receiving the secondary light radiation returned by the conversion device of the reflecting type and forming a projected light beam in the direction of a zone to be lit, characterized in that it comprises: - a first light sensor generating a signal corresponding to the light (L 11 R) received by this sensor, which light comprises a non-converted light part (L 11) of the first primary light beam (L 1) which is returned by the conversion device in the projected light beam and which is reflected by an obstacle situated in the zone lit by said projected light beam, - a control unit comprising - first modulation means for generating a modulation signal for the first primary light (L 1), - first demodulation means for processing the signal formed by said first light sensor, and determining a first distance (d 1) between said obstacle and the lighting system. - a first primary light source producing a first primary light beam (L 1) of given wavelength, - a first wavelength conversion device of the reflecting type receiving the first primary light beam (L 1) and returning a secondary light radiation, - an optical imaging system receiving the secondary light radiation returned by the conversion device of the reflecting type and forming a projected light beam in the direction of a zone to be lit, - a first light sensor generating a signal corresponding to the light (L 11 R) received by this sensor, which light comprises a non-converted light part (L 11) of the first primary light beam (L 1) which is returned by the conversion device in the projected light beam and which is reflected by an obstacle situated in the zone lit by said projected light beam, - a control unit comprising - first modulation means for generating a modulation signal for the first primary light (L 1), - first demodulation means for processing the signal formed by said first light sensor, and determining a first distance (d 1) between said obstacle and the lighting system. - first modulation means for generating a modulation signal for the first primary light (L 1), - first demodulation means for processing the signal formed by said first light sensor, and determining a first distance (d 1) between said obstacle and the lighting system.
Actuator (19, 39) for a transmission controller of a transmission that has a device for establishing an electrical and mechanical connection to the actuator (19, 39), said actuator having electrical connection contacts (22, 42), characterized in that the device has a plug element (10, 20) which has a housing (10a, 10b, 20a, 20b) and which has two contact spring wires (17a, 18a, 27a, 28a) which are arranged and fixed in the housing (10a, 10b, 20a, 20b), wherein the housing (10a, 10b, 20a, 20b) has laterally arranged openings (25, 26, 45, 46), and wherein the contact spring wires (17a, 18a, 27a, 28a) form spring pressure contacts (17a, 18a, 27a, 28a) in the region of the lateral openings (25, 26, 45, 46) and the actuator (19, 39) has at an end face a contact housing (21, 41) into which the plug element (10, 20) is able to be plugged and in which it is able to be fixed.
A receiving device (4; 34; 44; 54) comprising: a receiving unit that receives, via a receiving antenna (3a∼3h), a first image signal in a first receiving period and a second image signal in a second receiving period, each of the first and second image signals including an in-vivo image of a subject that is captured by an in-vivo-image acquiring device introduced into the subject; a transmitting unit (14; 55) that wirelessly transmits the first image signal and the second image signal to a real-time display device that displays the in-vivo image included in the first image signal and the in-vivo image included in the second image signal in real time; a detecting unit that detects a length of a first non-receiving period in which the receiving unit does not receive any image signal, the first non-receiving period being immediately after the first receiving period and immediately before the second receiving period; and a control unit (18; 38; 48; 58) that estimates, based on the length of the first non-receiving period detected by the detecting unit, a length of a second non-receiving period in which the receiving unit does not receive any image signal, the second non-receiving period being immediately after the second receiving period, and performs a control based on the estimated length of the second non-receiving period to cause the transmitting unit to wirelessly transmit the second image signal to the real-time display device during the second non-receiving period. a receiving unit that receives, via a receiving antenna (3a∼3h), a first image signal in a first receiving period and a second image signal in a second receiving period, each of the first and second image signals including an in-vivo image of a subject that is captured by an in-vivo-image acquiring device introduced into the subject; a transmitting unit (14; 55) that wirelessly transmits the first image signal and the second image signal to a real-time display device that displays the in-vivo image included in the first image signal and the in-vivo image included in the second image signal in real time; a detecting unit that detects a length of a first non-receiving period in which the receiving unit does not receive any image signal, the first non-receiving period being immediately after the first receiving period and immediately before the second receiving period; and a control unit (18; 38; 48; 58) that estimates, based on the length of the first non-receiving period detected by the detecting unit, a length of a second non-receiving period in which the receiving unit does not receive any image signal, the second non-receiving period being immediately after the second receiving period, and performs a control based on the estimated length of the second non-receiving period to cause the transmitting unit to wirelessly transmit the second image signal to the real-time display device during the second non-receiving period.
A method for coating or impregnating the surface of a medical device with an antibiotic, the method comprising the steps of: a) contacting the surface of the device with a composition comprising an antibiotic and a solvent; and b) curing the surface of the device at a temperature that is between 50°C to 80°C for 4 to 72 hours, wherein at least some of the solvent that was contacted with the surface is removed, and wherein the antibiotic coats or impregnates the surface of the device, wherein the antibiotic is a combination of minocyclin and rifampin. a) contacting the surface of the device with a composition comprising an antibiotic and a solvent; and b) curing the surface of the device at a temperature that is between 50°C to 80°C for 4 to 72 hours, wherein at least some of the solvent that was contacted with the surface is removed, and wherein the antibiotic coats or impregnates the surface of the device,
Apparatus, comprising: a processor, which is connected to an elongated probe that has a longitudinal axis and a distal end and is capable of rotation of the distal end about the longitudinal axis in mutually opposite first and second directions wherein the first direction is a recommended direction of rotation and the second direction is a non-recommended direction of rotation, wherein the processor is configured to automatically determine the rotation that is applied to the distal end while an operator manipulates the probe within a body of a patient, and to issue an alert upon determining that the rotation is in the second direction, but not when the determined rotation is in the first direction; and an output device, which is configured to present the alert to the operator, wherein the processor is configured to automatically sense the rotation by receiving a signal from a sensor coupled to the probe, and determining the rotation based on the received signal; wherein the distal end of the probe has a lasso shape and comprises a hook-shaped curve in a plane that is oriented obliquely with respect to the longitudinal axis; and wherein the alert is issued by displaying a visual alert on a display or sounding an audible alert using an audio output device. a processor, which is connected to an elongated probe that has a longitudinal axis and a distal end and is capable of rotation of the distal end about the longitudinal axis in mutually opposite first and second directions wherein the first direction is a recommended direction of rotation and the second direction is a non-recommended direction of rotation, wherein the processor is configured to automatically determine the rotation that is applied to the distal end while an operator manipulates the probe within a body of a patient, and to issue an alert upon determining that the rotation is in the second direction, but not when the determined rotation is in the first direction; and an output device, which is configured to present the alert to the operator, wherein the processor is configured to automatically sense the rotation by receiving a signal from a sensor coupled to the probe, and determining the rotation based on the received signal; wherein the distal end of the probe has a lasso shape and comprises a hook-shaped curve in a plane that is oriented obliquely with respect to the longitudinal axis; and wherein the alert is issued by displaying a visual alert on a display or sounding an audible alert using an audio output device.
Sheet-forming unit of a paper machine, in particular a tissue machine, for producing a fibrous web, comprising a headbox discharging a suspension jet and comprising an inner fabric and outer fabric each forming a loop, a forming element being arranged within the loop of the inner fabric, and guide rolls (8, 9, 10, 11) and a white-water box for receiving the white water accumulating in the region of the forming element being arranged within the loop of the outer fabric, the inner fabric and the outer fabric forming a gap for receiving the suspension jet and jointly wrapping at least partly around the forming element in a wrap region, characterized in that a machine-width guide element is arranged within the loop of the outer fabric in the wrap region and ends before the white-water box or projects only to such an extent into the white-water box and is arranged in such a way that the white water is formed into a jet and is deflected into the white-water box in such a way that a contact area is produced between the jet and the space formed by the loop of the outer fabric to receive water mist, an interspace being formed between the guide element and the forming element, and the course of the guide element substantially following the contour of the forming element and being chosen such that, viewed in the running direction, the interspace has a divergent course, and/or in that, in the region of at least one of the guide rolls (8, 9, 10, 11) of the outer fabric, a machine-width guide device (17, 18) is provided outside the space formed by the loop of the outer fabric, the guide device (17, 18) forming a convergent gap with respect to the outer fabric in the running direction.
A structure for a vehicle body lower portion comprising: a side sill located on each side in a vehicle width direction and extending in a vehicle front-rear direction; a side member joined to a lower face of a floor panel and extending in the vehicle front-rear direction at a position above the side sill and inside the side sill in the vehicle width direction; a first connection member connecting a lower part of the side member to an upper side of the side sill; and a second connection member connecting the lower part of the side member to a lower side of the side sill. a side sill located on each side in a vehicle width direction and extending in a vehicle front-rear direction; a side member joined to a lower face of a floor panel and extending in the vehicle front-rear direction at a position above the side sill and inside the side sill in the vehicle width direction; a first connection member connecting a lower part of the side member to an upper side of the side sill; and a second connection member connecting the lower part of the side member to a lower side of the side sill.
A signal sending method performed by an apparatus, comprising: determining a time-frequency resource, wherein the time-frequency resource comprises N subcarrier groups, the i th subcarrier group in the N subcarrier groups comprises K i subcarriers, the K i subcarriers are evenly spaced, N is a positive integer greater than or equal to 2, and K i is an integer greater than 1; and sending a first signal on the N subcarrier groups, wherein a part that is of the first signal and that is carried in the i th subcarrier group in the N subcarrier groups is a first segment of a sequence {z q (m)}; a length of the sequence {z q (m)} is M; the sequence meets z q (m) = y q (m mod M zc), wherein m = 0,1,2, ···, M - 1, M is an integer greater than 1, M zc is a Zadoff-Chu length sequence which is a maximum prime number that meets M zc <M, or M zc is a minimum prime number that meets M zc >M; and K i < M ZC 2, y q t = A ⋅ exp jαt exp − jπ qt t + 1 M ZC, wherein A is a non-zero complex constant, t = 0, 1, 2,..., M zc -1, j = − 1, α is a real number, q is determined based on an identifier of the first signal or a cell identifier, and q = ⌊ q ̅ + 1 / 2 ⌋, wherein q = M zc · (n id + 1)/p, n id G {0,1,2,..., p - 2}, p is a prime number greater than 2, and n id is determined based on the identifier of the first signal or the cell identifier, wherein each of the N subcarrier groups carries a part of the first signal, the part of the signal carried in each subcarrier group is a segment of the sequence, and segments carried in the at least two of the N subcarrier groups are different determining a time-frequency resource, wherein the time-frequency resource comprises N subcarrier groups, the i th subcarrier group in the N subcarrier groups comprises K i subcarriers, the K i subcarriers are evenly spaced, N is a positive integer greater than or equal to 2, and K i is an integer greater than 1; and sending a first signal on the N subcarrier groups, wherein a part that is of the first signal and that is carried in the i th subcarrier group in the N subcarrier groups is a first segment of a sequence {z q (m)}; a length of the sequence {z q (m)} is M; the sequence meets z q (m) = y q (m mod M zc), wherein m = 0,1,2, ···, M - 1, M is an integer greater than 1, M zc is a Zadoff-Chu length sequence which is a maximum prime number that meets M zc <M, or M zc is a minimum prime number that meets M zc >M; and K i < M ZC 2, y q t = A ⋅ exp jαt exp − jπ qt t + 1 M ZC, wherein A is a non-zero complex constant, t = 0, 1, 2,..., M zc -1, j = − 1, α is a real number, q is determined based on an identifier of the first signal or a cell identifier, and q = ⌊ q ̅ + 1 / 2 ⌋, wherein q = M zc · (n id + 1)/p, n id G {0,1,2,..., p - 2}, p is a prime number greater than 2, and n id is determined based on the identifier of the first signal or the cell identifier, wherein each of the N subcarrier groups carries a part of the first signal, the part of the signal carried in each subcarrier group is a segment of the sequence, and segments carried in the at least two of the N subcarrier groups are different
A prestressed concrete sleeper having at least two sleeper sections, which can be or are rigidly coupled by means of a connection device, said connection device being embedded in the sleeper heads, characterized in that the sleeper sections (2, 3) in the region adjoining the connection device each consist of a concrete having a higher strength than the concrete in the remaining region.
A method of monitoring a circuit breaker having a first conductive element and a second conductive element moveable relative to the first conductive element, the first conductive element and the second conductive element cooperating to provide a closed state that permits an electrical current to flow between the first conductive element and the second conductive element and an open state wherein the first conductive element is spaced apart from the second conductive element, the first conductive element and the second conductive element being positioned in an interior of an enclosure including an arc quenching gas, the method comprising the steps of: positioning at least one fluid characteristic sensor in fluid communication with the interior of the enclosure; characterized by monitoring a relative humidity of the interior of the enclosure with the at least one fluid characteristic sensor; and forecasting a maintenance event of the circuit breaker based on the relative humidity. positioning at least one fluid characteristic sensor in fluid communication with the interior of the enclosure; characterized by monitoring a relative humidity of the interior of the enclosure with the at least one fluid characteristic sensor; and forecasting a maintenance event of the circuit breaker based on the relative humidity.
A composition comprising in weight percent (wt%) based on the weight of the composition: 15-70 wt% polypropylene, 15-70 wt% high density polyethylene (HDPE), >0-30 wt% propylene-ethylene copolymer (PE copolymer), 2-15 wt% olefin block composite, and 0-20 wt% of one or more of a nucleating agent, filler and additive, with the proviso that the weight ratio of PP to HDPE is greater than (>) 1. 15-70 wt% polypropylene, 15-70 wt% high density polyethylene (HDPE), >0-30 wt% propylene-ethylene copolymer (PE copolymer), 2-15 wt% olefin block composite, and 0-20 wt% of one or more of a nucleating agent, filler and additive,
A system for conditioning a noisy signal, the system comprising: a receiving unit adapted to receive a sensing signal during each one of a plurality of successive control cycles, the sensing signal comprising a measurement component indicative of a measurement of at least one parameter of an engine and a noise component; and a processing unit adapted to apply a curve-fitting technique to the received sensing signal for filtering thereof to attenuate the noise component, the filtering comprising, during a first one of the plurality of control cycles, asymmetrically filtering the sensing signal received during the first control cycle, thereby generating filtered data, and, during a second control cycle subsequent to the first control cycle, symmetrically filtering the sensing signal received during the first control cycle, thereby generating corrected data. a receiving unit adapted to receive a sensing signal during each one of a plurality of successive control cycles, the sensing signal comprising a measurement component indicative of a measurement of at least one parameter of an engine and a noise component; and a processing unit adapted to apply a curve-fitting technique to the received sensing signal for filtering thereof to attenuate the noise component, the filtering comprising, during a first one of the plurality of control cycles, asymmetrically filtering the sensing signal received during the first control cycle, thereby generating filtered data, and, during a second control cycle subsequent to the first control cycle, symmetrically filtering the sensing signal received during the first control cycle, thereby generating corrected data.
A plant growing system comprising a biodegradable outer shell, a rooting material, a fertilizer or nutrient, seeds, and a removable lid, characterized in that said: outer shell comprises a molded material, a formed material, a composted material, a shaped material, or combinations thereof; rooting material comprises soil, coir, vermiculite, compost, perlite, bark fines, peat, wood shavings, mulch, or combinations thereof; and wherein the rooting material is formed or molded and comprises external ribbing. outer shell comprises a molded material, a formed material, a composted material, a shaped material, or combinations thereof; rooting material comprises soil, coir, vermiculite, compost, perlite, bark fines, peat, wood shavings, mulch, or combinations thereof; and wherein the rooting material is formed or molded and comprises external ribbing.
A liquid, opaque aqueous bleaching composition comprising a hypohalite bleach, a brightener; from 0.05% to 0.4% by weight of the total liquid composition of a latex and from 0.001 % to 10% by weight of the total liquid composition of a radical scavenger, wherein said hypohalite bleach is a hypochlorite bleach..
A method comprising: sending, by a base station, a first information block to a user equipment, UE, wherein the first information block carries first information, and the first information is used to indicate that: the base station does not send a first system information block, SIB, or the base station sends the first SIB, wherein the first SIB comprises system information that at least one of a UE of a first type or a UE supporting coverage enhancement needs to receive, wherein the UE of the first type is UE working at a specific frequency width of a carrier, and the specific frequency width is less than bandwidth of the carrier; if the first information is used to indicate that the base station does not send the first SIB, the base station does not support access by the UE of the first type and the base station does not support coverage enhancement; or if the first information is used to indicate that the base station sends the first SIB, the base station supports access by the UE of the first type and the base station supports coverage enhancement. the base station does not send a first system information block, SIB, or the base station sends the first SIB, wherein the first SIB comprises system information that at least one of a UE of a first type or a UE supporting coverage enhancement needs to receive, wherein the UE of the first type is UE working at a specific frequency width of a carrier, and the specific frequency width is less than bandwidth of the carrier; if the first information is used to indicate that the base station does not send the first SIB, the base station does not support access by the UE of the first type and the base station does not support coverage enhancement; or if the first information is used to indicate that the base station sends the first SIB, the base station supports access by the UE of the first type and the base station supports coverage enhancement.
An electrical connection terminal including: - a cage (102; 202) comprising a counter-bearing wall (104; 204); - a bracket comprising: • a bearing wall delimiting with said counter-bearing wall a first clamping location, this first clamping location being arranged to enable the introduction of at least one first conductive element along a first direction; and • a front wall transverse to said first direction; - a clamping member arranged to drive the cage in translation relative to the bracket along an axis; characterized in that the clamping member delimits with the bearing wall of the bracket a second clamping location; and in that the front wall of the bracket is provided with an aperture arranged to enable the introduction of at least one second conductive element in the second clamping location along a second direction. - a cage (102; 202) comprising a counter-bearing wall (104; 204); - a bracket comprising: • a bearing wall delimiting with said counter-bearing wall a first clamping location, this first clamping location being arranged to enable the introduction of at least one first conductive element along a first direction; and • a front wall transverse to said first direction; • a bearing wall delimiting with said counter-bearing wall a first clamping location, this first clamping location being arranged to enable the introduction of at least one first conductive element along a first direction; and • a front wall transverse to said first direction; - a clamping member arranged to drive the cage in translation relative to the bracket along an axis;