mhurhangee/ep-ind-claims huggingface dataset:
A sensor arrangement for detecting movement gestures on a motor vehicle, with a capacitive sensor arrangement (2, 3) and at least one control and evaluation device, which is coupled with the sensor arrangement and which detects a change in the capacitance of the sensor arrangement with respect to a reference potential, wherein at least two sensor electrode arrangements (2, 3) are arranged at spatially offset positions on the vehicle, wherein the sensor electrodes (2, 3) are constituted as elongated electrode arrangements and are arranged with identical spatial orientation, characterised in that one of the sensor electrode arrangements is constituted with a greater length dimension than the other sensor electrode arrangement and the longer sensor electrode arrangement extends beyond the shorter sensor electrode arrangement at both sides in the longitudinal direction, wherein the length difference of the sensor electrode arrangements (2, 3) amounts to 5%-30% and wherein each sensor electrode arrangement can be interrogated by the evaluation device in order to detect a temporal signal course.
A method for reporting that a cell does not support uplink high-order modulation, which is used to report by a Drift Radio Network Controller RNC that a related cell managed by the Drift RNC does not support the uplink high-order modulation, the method comprising the following steps: when the Drift RNC detects that the related cell managed by the Drift RNC does not support the uplink high-order modulation, the Drift RNC reports to a Serving RNC the information that the related cell does not support the uplink high-order modulation by signaling; characterized in that, the related cell is configured to transmit signaling and data with User Equipment, UE, and the Serving RNC, and to establish radio link with the Drift RNC; and reporting to the Serving RNC the information that the related cell does not support the uplink high-order modulation by signaling is achieved by adding the information of not supporting the uplink high-order modulation into the cause value of a current interface element. when the Drift RNC detects that the related cell managed by the Drift RNC does not support the uplink high-order modulation, the Drift RNC reports to a Serving RNC the information that the related cell does not support the uplink high-order modulation by signaling; characterized in that, the related cell is configured to transmit signaling and data with User Equipment, UE, and the Serving RNC, and to establish radio link with the Drift RNC; and reporting to the Serving RNC the information that the related cell does not support the uplink high-order modulation by signaling is achieved by adding the information of not supporting the uplink high-order modulation into the cause value of a current interface element.
A method of self-testing a motor vehicle radio frequency reception chain comprising a reception antenna followed by a reception amplifier, and a demodulator coupled to the reception amplifier by a radio frequency cable, said method comprising: activating a radio frequency source under the control of the demodulator, the radio frequency source comprising a radio frequency transmitter internal to the demodulator or a parasitic source within a motor vehicle equipment controllable by the demodulator, for the transmission of a test radio frequency signal with one or more harmonics of respective substantially known levels in the working frequency band of the demodulator, said test radio frequency signal being adapted to be received by the receiving antenna; determining by the demodulator the radio performance of the radio frequency receiving chain upstream of the demodulator, based on the effect on radio reception by said radio frequency receiving chain, of the harmonics of the test radio frequency signal which are received by the receiving antenna and conducted through the receiving chain to the demodulator. activating a radio frequency source under the control of the demodulator, the radio frequency source comprising a radio frequency transmitter internal to the demodulator or a parasitic source within a motor vehicle equipment controllable by the demodulator, for the transmission of a test radio frequency signal with one or more harmonics of respective substantially known levels in the working frequency band of the demodulator, said test radio frequency signal being adapted to be received by the receiving antenna; determining by the demodulator the radio performance of the radio frequency receiving chain upstream of the demodulator, based on the effect on radio reception by said radio frequency receiving chain, of the harmonics of the test radio frequency signal which are received by the receiving antenna and conducted through the receiving chain to the demodulator.
An Orthogonal Frequency Division Multiplexing, OFDM, receiver for processing a OFDM received signal transmitted by an OFDM transmitter over a communication channel having an impulse response H, said OFDM receiver performing OFDM reception in presence of Doppler effect, said OFDM receiver comprising: - at least two parallel processing chains, comprising each: - a time domain windowing (41, 51) for processing a OFDM block comprised within said OFDM received signal, said processing consisting in the multiplication, element by element of said OFDM block, by a set of predetermined coefficients, - a Discrete Fourier Transform, DFT, block (42, 52) for demodulating said windowed OFDM block into the frequency domain equivalent, said OFDM receiver being characterized in that: the time domain windowings of said at least two parallel processing chains have complementary profiles. - at least two parallel processing chains, comprising each: - a time domain windowing (41, 51) for processing a OFDM block comprised within said OFDM received signal, said processing consisting in the multiplication, element by element of said OFDM block, by a set of predetermined coefficients, - a Discrete Fourier Transform, DFT, block (42, 52) for demodulating said windowed OFDM block into the frequency domain equivalent, said OFDM receiver being characterized in that: the time domain windowings of said at least two parallel processing chains have complementary profiles. - a time domain windowing (41, 51) for processing a OFDM block comprised within said OFDM received signal, said processing consisting in the multiplication, element by element of said OFDM block, by a set of predetermined coefficients, - a Discrete Fourier Transform, DFT, block (42, 52) for demodulating said windowed OFDM block into the frequency domain equivalent, said OFDM receiver being characterized in that: the time domain windowings of said at least two parallel processing chains have complementary profiles.
A method for estimating g-sensitivity of a quartz oscillator, comprising: rotating the quartz oscillator successively around each of a plurality of axes constituting a full-rank system, wherein the plurality of axes comprises three orthogonal axes including an x-axis, a y-axis, and a z-axis, and wherein the rotations around the x-axis, y-axis and z-axis are performed at a substantially constant angular velocity; measuring a frequency of the quartz oscillator at a predetermined rate as a function of time during the rotating of the quartz oscillator; wherein the predetermined rate has a value of approximately greater than or equal to 10 Hz; and estimating an integral g-sensitivity vector, during the rotating of the quartz oscillator, using a data fitting and estimation model and a plurality of frequency measurements obtained from the measuring of the frequency of the quartz oscillator. rotating the quartz oscillator successively around each of a plurality of axes constituting a full-rank system, wherein the plurality of axes comprises three orthogonal axes including an x-axis, a y-axis, and a z-axis, and wherein the rotations around the x-axis, y-axis and z-axis are performed at a substantially constant angular velocity; measuring a frequency of the quartz oscillator at a predetermined rate as a function of time during the rotating of the quartz oscillator; wherein the predetermined rate has a value of approximately greater than or equal to 10 Hz; and estimating an integral g-sensitivity vector, during the rotating of the quartz oscillator, using a data fitting and estimation model and a plurality of frequency measurements obtained from the measuring of the frequency of the quartz oscillator.
Tandem charge for a missile, comprising: a pre-charge, in particular a hollow pre-charge; a primary charge, which has a shell comprising a tip orientated towards the pre-charge; and a cap, which is placed on the tip and formed to deflect shock waves which occur upon detonation of the pre-charge, the cap being of a different material from the shell, and the cap having a multilayer construction of materials (A, B) of different shockwave impedance. a pre-charge, in particular a hollow pre-charge; a primary charge, which has a shell comprising a tip orientated towards the pre-charge; and a cap, which is placed on the tip and formed to deflect shock waves which occur upon detonation of the pre-charge, the cap being of a different material from the shell, and the cap having a multilayer construction of materials (A, B) of different shockwave impedance.
A pressure-sensitive adhesive film, comprising a substrate and a pressure-sensitive adhesive layer disposed on at least one surface of the substrate, said pressure-sensitive adhesive layer being contiguous to the substrate without a primer layer between, and being made from a silicone pressure-sensitive adhesive composition comprising 100 to 80 parts by weight of a diorganopolysiloxane having at least two alkenyl groups and phenyl group in a molecule, phenyl groups accounting for 1.0 to 12 mol% of all organic groups, alkenyl groups being contained in an amount of 0.0005 to 0.05 mole per 100g of the diorganopolysiloxane, and the diorganopolysiloxane having a viscosity of at least 100,000 mPa.s at 25°C, 0 to 20 parts by weight of an organopolysiloxane comprising R 1 3 SiO 0.5 units and SiO 2 units in a R 1 3 SiO 0.5 /SiO 2 molar ratio in a range of from 0.6 to 1.7, wherein R 1 is a monovalent C 1 -C 10 hydrocarbon group, a total weight of components and combined being 100 parts by weight, an organohydrogenpolysiloxane containing at least three SiH groups, in such an amount as to give a molar ratio of SiH groups to alkenyl groups in components and in a range of from 0.5 to 20, 0 to 8.0 parts by weight of a retarder, an addition reaction catalyst in such an amount as to give 5 to 2,000 ppm of noble metal based on the total weight of components and, and 25 to 900 parts by weight of an organic solvent. 100 to 80 parts by weight of a diorganopolysiloxane having at least two alkenyl groups and phenyl group in a molecule, phenyl groups accounting for 1.0 to 12 mol% of all organic groups, alkenyl groups being contained in an amount of 0.0005 to 0.05 mole per 100g of the diorganopolysiloxane, and the diorganopolysiloxane having a viscosity of at least 100,000 mPa.s at 25°C, 0 to 20 parts by weight of an organopolysiloxane comprising R 1 3 SiO 0.5 units and SiO 2 units in a R 1 3 SiO 0.5 /SiO 2 molar ratio in a range of from 0.6 to 1.7, wherein R 1 is a monovalent C 1 -C 10 hydrocarbon group, a total weight of components and combined being 100 parts by weight, an organohydrogenpolysiloxane containing at least three SiH groups, in such an amount as to give a molar ratio of SiH groups to alkenyl groups in components and in a range of from 0.5 to 20, 0 to 8.0 parts by weight of a retarder, an addition reaction catalyst in such an amount as to give 5 to 2,000 ppm of noble metal based on the total weight of components and, and 25 to 900 parts by weight of an organic solvent.
An automatic continuous peripheral rewinding machine for producing logs of web material wound around winding cores (A1, A2), comprising: a first winding cradle formed between a first winding roller, a second winding roller and a third winding roller; the first winding roller and the second winding roller defining a nip through which the winding cores (A1, A2) with the web material being wound there around pass; a second winding cradle formed between the first winding roller, the second winding roller and a fourth winding roller; the third winding roller being placed upstream of the nip and the fourth winding roller being placed downstream of the nip, with respect to the direction of feed of the winding cores (A1,A2) through the nip; characterised by a rolling surface extending around the first winding roller and defining a winding core feed channel, between the rolling surface and the first winding roller; the rolling surface being configured and arranged with respect to the first winding roller such that the winding cores (A1, A2) are fed by rolling in contact with the rolling surface and with the web material entrained around the first winding roller. a first winding cradle formed between a first winding roller, a second winding roller and a third winding roller; the first winding roller and the second winding roller defining a nip through which the winding cores (A1, A2) with the web material being wound there around pass; a second winding cradle formed between the first winding roller, the second winding roller and a fourth winding roller; the third winding roller being placed upstream of the nip and the fourth winding roller being placed downstream of the nip, with respect to the direction of feed of the winding cores (A1,A2) through the nip; characterised by a rolling surface extending around the first winding roller and defining a winding core feed channel, between the rolling surface and the first winding roller; the rolling surface being configured and arranged with respect to the first winding roller such that the winding cores (A1, A2) are fed by rolling in contact with the rolling surface and with the web material entrained around the first winding roller.
A tape drive of a printing apparatus, the tape drive comprising a spool support for supporting a tape spool, wherein the spool support comprises a support surface mounted to a tape drive base plate such that the support surface is fixed against rotation relative to the base plate, the support surface being configured such that, in use, as tape is removed from or wound onto the spool, the spool rotates relative to the spool support such that the spool rotates around the support surface. wherein the spool support comprises a support surface mounted to a tape drive base plate such that the support surface is fixed against rotation relative to the base plate, the support surface being configured such that, in use, as tape is removed from or wound onto the spool, the spool rotates relative to the spool support such that the spool rotates around the support surface.
Metal detector portal comprising two vertical bars (12, 14) housing sensors that form a metal mass detector, in particular emitting/receiving coils (20, 22), associated with a supplying and processing module, and defining between them a channel for the passing of individuals to be controlled, and a radioactive radiation detector associated with the supplying and processing module characterised by the fact that at least one of the vertical bars (12, 14) comprises a set of light sources distributed along its height for viewing alarms, and that said module is adapted to control the light sources in such a way that the latter emit a first colour during the detection of metal masses and emit a second colour, different from the first colour, during the detection of a radioactive radiation.
A method for mitigating the effects of non-stationary events in a road noise cancellation system, the method comprising: receiving a noise signal from a sensor; generating an anti-noise signal based in part on the noise signal, the anti-noise signal to be radiated by a speaker as anti-noise within a cabin of a vehicle; detecting an occurrence of an object strike to the sensor based on a parameter computed from samples of a frame of the noise signal; and modifying the anti-noise signal to reduce an effect of the occurrence of the object strike on the anti-noise. receiving a noise signal from a sensor; generating an anti-noise signal based in part on the noise signal, the anti-noise signal to be radiated by a speaker as anti-noise within a cabin of a vehicle; detecting an occurrence of an object strike to the sensor based on a parameter computed from samples of a frame of the noise signal; and modifying the anti-noise signal to reduce an effect of the occurrence of the object strike on the anti-noise.
A method of stabilizing a dialysis solution that includes calcium ions and bicarbonate ions, characterized in that a phosphate is added to the dialysis solution at a time interval from its preparation in an amount of up to 0.4 mmol/l and/or an organic phosphate ester is added to the dialysis solution at a time interval from its preparation in an amount of up to 1.25 mmol/l.; the time interval from the preparation amounts to more than 30 minutes, more than 60 minutes, more than 90 minutes, or more than 105 minutes; and the pH.of the solution at the time of the subsequent addition is greater than 7.2.
An apparatus for circulating well fluids in an intervention system, the intervention system comprising a lower riser package and a lubricator, the apparatus comprising: a plurality of subsea storage vessels (22a,22b,22c,22d) adapted to be located adjacent a subsea intervention system, wherein the subsea storage vessels are linked in parallel; a first conduit adapted to provide fluid communication between a lower end of the storage vessels (22a,22b,22c,22d) and the intervention system lubricator; a second conduit adapted to provide fluid communication between an upper end of the storage vessels (22a,22b,22c,22d) and the intervention system lubricator; and at least one pump adapted to pump fluid from the storage vessels (22a,22b,22c,22d) to the intervention system lubricator through said first conduit and from the intervention system lubricator to the storage vessels (22a,22b,22c,22d) through said second conduit, and adapted to pump fluid from the storage vessels (22a,22b,22c,22d) to the intervention system lubricator through said second conduit and from the intervention system lubricator to the storage vessels (22a,22b,22c,22d) through said first conduit. a plurality of subsea storage vessels (22a,22b,22c,22d) adapted to be located adjacent a subsea intervention system, wherein the subsea storage vessels are linked in parallel; a first conduit adapted to provide fluid communication between a lower end of the storage vessels (22a,22b,22c,22d) and the intervention system lubricator; a second conduit adapted to provide fluid communication between an upper end of the storage vessels (22a,22b,22c,22d) and the intervention system lubricator; and at least one pump adapted to pump fluid from the storage vessels (22a,22b,22c,22d) to the intervention system lubricator through said first conduit and from the intervention system lubricator to the storage vessels (22a,22b,22c,22d) through said second conduit, and adapted to pump fluid from the storage vessels (22a,22b,22c,22d) to the intervention system lubricator through said second conduit and from the intervention system lubricator to the storage vessels (22a,22b,22c,22d) through said first conduit.
A method for encoding an image sequence into a temporal layer hierarchy, the method comprising: encoding a first image within the lowest temporal layer in the temporal layer hierarchy; defining a first identifier indicative of a decoding order count value of the first image within the lowest temporal layer in the temporal layer hierarchy; encoding a second image within a temporal layer higher than the lowest layer in the temporal layer hierarchy; defining, with a processor, a second identifier associated with the second image indicative of a decoding order count value of the previous picture in decoding order within the lowest temporal layer in the temporal layer hierarchy; and characterized by providing in a first supplemental enhancement message associated with the first image the first identifier, and providing the second identifier in a second supplemental enhancement message associated with the second image. encoding a first image within the lowest temporal layer in the temporal layer hierarchy; defining a first identifier indicative of a decoding order count value of the first image within the lowest temporal layer in the temporal layer hierarchy; encoding a second image within a temporal layer higher than the lowest layer in the temporal layer hierarchy; defining, with a processor, a second identifier associated with the second image indicative of a decoding order count value of the previous picture in decoding order within the lowest temporal layer in the temporal layer hierarchy; and characterized by providing in a first supplemental enhancement message associated with the first image the first identifier, and providing the second identifier in a second supplemental enhancement message associated with the second image.
Power management system, comprising: an electrical power supply input configured to be coupled to an electrical power supply; a first power supply bus bar coupled to the power supply input; a power management device coupled to the first power supply bus bar; at least one primary electrical equipment (4a; 4b; 4k) including a primary load being coupled to the power management device; and at least one secondary electrical equipment (3a; 3b; 3m) including a secondary load being coupled to the power manager device, characterized in that the power management device is configured to supply electrical power to the at least one secondary electrical equipment (3a; 3b; 3m), to supply electrical power to the at least one primary electrical equipment (4a; 4b; 4k), and to deactivate the power supply to the at least one secondary electrical equipment (3a; 3b; 3m) as long as the at least one primary electrical equipment (4a; 4b; 4k) is supplied with electrical power using the principle of mutually exclusive actuation. an electrical power supply input configured to be coupled to an electrical power supply; a first power supply bus bar coupled to the power supply input; a power management device coupled to the first power supply bus bar; at least one primary electrical equipment (4a; 4b; 4k) including a primary load being coupled to the power management device; and at least one secondary electrical equipment (3a; 3b; 3m) including a secondary load being coupled to the power manager device, characterized in that the power management device is configured to supply electrical power to the at least one secondary electrical equipment (3a; 3b; 3m), to supply electrical power to the at least one primary electrical equipment (4a; 4b; 4k), and to deactivate the power supply to the at least one secondary electrical equipment (3a; 3b; 3m) as long as the at least one primary electrical equipment (4a; 4b; 4k) is supplied with electrical power using the principle of mutually exclusive actuation.
Sliding element for contacting two printed circuit boards and comprising a base body and at least one contact element, wherein the base body is embodied from an electrically insulating material and receives the at least one contact element, wherein the contact element forms contact sites (3.1) on at least two opposite-lying sides of the base body, said contact sites being located outside the base body, characterized in that the sliding element forms a through-going opening that extends through the base body of the sliding element, wherein the through-going opening is provided so as to receive a threaded rod, and the through-going opening comprises an inner thread at least in regions, and in that the inner thread is used so as to receive the threaded rod on which the sliding element is arranged so as to be displaceable on the threaded rod by rotation of the threaded rod.