mhurhangee/ep-ind-claims huggingface dataset:
Method, comprising: - determining of at least one expected receiving parameter value and/or at least one expected tire parameter value for each wheel position of the commercial vehicle, - receiving (301, 404) at least a first wireless communication signal of a first tire sensor (21, 23) by wireless communication means of a commercial vehicle; - determining (302, 405) whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle, based at least partially on at least one receiving parameter value of the first wireless communication signal and/or at least one representation of a tire parameter value included in the first wireless communication signal; - wherein the determining (302, 405) whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle is further based at least partially on a speed of the commercial vehicle, and wherein the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle only if the speed of the commercial vehicle is greater than or equal to a predetermined speed, - wherein the determining whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle is further based at least partially on the expected receiving parameter values and/or the expected tire parameter values, and - wherein the determining of the expected receiving parameters and/or the expected tire parameter values is further based at least partially on a speed of the commercial vehicle. - determining of at least one expected receiving parameter value and/or at least one expected tire parameter value for each wheel position of the commercial vehicle, - receiving (301, 404) at least a first wireless communication signal of a first tire sensor (21, 23) by wireless communication means of a commercial vehicle; - determining (302, 405) whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle, based at least partially on at least one receiving parameter value of the first wireless communication signal and/or at least one representation of a tire parameter value included in the first wireless communication signal; - wherein the determining (302, 405) whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle is further based at least partially on a speed of the commercial vehicle, and wherein the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle only if the speed of the commercial vehicle is greater than or equal to a predetermined speed, - wherein the determining whether the first tire sensor (21, 23) is assignable to a wheel position of the commercial vehicle is further based at least partially on the expected receiving parameter values and/or the expected tire parameter values, and - wherein the determining of the expected receiving parameters and/or the expected tire parameter values is further based at least partially on a speed of the commercial vehicle.
A headlamp control device for a vehicle, comprising: a headlamp mounted on the vehicle and configured to illuminate ahead of the vehicle in an illumination mode that is either a low beam mode or a high beam mode; a control unit that performs automatic illumination control in which the illumination mode of the headlamp is automatically switched between the low beam mode and the high beam mode based on a traveling state of the vehicle, wherein the control unit is configured so that, when an occupant of the vehicle performs a predetermined interruption operation while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the illumination mode to the low beam mode until an interruption time passes, and a target information obtaining unit configured to detect an illumination target and obtain a distance between the detected illumination target and the vehicle, the illumination target being a target of a specific type, which is located ahead of the vehicle, characterized in that the specific type is a pedestrian, wherein the control unit is configured so that, in a case where the illumination target has been detected when the interruption operation is performed while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the interruption time to a larger value as the distance between the illumination target and the vehicle is larger. a headlamp mounted on the vehicle and configured to illuminate ahead of the vehicle in an illumination mode that is either a low beam mode or a high beam mode; a control unit that performs automatic illumination control in which the illumination mode of the headlamp is automatically switched between the low beam mode and the high beam mode based on a traveling state of the vehicle, wherein the control unit is configured so that, when an occupant of the vehicle performs a predetermined interruption operation while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the illumination mode to the low beam mode until an interruption time passes, and a target information obtaining unit configured to detect an illumination target and obtain a distance between the detected illumination target and the vehicle, the illumination target being a target of a specific type, which is located ahead of the vehicle, characterized in that the specific type is a pedestrian, wherein the control unit is configured so that, in a case where the illumination target has been detected when the interruption operation is performed while the illumination mode is the high beam mode during the automatic illumination control, the control unit sets the interruption time to a larger value as the distance between the illumination target and the vehicle is larger.
Device for monitoring a protected area with - at least one light runtime sensor (14, 14.1,..., 14.n) which has at least one transmitter (16, 16.1,..., 16.n) for emitting light beams (24, 24.1,..., 24.n) into the protected area, and at least one receiver (18, 18.1,..., 18.n) for receiving reflected or remitted light beams (28, 28.1,..., 28.n) - a limiting element opposite the light runtime sensor (14, 14.1,..., 14.n) at a first distance and at least partially limiting the protected area, - a reference element, opposite the light runtime sensor (14, 14.1,..., 14.n) at a second distance, for reflecting or remitting the emitted light beams ((24, 24.1,..., 24.n)) - at least one evaluation unit for determining a light runtime between emitting the light beams (24, 24.1,..., 24.n) and receiving the reflected or remitted light beams (28, 28.1,..., 28.n), and - a monitoring unit for evaluating the determined light runtime, characterized in that the second distance is greater than the first distance and a difference between the second distance and the first distance is at least as great as a depth resolution of the light runtime sensor (14, 14.1,..., 14.n). - at least one light runtime sensor (14, 14.1,..., 14.n) which has at least one transmitter (16, 16.1,..., 16.n) for emitting light beams (24, 24.1,..., 24.n) into the protected area, and at least one receiver (18, 18.1,..., 18.n) for receiving reflected or remitted light beams (28, 28.1,..., 28.n) - a limiting element opposite the light runtime sensor (14, 14.1,..., 14.n) at a first distance and at least partially limiting the protected area, - a reference element, opposite the light runtime sensor (14, 14.1,..., 14.n) at a second distance, for reflecting or remitting the emitted light beams ((24, 24.1,..., 24.n)) - at least one evaluation unit for determining a light runtime between emitting the light beams (24, 24.1,..., 24.n) and receiving the reflected or remitted light beams (28, 28.1,..., 28.n), and - a monitoring unit for evaluating the determined light runtime, characterized in that the second distance is greater than the first distance and a difference between the second distance and the first distance is at least as great as a depth resolution of the light runtime sensor (14, 14.1,..., 14.n).
An inhibitor of lipid raft/caveolae-dependent endocytic pathway for use in a method of increasing the uptake of a therapeutic agent by a target cell in a subject, wherein the inhibitor of lipid raft/caveolae-dependent endocytic pathway is selected from the group consisting of Nystatin, Amphotericin B, methyl-β-cyclodextrin and filipin, wherein the therapeutic agent is selected from the group consisting of (i) a naturally occuring endostatin or a derivative thereof, (ii) a recombinant human endostatin or a derivative thereof and (iii) an antibody against epidermal growth factor receptor (EGFR), and wherein the subject is suffering from a tumor, and wherein the endostatin derivative is a polyethylene glycol modified endostatin. wherein the inhibitor of lipid raft/caveolae-dependent endocytic pathway is selected from the group consisting of Nystatin, Amphotericin B, methyl-β-cyclodextrin and filipin, wherein the therapeutic agent is selected from the group consisting of (i) a naturally occuring endostatin or a derivative thereof, (ii) a recombinant human endostatin or a derivative thereof and (iii) an antibody against epidermal growth factor receptor (EGFR),
A monolithic composite material comprising an inorganic aerogel reinforced by a preformed open-cell melamine foam, said material having a thermal conductivity λ between 10 and 20 mW/m·K, measured according to the method of the guarded hot plate of the NF EN 12667 at 20°C and atmospheric pressure, characterized in that the percentage of a volume occupied by macropores, macropores being pores with a diameter greater than 10 μm, in a volume occupied by the material in its entirety is less than 5%, as measured using X-ray tomography and in three dimensions, the material does not contain any binder, and characterized in that the material is obtained by a process comprising the following successive steps: a) casting an inorganic sol in a reactor in which was previously placed a preformed open-cell melamine foam, said sol comprising between 6 and 15% by weight of inorganic material based on the total weight of the inorganic sol, b) gelation of the sol into a lyogel, c) drying the lyogel. a) casting an inorganic sol in a reactor in which was previously placed a preformed open-cell melamine foam, said sol comprising between 6 and 15% by weight of inorganic material based on the total weight of the inorganic sol, b) gelation of the sol into a lyogel, c) drying the lyogel.
A method performed by a mobile terminal, the method comprising: scanning for radio signals transmitted by at least first and second transmitting devices, wherein the transmitting devices are nodes of one or more communication networks, wherein each of the nodes constitutes an access point and provides coverage in a respective coverage area; for each radio signal identified in the scan, receiving an identifier relating to the originating transmitting device from the radio signal; the method being characterized by using the identifier and/or parameters of a radio signal received from the first transmitting device and the identifier and/or parameters of a radio signal received from the second transmitting device to detect whether the first and second transmitting devices are co-located; and in response to detecting that the first and second transmitting devices are co-located: creating a group for the transmitting devices that are identified as being co-located; creating wireless fingerprint data for the group as a whole and refrain from creating wireless fingerprint data for every transmitting device of the group; and causing transmission of the wireless fingerprint data to a remote server. scanning for radio signals transmitted by at least first and second transmitting devices, wherein the transmitting devices are nodes of one or more communication networks, wherein each of the nodes constitutes an access point and provides coverage in a respective coverage area; for each radio signal identified in the scan, receiving an identifier relating to the originating transmitting device from the radio signal; the method being characterized by using the identifier and/or parameters of a radio signal received from the first transmitting device and the identifier and/or parameters of a radio signal received from the second transmitting device to detect whether the first and second transmitting devices are co-located; and in response to detecting that the first and second transmitting devices are co-located: creating a group for the transmitting devices that are identified as being co-located; creating wireless fingerprint data for the group as a whole and refrain from creating wireless fingerprint data for every transmitting device of the group; and causing transmission of the wireless fingerprint data to a remote server. creating a group for the transmitting devices that are identified as being co-located; creating wireless fingerprint data for the group as a whole and refrain from creating wireless fingerprint data for every transmitting device of the group; and causing transmission of the wireless fingerprint data to a remote server.
Clockwork movement comprising a regulating system of the tourbillon type, this regulating system comprising a support, the clockwork movement further comprising at least one drive unit kinematically connected to the regulating system, this clockwork movement being characterized in that it comprises: • a cyclic moving mechanism driven in rotation by said at least one drive unit; • a conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement, this conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement comprising at least one rack and being driven by said cyclic moving mechanism; • a conversion mechanism for converting a longitudinal rectilinear movement into a transverse rectilinear movement, this conversion mechanism for converting a longitudinal rectilinear movement into a transverse rectilinear movement being kinematically connected to said conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement; and • at least one guide column of the regulating system. • a cyclic moving mechanism driven in rotation by said at least one drive unit; • a conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement, this conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement comprising at least one rack and being driven by said cyclic moving mechanism; • a conversion mechanism for converting a longitudinal rectilinear movement into a transverse rectilinear movement, this conversion mechanism for converting a longitudinal rectilinear movement into a transverse rectilinear movement being kinematically connected to said conversion mechanism for converting a rotary movement into a longitudinal rectilinear movement; and • at least one guide column of the regulating system.
An oral care composition comprising a chalcone color change component that is able to change color by addition of saliva and/or by a change in pH of the composition, wherein the color change component comprises phenyl-3-methoxy-4-hydroxystyryl ketone (CHAK4), and wherein the CHAK4 is present in an amount from 0.01% to 10% by weight of the composition.
An electromechanical lock, comprising: - a solenoid - a movable locking element displaceable by said solenoid into an unlocking position of the lock - a spring acting on said movable element to hold it in a locking position of the lock with the solenoid in a de-energized condition wherein said movable element comprises an anti-shock shaped portion (31,31',31",31..) and said lock comprises an engagement means (8,8',8",8"') for said anti-shock shaped portion, said engagement means (8,8',8",8"') is displaceable into an engagement position in which it interferes with the anti-shock shaped portion (31,31',31",31"') in order to prevent said movable element from displacing into the unlocking position of the lock characterized in that it further comprises - a substantially cylindrical and hollow rotor, intended to house said solenoid and said movable element such that one end of the latter provided with said anti-shock shaped portion externally protrudes from said solenoid - a fixed block or stator - a stop bar radially displaceable from and towards an interference position between rotor and stator to allow or prevent rotation of the former with respect to the latter. - a solenoid - a movable locking element displaceable by said solenoid into an unlocking position of the lock - a spring acting on said movable element to hold it in a locking position of the lock with the solenoid in a de-energized condition - a substantially cylindrical and hollow rotor, intended to house said solenoid and said movable element such that one end of the latter provided with said anti-shock shaped portion externally protrudes from said solenoid - a fixed block or stator - a stop bar radially displaceable from and towards an interference position between rotor and stator to allow or prevent rotation of the former with respect to the latter.
Method for the cryogenic separation, the cooling or the liquefaction of a fluid using an exchange line comprising: • extracting from said exchange line at least one dual phase fluid • separating said dual phase fluid into at least one vapour fraction and one liquid fraction in a phase separator • expanding at least one portion of said liquid fraction using a first expansion means (60,) • reinjecting, reheating and at least partially vaporising said expanded liquid fraction in the exchange line the first expansion means is a valve vapour is sent from the phase separator to a third expansion means characterised in that during the cooling of said exchange line, at least a fraction of the fluid extracted from the exchange line and/or from the phase separator is expanded in second expansion means (61, 81) parallel to the first expansion means and during a normal operation, the second expansion means is essentially closed, and, during the cooling of said exchange line, at least a fraction of the vapour from the phase separator is expanded in a fourth expansion means parallel with the third expansion means. • extracting from said exchange line at least one dual phase fluid • separating said dual phase fluid into at least one vapour fraction and one liquid fraction in a phase separator • expanding at least one portion of said liquid fraction using a first expansion means (60,) • reinjecting, reheating and at least partially vaporising said expanded liquid fraction in the exchange line
A method for using a heat transfer on specific merchandising articles for a specific event, comprising: printing the heat transfer with specific visually recognizable information; applying the heat transfer to a clothing article; using the clothing article as an admission ticket to a specific event; scanning the heat transfer on the clothing article; gaining admission to the specific event; and identifying a user's seat location from the scanning of the heat transfer. printing the heat transfer with specific visually recognizable information; applying the heat transfer to a clothing article; using the clothing article as an admission ticket to a specific event; scanning the heat transfer on the clothing article; gaining admission to the specific event; and identifying a user's seat location from the scanning of the heat transfer.
Switching device with a damping element for the contact system during abrupt closing, wherein the contact system has a contact slide and a switching piece movably guided therein, and wherein the movable switching piece is mounted opposite a fixed switching piece, wherein the contact slide has at least one projection which, upon the abrupt closing of the switching device, engages with the damping element, characterized in that the contact slide is configured with a U-shaped design, with a center piece and two lateral guides (5, 6), on which the at least one projection is arranged.
A system for removing contaminants from a contaminated gas stream using a liquid absorbent, the system at least comprising a first and a second separation unit (2A, 2B), wherein the first separation unit comprises at least: - a first separator having an inlet for a contaminated gas stream to be separated, a first outlet for separated gas and a second outlet for separated liquid absorbent; - a rising conduit for transporting the contaminated gas stream to the inlet of the first separator; - a conduit for removing the separated gas at the first outlet of the first separator; and - a conduit for removing separated liquid absorbent at the second outlet of the first separator; wherein the second separation unit comprises at least: - a second separator having an inlet for a stream to be separated, a first outlet for separated gas and a second outlet for separated liquid absorbent; - a rising conduit for transporting a contaminated stream to the inlet of the second separator; - a conduit for removing separated gas at the first outlet of the second separator; and - a descending conduit for removing separated liquid absorbent at the second outlet of the second separator; wherein the descending conduit of the second separation unit is fluidly connected to the rising conduit of the first separation unit and wherein the height of the descending conduit of the second separation unit is selected such that during use the hydrostatic force in the descending conduit of the second separation unit can induce the liquid absorbent in the rising conduit of the first separation unit to flow co-currently with the contaminated gas stream to the inlet of the first separator. - a first separator having an inlet for a contaminated gas stream to be separated, a first outlet for separated gas and a second outlet for separated liquid absorbent; - a rising conduit for transporting the contaminated gas stream to the inlet of the first separator; - a conduit for removing the separated gas at the first outlet of the first separator; and - a conduit for removing separated liquid absorbent at the second outlet of the first separator; - a second separator having an inlet for a stream to be separated, a first outlet for separated gas and a second outlet for separated liquid absorbent; - a rising conduit for transporting a contaminated stream to the inlet of the second separator; - a conduit for removing separated gas at the first outlet of the second separator; and - a descending conduit for removing separated liquid absorbent at the second outlet of the second separator;
Strap comprising a strip having two ends (3, 4) each provided with a male part and a female part of a first closure member destined to be inserted into one another in a locking position, in which the removal of the male part of the first closure member from the female part thereof is prevented by first notches (12, 25) able to interlock, for connecting both ends (3, 4) of the strip to one another in order to close the strap, characterized in that it further comprises a second closure member with a male part and a female part destined to be inserted into one another in a locking position, in which the removal of the male part of the second closure member from the female part thereof is prevented by second notches (16, 18) able to interlock, the male part and the female part of the second closure member being respectively disposed at both ends (3, 4) of the strip, and in that the second closure member at least partially surrounds the first closure member.