mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by an apparatus comprising a processing unit, a kinematic sensor and at least two object receivers (6, 7), for determining the position and attitude of a moving object, the method comprising: - performing code and phase measurements on satellite signals of a global satellite navigation system at a single carrier frequency by means of the at least two object receivers (6, 7) associated with the moving object, - determining, by means of the processing unit, the current position of the moving object based on the code and phase measurements using satellite-satellite single differences of the code and phase measurements and using an estimation of at least one absolute phase ambiguity, characterized in tha the method further comprises: - retrieving, by the processing unit, satellite biases of satellite-satellite single differences of the phase from a network of static network receivers (15 - 17), - performing Doppler measurements on the satellite signal by at least one of the object receivers (6, 7), - using the kinematic sensor associated with the moving object for generating kinematic measurements on the motion of the moving object, - correcting, by the processing unit, for satellite biases the satellite-satellite single differences of the phase measurements, and - within the processing unit, synchronising and using the satellite-satellite single differences of the code measurements, the satellite-satellite single differences of the corrected phase measurement, satellite-satellite differences of the Doppler measurements and the kinematic measurements as an input for a recursive state estimator, that estimates the position and attitude of the moving object. - performing code and phase measurements on satellite signals of a global satellite navigation system at a single carrier frequency by means of the at least two object receivers (6, 7) associated with the moving object, - determining, by means of the processing unit, the current position of the moving object based on the code and phase measurements using satellite-satellite single differences of the code and phase measurements and using an estimation of at least one absolute phase ambiguity, - retrieving, by the processing unit, satellite biases of satellite-satellite single differences of the phase from a network of static network receivers (15 - 17), - performing Doppler measurements on the satellite signal by at least one of the object receivers (6, 7), - using the kinematic sensor associated with the moving object for generating kinematic measurements on the motion of the moving object, - correcting, by the processing unit, for satellite biases the satellite-satellite single differences of the phase measurements, and - within the processing unit, synchronising and using the satellite-satellite single differences of the code measurements, the satellite-satellite single differences of the corrected phase measurement, satellite-satellite differences of the Doppler measurements and the kinematic measurements as an input for a recursive state estimator, that estimates the position and attitude of the moving object.
Method of operating an optical transmission system (100a, 100b, 100c), wherein at least one optical data signal is transmitted over an optical transmission link, which particularly comprises at least one optical fiber, said method further comprising: modulating said data signal with a test signal (s) having a predetermined modulation frequency f mod to obtain a modulated data signal (Pin), receiving a reflected portion (Pback) of said modulated data signal (Pin), and determining a fiber quality measure (a) depending on said received reflected portion (Pback) of said modulated signal (Pin), wherein, for said step of determining said fiber quality measure (a), a frequency component (Pback,mod) of said received reflected portion (Pback) of said modulated signal (Pin) is determined which corresponds to said predetermined modulation frequency f mod, particularly a scattering term H ( f mod) derived from said frequency component (Pback_mod), wherein - scattering terms H ( f mod) are determined for M many different modulation frequencies f mod ( m), m = 1,..., M, wherein each scattering term H ( f mod) characterizes an amplitude and phase of said reflected portion (Pback) at a specific modulation frequency f mod, characterized in that - each scattering term H ( f mod) associated with a specific modulation frequency f mod is multiplied with a phase term (pt(m)) denoting a phase shift which depends on said modulation frequency f mod and a specific position x0 on said optical transmission link, whereby for each modulation frequency f mod a phase-shifted scattering term Hp ( f mod) is obtained, - a sum (sHP) of all M many phase-shifted scattering terms Hp ( f mod) is determined, and in that the value for said quality measure (a) at said specific position is determined depending on said sum (sHP), preferably by dividing said sum (sHP) by said number M of different modulation frequencies f mod. - scattering terms H ( f mod) are determined for M many different modulation frequencies f mod ( m), m = 1,..., M, wherein each scattering term H ( f mod) characterizes an amplitude and phase of said reflected portion (Pback) at a specific modulation frequency f mod, characterized in that - each scattering term H ( f mod) associated with a specific modulation frequency f mod is multiplied with a phase term (pt(m)) denoting a phase shift which depends on said modulation frequency f mod and a specific position x0 on said optical transmission link, whereby for each modulation frequency f mod a phase-shifted scattering term Hp ( f mod) is obtained, - a sum (sHP) of all M many phase-shifted scattering terms Hp ( f mod) is determined, and in that
A thermoformed, tamper-resistant pharmaceutical dosage form comprising a) a pharmacologically active ingredient; b) a polyalkylene oxide having a weight average molecular weight of more than 200,000 g/mol; and c) a zinc component, wherein the content of said zinc component is at least 1 parts per million by weight, relative to the total weight of the pharmaceutical dosage form; which has a breaking strength of at least 300 N, measured in accordance with the Eur. Ph. 6.0, 2.09.08. a) a pharmacologically active ingredient; b) a polyalkylene oxide having a weight average molecular weight of more than 200,000 g/mol; and c) a zinc component, wherein the content of said zinc component is at least 1 parts per million by weight, relative to the total weight of the pharmaceutical dosage form;
An audio or visual system comprising: a musical instrument, having a pickup mounted thereon or embedded therewithin, the pickup configured to receive vibrational signals generated by the instrument and translate the vibrational signals into electrical signals that are indicative of the vibrational signals; an encoder mounted on or embedded within the musical instrument and coupled to the pickup to encode the electrical signals received from the pickup into music control message data; a first wireless transceiver, or transmitter, positioned on the musical instrument and in bi-directional communication with a second transceiver at a standalone device, wherein the first transceiver is coupled to the encoder to wirelessly transmit the music control message data to the second wireless transceiver, and wherein the second wireless transceiver is to transmit MIDI parameters to the first transceiver; and a processor, coupled to the second wireless transceiver, to produce media signals based on the music control message data. a musical instrument, having a pickup mounted thereon or embedded therewithin, the pickup configured to receive vibrational signals generated by the instrument and translate the vibrational signals into electrical signals that are indicative of the vibrational signals; an encoder mounted on or embedded within the musical instrument and coupled to the pickup to encode the electrical signals received from the pickup into music control message data; a first wireless transceiver, or transmitter, positioned on the musical instrument and in bi-directional communication with a second transceiver at a standalone device, wherein the first transceiver is coupled to the encoder to wirelessly transmit the music control message data to the second wireless transceiver, and wherein the second wireless transceiver is to transmit MIDI parameters to the first transceiver; and a processor, coupled to the second wireless transceiver, to produce media signals based on the music control message data.
Filter manipulator for extraction of a used filter and for insertion of a new filter in a hearing aid, whereby the manipulator comprises a gripping part to be gripped and held by a user and has a first tool part extending from the gripping part for initially holding a new filter and subsequently releasing the filter in the sound outlet tube, vent opening or sound canal, wherein a second tool part is arranged adjacent to the first tool part and adapted to receive and hold a used filter in order to extract the filter from the vent or sound outlet opening of a hearing aid characterized in that an edge part of the gripping part has the two tool parts (6,7) arranged side by side to extend from this one and same edge part of the gripping part.
Sensor arrangement for determining at least one parameter of a fluid medium flowing in a main flow direction, in particular an intake air mass of an internal combustion engine flowing through an intake pipe, the sensor arrangement having at least one sensor arranged in the fluid medium for determining the parameter of the fluid medium, the sensor arrangement also comprising at least one grid arranged transversely with respect to the main flow direction and having at least one strut, characterized in that the strut has at least one shear element arranged on at least one surface (140, 142) over which the fluid medium flows, wherein the strut has a narrowed extension downstream of the shear element, and wherein the shear element is configured to produce a region with turbulent flow in the flow downstream of the shear element.
A detection element of a gas circuit of a manufacturing device for the additive manufacturing of a three-dimensional component from a powder, having a suction channel section which has a strip-shaped inlet channel with a suction opening, the suction opening extending along a longitudinal axis, a main part portion having a cylinder-like cavity with a rounded wall, the cavity extending along the suction channel section and the cavity being fluidly connected with the inlet channel such that there is a step in the rounded wall which causes a jump in diameter from a first diameter of the cavity to a second diameter which is larger than the first diameter, and a first gas-discharging section, which has a diameter adaptation section and a tubular section, the diameter adaptation section fluidly connecting a first end of the cavity in the direction of the longitudinal axis to the inner volume of the tubular section via a channel, and wherein in a transition area between cavity and channel - in the region of the diameter jump on the first diameter side, an inner wall surface of the main part portion transitions into an inner wall surface of the diameter adaptation section, and - in the region of the diameter jump on the second diameter side, the inner wall surface of the main part portion transitions into the inner wall surface of the diameter adaptation section via an intermediate surface. a suction channel section which has a strip-shaped inlet channel with a suction opening, the suction opening extending along a longitudinal axis, a main part portion having a cylinder-like cavity with a rounded wall, the cavity extending along the suction channel section and the cavity being fluidly connected with the inlet channel such that there is a step in the rounded wall which causes a jump in diameter from a first diameter of the cavity to a second diameter which is larger than the first diameter, and a first gas-discharging section, which has a diameter adaptation section and a tubular section, the diameter adaptation section fluidly connecting a first end of the cavity in the direction of the longitudinal axis to the inner volume of the tubular section via a channel, and wherein in a transition area between cavity and channel - in the region of the diameter jump on the first diameter side, an inner wall surface of the main part portion transitions into an inner wall surface of the diameter adaptation section, and - in the region of the diameter jump on the second diameter side, the inner wall surface of the main part portion transitions into the inner wall surface of the diameter adaptation section via an intermediate surface. - in the region of the diameter jump on the first diameter side, an inner wall surface of the main part portion transitions into an inner wall surface of the diameter adaptation section, and - in the region of the diameter jump on the second diameter side, the inner wall surface of the main part portion transitions into the inner wall surface of the diameter adaptation section via an intermediate surface.
An apparatus comprising: a transmission line resonator; and a plurality of resonators (404a-d) coupled to the transmission line resonator, wherein each of the plurality of resonators is coupled to the transmission line resonator at a different respective coupling position; wherein each coupling position is at a respective position X along a length of the transmission line resonator, and a respective position Y along a length of the respective resonator; wherein for each resonator of the plurality of resonators, the locations of a short circuit end and an open circuit end of the respective resonator are inverted relative to the positions of a short circuit end and an open circuit end, respectively, of the transmission line resonator wherein for a resonator coupled at respective position X, the respective position Y is selected such that, upon application of a source potential to the respective one of the plurality of resonators, a standing wave established in the respective one of the plurality of resonators is impedance and phase matched to a standing wave established in the transmission line resonator. a transmission line resonator; and a plurality of resonators (404a-d) coupled to the transmission line resonator, wherein each of the plurality of resonators is coupled to the transmission line resonator at a different respective coupling position; wherein each coupling position is at a respective position X along a length of the transmission line resonator, and a respective position Y along a length of the respective resonator; wherein for each resonator of the plurality of resonators, the locations of a short circuit end and an open circuit end of the respective resonator are inverted relative to the positions of a short circuit end and an open circuit end, respectively, of the transmission line resonator wherein for a resonator coupled at respective position X, the respective position Y is selected such that, upon application of a source potential to the respective one of the plurality of resonators, a standing wave established in the respective one of the plurality of resonators is impedance and phase matched to a standing wave established in the transmission line resonator.
Tending module for a series of electrolytic cells intended for the production of aluminium by fused bath electrolysis including a frame that can be fixed to a trolley and a turret fitted on the frame so as to pivot about a vertical axis A during use, defining an substantially horizontal plane during use, called the "turret plane", and equipped with: - a set of tools including particularly a crust breaker fitted on a telescopic arm, a bucket shovel fitted on a telescopic arm, at least one first anode clamp fitted on a telescopic arm and a hopper fitted with a retractable duct; - a balcony or a cab comprising controls that are designed to manoeuvre the module and the said tools and a control station from which an operator can actuate the said controls, and characterised in that, taking as a reference a first plane P1 and a second plane P2 perpendicular to each other and to the turret plane Pt and intersecting on the A axis: - the centre C of the control station is located at a determined distance C1 from plane P1 and a determined distance C2 from plane P2; - the centre of the bucket shovel and the centre of the first anode clamp are located on the opposite side of the plane P1 from the control station; - the crust breaker and the retractable duct are located between the control station and the row formed by the bucket shovel and the first anode clamp. - a set of tools including particularly a crust breaker fitted on a telescopic arm, a bucket shovel fitted on a telescopic arm, at least one first anode clamp fitted on a telescopic arm and a hopper fitted with a retractable duct; - a balcony or a cab comprising controls that are designed to manoeuvre the module and the said tools and a control station from which an operator can actuate the said controls, and characterised in that, taking as a reference a first plane P1 and a second plane P2 perpendicular to each other and to the turret plane Pt and intersecting on the A axis: - the centre C of the control station is located at a determined distance C1 from plane P1 and a determined distance C2 from plane P2; - the centre of the bucket shovel and the centre of the first anode clamp are located on the opposite side of the plane P1 from the control station; - the crust breaker and the retractable duct are located between the control station and the row formed by the bucket shovel and the first anode clamp.
Process for removing chromium compounds from aqueous phases, comprising the steps of: a) adding activated carbon to a Cr -containing aqueous phase and adjusting the pH to a value of 1.8 to 3, b) reducing Cr to Cr with at least one reducing agent different from activated carbon, c) increasing the pH, while mixing, to a value of 7.0 to 9.0 in order to precipitate the Cr to form a Cr precipitate-activated carbon mixture, d) separating the Cr precipitate-activated carbon mixture from the liquid phase. a) adding activated carbon to a Cr -containing aqueous phase and adjusting the pH to a value of 1.8 to 3, b) reducing Cr to Cr with at least one reducing agent different from activated carbon, c) increasing the pH, while mixing, to a value of 7.0 to 9.0 in order to precipitate the Cr to form a Cr precipitate-activated carbon mixture, d) separating the Cr precipitate-activated carbon mixture from the liquid phase.
A door closer system, comprising: a motor, a spring, a reduction gear set, and a rack and a pinion; said spring is mechanically coupled to said rack; said pinion is coupled to said rack and coupled to said reduction gear set; said motor is mechanically coupled to said reduction gear set; wherein said pinion is rotatable in a first direction about a rotational axis of said pinion to translate said rack and compress said spring and rotation of said pinion in said first direction is impeded by said motor through said reduction gear set; wherein said spring is expandable to act upon said rack and rotate said pinion in a second direction about said rotational axis that is opposite said first direction with rotation of said pinion in said second direction impeded by said motor through said reduction gear set; wherein said motor is configured to generate electricity while impeding rotation of said pinion; and wherein said motor is operable with said electricity to rotate said gear set to rotate said pinion in said second direction. a motor, a spring, a reduction gear set, and a rack and a pinion; said spring is mechanically coupled to said rack; said pinion is coupled to said rack and coupled to said reduction gear set; said motor is mechanically coupled to said reduction gear set; wherein said pinion is rotatable in a first direction about a rotational axis of said pinion to translate said rack and compress said spring and rotation of said pinion in said first direction is impeded by said motor through said reduction gear set; wherein said spring is expandable to act upon said rack and rotate said pinion in a second direction about said rotational axis that is opposite said first direction with rotation of said pinion in said second direction impeded by said motor through said reduction gear set; wherein said motor is configured to generate electricity while impeding rotation of said pinion; and wherein said motor is operable with said electricity to rotate said gear set to rotate said pinion in said second direction.
Connecting element for fuel injection systems for connecting a fuel injection valve to a fuel-conducting component, wherein a main body having a receiving chamber is provided, into which receiving chamber a fuel connector of the, fuel injection valve is at least partially insertable, wherein at least one cutout (17 - 20) is formed in a wall, which surrounds the receiving chamber, of the main body, and wherein a fastening element is provided which, in order to fasten the fuel connector to the main body, can be inserted at least partially through the cutout (17 - 20) into the receiving chamber, characterized in that at least one elastic bearing element (27 - 30; 27') is provided, and in that the fastening element inserted partially through the cutout (17 - 20) into the receiving chamber is supported on the wall of the main body by way of the elastic bearing element (27 - 30; 27').
A method for manufacturing a rubber composite comprising the steps of: performing surface roughening on a fluororesin film by applying an ion beam from an anode layer ion source to a surface of said fluororesin film by adjusting a setting voltage of 1.6 to 5.0 kV in the anode layer ion source insofar as the average energy of the ions of the ion beam is 0.8 to 2.5 keV or a setting voltage of 2.4 to 3.6 kV in the anode layer ion source insofar as the average energy of the ions of the ion beam is 1.2 to 1.8 keV; and placing a rubber over said surface of said fluororesin film and bonding them together by means of vulcanization molding. performing surface roughening on a fluororesin film by applying an ion beam from an anode layer ion source to a surface of said fluororesin film by adjusting a setting voltage of 1.6 to 5.0 kV in the anode layer ion source insofar as the average energy of the ions of the ion beam is 0.8 to 2.5 keV or a setting voltage of 2.4 to 3.6 kV in the anode layer ion source insofar as the average energy of the ions of the ion beam is 1.2 to 1.8 keV; and placing a rubber over said surface of said fluororesin film and bonding them together by means of vulcanization molding.