mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: towing a first geophysical source through a body of water, and adjusting a first steering parameter of the first geophysical source while towing the first geophysical source, wherein the first steering parameter includes at least one of a roll angle of the first geophysical source, a pitch angle of the first geophysical source, a yaw angle of the first geophysical source, a surface shape of a vibrational surface of the first geophysical source, a rotation between the vibrational surface and a front wing of the first geophysical source, a rotation between the vibrational surface and a stability feature of the first geophysical source, and a buoyancy of the first geophysical source; characterised in that: the method further comprises rotating a first vibrational surface of the first geophysical source through a first pitch angle relative to a first housing structure of the first geophysical source, wherein the first vibrational surface is functionally coupled to the first housing structure such that at least a portion of the first vibrational surface can vibrate relative to the first housing structure. towing a first geophysical source through a body of water, and adjusting a first steering parameter of the first geophysical source while towing the first geophysical source, wherein the first steering parameter includes at least one of a roll angle of the first geophysical source, a pitch angle of the first geophysical source, a yaw angle of the first geophysical source, a surface shape of a vibrational surface of the first geophysical source, a rotation between the vibrational surface and a front wing of the first geophysical source, a rotation between the vibrational surface and a stability feature of the first geophysical source, and a buoyancy of the first geophysical source; characterised in that: the method further comprises rotating a first vibrational surface of the first geophysical source through a first pitch angle relative to a first housing structure of the first geophysical source, wherein the first vibrational surface is functionally coupled to the first housing structure such that at least a portion of the first vibrational surface can vibrate relative to the first housing structure.
Transmitter of an RFID communication system to transmit an amplitude modulated transmitter data signal in resonance in an RF-Field over the air and to receive a modulated receiver data signal, which transmitter comprises: a transmitter stage to generate the amplitude modulated transmitter data signal with a particular frequency and waveform based on a carrier signal generated by a carrier signal stage; an antenna connected to the transmitter stage via a matching circuit to transmit the amplitude modulated transmitter data signal in resonance in the RF-Field over the air; a receiver stage connected via the matching circuit to the antenna to receive the modulated receiver data signal; wherein the transmitter furthermore comprises: a wave shape measurement stage to measure the shape of the received modulated receiver data signal with equivalent time sampling, wherein the receiver stage comprises a mixer to mix the received modulated receiver data signal with the carrier signal of the carrier signal stage and wherein the wave shape measurement stage comprises a delay stage to delay the carrier signal used in the transmitter stage or the carrier signal used for the mixer in the receiver stage by a delay period provided by a control logic to the delay stage. a transmitter stage to generate the amplitude modulated transmitter data signal with a particular frequency and waveform based on a carrier signal generated by a carrier signal stage; an antenna connected to the transmitter stage via a matching circuit to transmit the amplitude modulated transmitter data signal in resonance in the RF-Field over the air; a receiver stage connected via the matching circuit to the antenna to receive the modulated receiver data signal; wherein the transmitter furthermore comprises: a wave shape measurement stage to measure the shape of the received modulated receiver data signal with equivalent time sampling, wherein the receiver stage comprises a mixer to mix the received modulated receiver data signal with the carrier signal of the carrier signal stage and wherein the wave shape measurement stage comprises a delay stage to delay the carrier signal used in the transmitter stage or the carrier signal used for the mixer in the receiver stage by a delay period provided by a control logic to the delay stage.
Ice axe comprising a shaft, a pick arranged at an upper end of the shaft and a hand support which is attached to the shaft and has a support projection for supporting a hand of a user, the pick and the support projection protruding from the shaft in substantially the same direction, in the forward direction, the hand support comprising a clamping means, by means of which the hand support can be clamped to the shaft, and the clamping means having an operating lever in order to operate the clamping means so as to establish and release the clamping connection, characterised in that at least part of the support projection protruding from the shaft in the forward direction is formed from the operating lever, and in that the operating lever is designed to support the hand of the user in the backward direction of the shaft.
Process for treating bulk material comprising - feeding bulk material by an inlet feeding device (131,401) into a steam filled circulation conduit of a pneumatic steam dryer operating above atmospheric pressure - heating said steam by heating means, - drying said bulk material in a drying conduit by heat transfer from said steam thereby forming surplus steam, - separating said bulk material from said steam by a first separating means, - pneumatically conveying said bulk material suspended in said steam through said drying conduit from said inlet feeding device (131,401) to said first separating means, - releasing surplus steam from said circulation conduit, - discharging said bulk material by an outlet feeding device from said pneumatic steam dryer thereby generating flash and leakage steam, wherein said process is characterized in utilizing said flash and leakage steam in a bulk material handling system (200, 200', 200") connected to said pneumatic steam dyer. - feeding bulk material by an inlet feeding device (131,401) into a steam filled circulation conduit of a pneumatic steam dryer operating above atmospheric pressure - heating said steam by heating means, - drying said bulk material in a drying conduit by heat transfer from said steam thereby forming surplus steam, - separating said bulk material from said steam by a first separating means, - pneumatically conveying said bulk material suspended in said steam through said drying conduit from said inlet feeding device (131,401) to said first separating means, - releasing surplus steam from said circulation conduit, - discharging said bulk material by an outlet feeding device from said pneumatic steam dryer thereby generating flash and leakage steam,
An apparatus for delivering kV X-rays toward a target lesion within a body, the apparatus comprising: a treatment anode; an electron beam source to generate an electron beam towards the treatment anode to generate kV X-rays; imaging anodes; at least one magnet configured to steer and scan the electron beam along the treatment anode; characterised by further comprising: a collimator to block out kV X-rays from the treatment anode that are not directed to a convergence point centered at the target lesion; and a gantry configured to mount and rotate the electron beam source, the at least one magnet, the treatment anode, the imaging anodes, and the collimator about an axis that includes the target lesion. a treatment anode; an electron beam source to generate an electron beam towards the treatment anode to generate kV X-rays; imaging anodes; at least one magnet configured to steer and scan the electron beam along the treatment anode; a collimator to block out kV X-rays from the treatment anode that are not directed to a convergence point centered at the target lesion; and a gantry configured to mount and rotate the electron beam source, the at least one magnet, the treatment anode, the imaging anodes, and the collimator about an axis that includes the target lesion.
A compound having a formula: where R 1 is selected from the group consisting of alkyl, -CH 2 (OC 2 H 4)OCH 3, and -(OC 2 H 4)OCH 3; n is 0-4; Olig is an oligomer having a formula: where: L is a linker moiety selected from the group consisting of -CH 2 O-, -CH 2 OX-, -C -, -C X-, -XNHC -, -NHC X-, -C NHX-, and where: X is alkyl 1-6, Y is N or O, and R 3 is alkyl 1-6; PAG is a linear or branched PEG 2-50; R 2 is an alkyl 1-22 capping moiety; and q is a number from 1 to the maximum number of branches on PAG; and m is 1-5. R 1 is selected from the group consisting of alkyl, -CH 2 (OC 2 H 4)OCH 3, and -(OC 2 H 4)OCH 3; n is 0-4; Olig is an oligomer having a formula: where: L is a linker moiety selected from the group consisting of -CH 2 O-, -CH 2 OX-, -C -, -C X-, -XNHC -, -NHC X-, -C NHX-, and where: X is alkyl 1-6, Y is N or O, and R 3 is alkyl 1-6; PAG is a linear or branched PEG 2-50; R 2 is an alkyl 1-22 capping moiety; and q is a number from 1 to the maximum number of branches on PAG; and m is 1-5. L is a linker moiety selected from the group consisting of -CH 2 O-, -CH 2 OX-, -C -, -C X-, -XNHC -, -NHC X-, -C NHX-, and where: X is alkyl 1-6, Y is N or O, and R 3 is alkyl 1-6; X is alkyl 1-6, Y is N or O, and R 3 is alkyl 1-6; PAG is a linear or branched PEG 2-50; R 2 is an alkyl 1-22 capping moiety; and q is a number from 1 to the maximum number of branches on PAG; and m is 1-5.
An electronic wind instrument comprising: at least one sensor, and a processor configured to perform a lip position determining process for determining a lip position of a player based on at least one output value from the at least one sensor; a tonguing performance detecting process for detecting a tonguing performance played by the player based on the output value from the sensor; and a tone muting process for muting a tone generated by the player's performance in accordance with the lip position determined in the lip position determining process, while the tonguing performance is being detected in the tonguing performance detecting process. at least one sensor, and a processor configured to perform a lip position determining process for determining a lip position of a player based on at least one output value from the at least one sensor; a tonguing performance detecting process for detecting a tonguing performance played by the player based on the output value from the sensor; and a tone muting process for muting a tone generated by the player's performance in accordance with the lip position determined in the lip position determining process, while the tonguing performance is being detected in the tonguing performance detecting process.
A method for wireless communication at a user equipment, UE (115, 210, 405), comprising: transmitting (415; 1305; 1405), to a network access node (105, 205, 410) during a connection establishment procedure, a UE (115, 210, 405) message indicating support for a plurality of connected modes, wherein the plurality of connected modes comprises a first connected mode that is free of acknowledgement feedback messaging; receiving (420; 1310; 1410), based at least in part on the UE (115, 210, 405) message, a configuration message from the network access node (105, 205, 410) configuring resources for the UE (115, 210, 405) to use while operating in the first connected mode, wherein the configuration message is based on determining that the UE (115, 210, 405) has an amount of data below a threshold; and performing (425; 1315; 1415) a grantless communication with the network access node (105, 205, 410) while operating in the first connected mode and using the configured resources, the grantless communication comprising the small data transmission. transmitting (415; 1305; 1405), to a network access node (105, 205, 410) during a connection establishment procedure, a UE (115, 210, 405) message indicating support for a plurality of connected modes, wherein the plurality of connected modes comprises a first connected mode that is free of acknowledgement feedback messaging; receiving (420; 1310; 1410), based at least in part on the UE (115, 210, 405) message, a configuration message from the network access node (105, 205, 410) configuring resources for the UE (115, 210, 405) to use while operating in the first connected mode, wherein the configuration message is based on determining that the UE (115, 210, 405) has an amount of data below a threshold; and performing (425; 1315; 1415) a grantless communication with the network access node (105, 205, 410) while operating in the first connected mode and using the configured resources, the grantless communication comprising the small data transmission.
A method of determining the position of a mobile unit within a detection zone comprising: emitting an acoustic signal from the mobile unit; receiving said acoustic signal along a first path from the mobile unit; receiving an echo of said acoustic signal after reflection from a surface within said detection zone; determining the time of arrival at a first transducer of the acoustic signal along said first path; determining the time of arrival of the echo at a second transducer; and determining the position of the mobile unit within the detection zone from said times of arrival, characterised in that the first transducer is optimised for the reception of the first-path signal, and the second transducer is optimised for the reception of the echo. emitting an acoustic signal from the mobile unit; receiving said acoustic signal along a first path from the mobile unit; receiving an echo of said acoustic signal after reflection from a surface within said detection zone; determining the time of arrival at a first transducer of the acoustic signal along said first path; determining the time of arrival of the echo at a second transducer; and determining the position of the mobile unit within the detection zone from said times of arrival,
A method for the cleaning of components carrying exhaust gas, such as contaminated filters and catalysts, in particular of motor vehicle filters and motor vehicle catalysts, wherein during a cleaning process a change in quality of a component which is to be cleaned, such as a filter or catalyst, in particular a degree of purification, is measured by a diagnostic device, characterized in that a change in quality of the component triggers a change in a cleaning strategy, wherein a changeover from a mechanical to a thermal cleaning device, or vice versa, takes place.
Vacuum cleaner, comprising a housing which extends between a first housing side and a second housing side in a first extension axis, a suction unit for producing a suction stream, which is arranged in the housing, a separator device which is arranged in the housing, and a tube device which is arranged on or in the housing and extends in a second extension axis at least approximately parallel to the first extension axis, wherein a nozzle connection for a suction nozzle is arranged on the tube device, and the nozzle connection is located closer to the first housing side than to the second housing side, characterized in that the tube device is configured to be longitudinally adjustable along the second extension axis, and a distance of the nozzle connection from the first housing side is fixably adjustable.
An electrical harness including at least one upstream connector arranged to be electrically connected to a computer, at least one downstream connector arranged to be connected to a complementary connector of an electromechanical actuator, and at least one electric wire electrically connecting together the upstream connector and the downstream connector, the electric wire being arranged so that primary digital control signals (Snf) produced or transferred by the computer travel over the electric wire via the upstream connector, the electrical harness also including at least one electronic unit integrated in the electrical harness, the electronic unit being arranged to transform the primary digital control signals into analog control signals (Sam) and to transmit the analog control signals to the electromechanical actuator via the downstream connector.
A high molecular weight compound comprising a repeating unit including a substituted triarylamine structural unit represented by the following general formula; wherein AR 1, AR 2, and L each independently represent a divalent aromatic hydrocarbon group or a divalent aromatic heterocyclic group, n is an integer of 1 to 3, An and Ar 2 each independently represent an aryl group or a heteroaryl group, and R 1, R 2, and R 3 each independently represent a hydrogen atom, a heavy hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, a nitro group, an alkyl group having 1 to 6 carbon atoms, an alkyloxy group having 1 to 6 carbon atoms, a cycloalkyl group having 5 to 10 carbon atoms, a cycloalkyloxy group having 5 to 10 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, an aryloxy group, or a heteroaryl group; and having a weight average molecular weight on a polystyrene basis measured using GPC of 10,000 or more and less than 1,000,000. wherein AR 1, AR 2, and L each independently represent a divalent aromatic hydrocarbon group or a divalent aromatic heterocyclic group, n is an integer of 1 to 3, An and Ar 2 each independently represent an aryl group or a heteroaryl group, and R 1, R 2, and R 3 each independently represent a hydrogen atom, a heavy hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, a nitro group, an alkyl group having 1 to 6 carbon atoms, an alkyloxy group having 1 to 6 carbon atoms, a cycloalkyl group having 5 to 10 carbon atoms, a cycloalkyloxy group having 5 to 10 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, an aryloxy group, or a heteroaryl group; and having a weight average molecular weight on a polystyrene basis measured using GPC of 10,000 or more and less than 1,000,000.
A ski pole comprising a tip, having a joint, adapted to be inserted in a snowpack, a tube in plastic material associated with one of its end zones to said joint to delimit a ski trail, a casing associated with said joint for the protection of at least one metal portion and said end zone of said tube and connection means between said joint and said end zone of said tube, wherein said connection means comprises at least one removable connection device between said tube and said joint for the manual disassembly and assembly of said tube from said joint when said tip is inserted in said snowpack, characterised in that said removable connection device comprising elastic means in opposition and through the action of the elastic means said tube engages with said joint.
A process for manufacturing an adhesive, comprising i) at least one degraded polypropylene (co)polymer and ii) at least one additional additive, by means of extrusion, comprising the following steps: a) feeding a polypropylene (co)polymer in a first extrusion section (2, 102) and subsequent thermomechanical degradation of the polypropylene (co)polymer in the presence of at least one radical donor in the first extrusion section (2, 102) by shear stress for manufacturing a degraded polypropylene (co)polymer, wherein the temperature of the first extrusion section (2,102) at least in one zone is above the softening point of the polypropylene (co)polymer; b) transferring the degraded polypropylene (co)polymer from the first extrusion section (2, 102) into a second extrusion section (3, 103), wherein the content of radical donor in the degraded polypropylene (co)polymer on entry into the second extrusion section (3,103) is less than 0.01 wt.% based on the total amount of said degraded polypropylene (co)polymer; c) feeding at least one additive in the second extrusion section (3, 103) and subsequent blending with the degraded polypropylene (co)polymer under shear stress for manufacturing the adhesive; wherein the melt viscosity determined at 200°C of the degraded polypropylene (co)polymer on entry into the second extrusion section (3,103) is less than 70% of the melt viscosity determined at 200°C of the polypropylene (co)polymer and the highest temperature in the second extrusion section (3, 103) is less than the highest temperature of the first extrusion section (2,102) and the first extrusion section (2, 102) and the second extrusion section (3, 103) are connected in such a manner that the degraded polypropylene (co)polymer is transferred in the molten state from the first extrusion section (2, 102) into the second extrusion section (3, 103). i) at least one degraded polypropylene (co)polymer and ii) at least one additional additive, a) feeding a polypropylene (co)polymer in a first extrusion section (2, 102) and subsequent thermomechanical degradation of the polypropylene (co)polymer in the presence of at least one radical donor in the first extrusion section (2, 102) by shear stress for manufacturing a degraded polypropylene (co)polymer, wherein the temperature of the first extrusion section (2,102) at least in one zone is above the softening point of the polypropylene (co)polymer; b) transferring the degraded polypropylene (co)polymer from the first extrusion section (2, 102) into a second extrusion section (3, 103), wherein the content of radical donor in the degraded polypropylene (co)polymer on entry into the second extrusion section (3,103) is less than 0.01 wt.% based on the total amount of said degraded polypropylene (co)polymer; c) feeding at least one additive in the second extrusion section (3, 103) and subsequent blending with the degraded polypropylene (co)polymer under shear stress for manufacturing the adhesive;