mhurhangee/ep-ind-claims huggingface dataset:
System for the plugged connection of tubes, comprising an inner sleeve and an outer sleeve, a tube to be connected resting on the inner sleeve and a clamping part being arranged between the inner sleeve and the outer sleeve, the sleeves (3, 4) and the clamping part having an axial length in the plug-in direction, the outer sleeve having, on the plug-in side, a first circumferential seal for interacting with an outer surface of the inserted tube and, after the first seal, a second circumferential seal for interacting with the inner sleeve, an axial spacing (a) between the first and the second seal (41, 42) being greater than the axial length of the clamping part and the clamping part being receivable between the seals (41, 42), characterised in that the inner sleeve has one or more seals (9, 12), which are arranged behind one another in the axial direction of the inner sleeve, for sealing interaction between the inner sleeve and an inner surface of the tube to be plugged in, and in that the space between the outer sleeve and the tube to be plugged in is sealed.
Method for controlling the movement of a mast of a drilling machine, in particular for obtaining piles; said method comprising the following operations: - delivering a moving power to at least one linear actuator (1, 7) arranged to move a mast mounted so as to swing with respect to a self-propelled structure among a plurality of moving operating configurations; and - delivering an actuating power to a winch which is supported by said self-propelled structure and adapted to allow the winding or unwinding of a respective traction element which is constrained to a drilling assembly, in particular a bank of telescopic or kelly bars to which a drilling tool can be associated; said method being characterised in that it further comprises the following operations: - at least temporarily preventing and at least in a sense along the longitudinal axis of the mast a relative axial movement between said drilling assembly and said mast during the passage between at least two consecutive operating configurations; and - automatically controlling the delivery of said moving power in a coordinated manner with the delivery of said actuating power when said axial movement is hindered. - delivering a moving power to at least one linear actuator (1, 7) arranged to move a mast mounted so as to swing with respect to a self-propelled structure among a plurality of moving operating configurations; and - delivering an actuating power to a winch which is supported by said self-propelled structure and adapted to allow the winding or unwinding of a respective traction element which is constrained to a drilling assembly, in particular a bank of telescopic or kelly bars to which a drilling tool can be associated; - at least temporarily preventing and at least in a sense along the longitudinal axis of the mast a relative axial movement between said drilling assembly and said mast during the passage between at least two consecutive operating configurations; and - automatically controlling the delivery of said moving power in a coordinated manner with the delivery of said actuating power when said axial movement is hindered.
A water-redispersible polymer powder, wherein the polymer is at least one esterified cellulose ether comprising (i) groups of the formula -C - R - COOA or (ii) a combination of aliphatic monovalent acyl groups and groups of the formula -C - R - COOA, wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, and the polymer powder comprises from 0.05 to 20 percent of at least one salt of a fatty acid, based on the weight of the esterified cellulose ether(s).
An injection molding apparatus comprising an injection molding machine that injects a flow of injection fluid to a heated manifold that distributes the injection fluid to a flow channel that delivers the injection fluid to a gate (32, 34, 36) of a mold cavity, the injection molding apparatus comprising: an actuator (940, 941, 942) comprised of a rotor (940r, 941r, 942r) having a drive axis and a driver (940dr, 941dr, 942dr) interconnected to the rotor (940r, 941r, 942r) adapted to controllably drive the rotor rotatably around the drive axis Y, the driver (940dr, 941dr, 942dr) receiving electrical energy or power from an electrical drive (940d, 941d, 942d), the electrical drive (940d, 941d, 942d) comprising an interface that receives and controllably distributes electrical energy or power in controllably varied amounts during the course of an injection cycle to the driver (940dr, 941dr, 942dr), the actuator including a housing (940h, 941h, 942h) that houses the rotor (940r, 941r, 942r) and the driver (940dr, 941dr, 942dr), the electrical drive (940d, 941d, 942d) being housed within or by the housing (940h, 941h, 942h) or mounted on or to the housing (940h, 941h, 942h) in thermally conductive communication or contact therewith, wherein the housing (940h, 941h, 942h) is mounted in proximity or disposition relative to the heated manifold such that one or the other or both of the housing (940h, 941h, 942h) and the electrical drive (940d, 941d, 942d) is or are in substantia heat communication or contact with the heated manifold. an actuator (940, 941, 942) comprised of a rotor (940r, 941r, 942r) having a drive axis and a driver (940dr, 941dr, 942dr) interconnected to the rotor (940r, 941r, 942r) adapted to controllably drive the rotor rotatably around the drive axis Y, the driver (940dr, 941dr, 942dr) receiving electrical energy or power from an electrical drive (940d, 941d, 942d), the electrical drive (940d, 941d, 942d) comprising an interface that receives and controllably distributes electrical energy or power in controllably varied amounts during the course of an injection cycle to the driver (940dr, 941dr, 942dr), the actuator including a housing (940h, 941h, 942h) that houses the rotor (940r, 941r, 942r) and the driver (940dr, 941dr, 942dr), the electrical drive (940d, 941d, 942d) being housed within or by the housing (940h, 941h, 942h) or mounted on or to the housing (940h, 941h, 942h) in thermally conductive communication or contact therewith, wherein the housing (940h, 941h, 942h) is mounted in proximity or disposition relative to the heated manifold such that one or the other or both of the housing (940h, 941h, 942h) and the electrical drive (940d, 941d, 942d) is or are in substantia heat communication or contact with the heated manifold.
A composition comprising: an impact modifier; and a compatibilized blend of a poly(arylene ether) and an aliphatic-aromatic polyamide wherein the aliphatic-aromatic polyamide is composed of dicarboxylic acid units comprising 60 to 100 mol % of terephthalic acid units and diamine units comprising 60 to 100 mol % of 1,9-nonanediamine units and/or 2-methyl-1,8-octanediamine units and the aliphatic-aromatic polyamide has an amine end group content greater than 45 micromoles per gram of polyamide, wherein the compatibilized blend of poly(arylene ether) and an aliphatic-aromatic polyamide is the reaction product of a poly(arylene ether), an aliphatic-aromatic polyamide, and a compatibilizing agent selected from polyfunctional compounds having both a carbon-carbon double bond and at least one carboxylic acid, anhydride, epoxy, imide, amide, ester group or functional equivalent thereof; polyfunctional compounds having both a group represented by the formula wherein R is hydrogen or an alkyl, aryl, acyl or carbonyl dioxy group and at least two groups each of which may be the same or different selected from carboxylic acid, acid halide, anhydride, acid halide anhydride, ester, orthoester, amide, imido, amino, and salts thereof; and combinations of two or more of the foregoing polyfunctional compounds. an impact modifier; and a compatibilized blend of a poly(arylene ether) and an aliphatic-aromatic polyamide wherein the aliphatic-aromatic polyamide is composed of dicarboxylic acid units comprising 60 to 100 mol % of terephthalic acid units and diamine units comprising 60 to 100 mol % of 1,9-nonanediamine units and/or 2-methyl-1,8-octanediamine units and the aliphatic-aromatic polyamide has an amine end group content greater than 45 micromoles per gram of polyamide, wherein the compatibilized blend of poly(arylene ether) and an aliphatic-aromatic polyamide is the reaction product of a poly(arylene ether), an aliphatic-aromatic polyamide, and a compatibilizing agent selected from polyfunctional compounds having both a carbon-carbon double bond and at least one carboxylic acid, anhydride, epoxy, imide, amide, ester group or functional equivalent thereof; polyfunctional compounds having both a group represented by the formula wherein R is hydrogen or an alkyl, aryl, acyl or carbonyl dioxy group and at least two groups each of which may be the same or different selected from carboxylic acid, acid halide, anhydride, acid halide anhydride, ester, orthoester, amide, imido, amino, and salts thereof; and combinations of two or more of the foregoing polyfunctional compounds.
A method performed in a scheduler for scheduling data transmission in a wireless communication system, wherein the wireless communication system comprises a plurality of base stations, each base station comprising one or more radio units communicating with a plurality of wireless communication devices, wherein the scheduler is comprised in a base station of the plurality of base stations, and wherein the base station comprises a radio unit, the method comprising: buffering data packets in a buffer; monitoring the status of the buffer; when the buffer contains a data packet which is associated with a priority level higher than a priority level of a predefined priority threshold, PT, selecting a modulation and coding scheme, MCS, for the buffered data packets; and sending the buffered data packets with the selected MCS to the radio unit for transmission. buffering data packets in a buffer; monitoring the status of the buffer; when the buffer contains a data packet which is associated with a priority level higher than a priority level of a predefined priority threshold, PT, selecting a modulation and coding scheme, MCS, for the buffered data packets; and sending the buffered data packets with the selected MCS to the radio unit for transmission.
A method for generating a security element with hidden encoded information in an imageable graphic image, the security element being a physical entity of a security document or a physical object for the security document, comprising the steps of: providing a graphical two-dimensional image; providing first information to be encoded; performing wavelet decomposition transforms to successively decompose the image into sub-images (2- 15, 21-25, 41-44) corresponding to frequency bands, the sub-images being derived from the transform coefficients; changing individual transform coefficients of a selected one of the sub-images to insert the first information to be encoded into the selected sub-image; performing wavelet reverse transformations to obtain a coded image corresponding to the provided graphical image in which the first information is covertly stored, forming an imageable representation of the coded image, wherein in successively performing the wavelet decomposition transformations necessary to generate the one sub-image (2- 15, 21-25, 41-44) in which the first information is inserted in addition to wavelet decomposition transformations with a first wavelet (a), at least one wavelet decomposition transformation is carried out with a second wavelet (b) different from the first wavelet, characterized in that second information is encoded via the selection of the selected sub-image for insertion of the first information from the group of sub-images (2- 15, 21-25) which can be generated or are generated via the successive wavelet decomposition transformations. providing a graphical two-dimensional image; providing first information to be encoded; performing wavelet decomposition transforms to successively decompose the image into sub-images (2- 15, 21-25, 41-44) corresponding to frequency bands, the sub-images being derived from the transform coefficients; changing individual transform coefficients of a selected one of the sub-images to insert the first information to be encoded into the selected sub-image; performing wavelet reverse transformations to obtain a coded image corresponding to the provided graphical image in which the first information is covertly stored, forming an imageable representation of the coded image, wherein in successively performing the wavelet decomposition transformations necessary to generate the one sub-image (2- 15, 21-25, 41-44) in which the first information is inserted in addition to wavelet decomposition transformations with a first wavelet (a), at least one wavelet decomposition transformation is carried out with a second wavelet (b) different from the first wavelet, characterized in that second information is encoded via the selection of the selected sub-image for insertion of the first information from the group of sub-images (2- 15, 21-25) which can be generated or are generated via the successive wavelet decomposition transformations.
A medical imaging system, comprising: guiding means mounted along a patient couch, for guiding a carriage along the longitudinal direction of the patient couch; an imaging ring system comprising a carriage ring fixed to the carriage, the carriage ring being positioned around the longitudinal axis of the patient couch, a first rotatable ring carrying a radiation source, and a second rotatable ring carrying a radiation detector, wherein the first and second rotatable rings are configured to be rotated independently from each other on the carriage ring so that the radiation source and the radiation detector can be freely and independently positioned around the patient couch. guiding means mounted along a patient couch, for guiding a carriage along the longitudinal direction of the patient couch; an imaging ring system comprising a carriage ring fixed to the carriage, the carriage ring being positioned around the longitudinal axis of the patient couch, a first rotatable ring carrying a radiation source, and a second rotatable ring carrying a radiation detector, a carriage ring fixed to the carriage, the carriage ring being positioned around the longitudinal axis of the patient couch, a first rotatable ring carrying a radiation source, and a second rotatable ring carrying a radiation detector, wherein the first and second rotatable rings are configured to be rotated independently from each other on the carriage ring so that the radiation source and the radiation detector can be freely and independently positioned around the patient couch.
A data processing method for determining the position of a target, comprising the steps performed by a computer: a) acquiring a target movement model specifying a movement cycle of the target; b) acquiring a target position signal representing a view of the target from a single direction and provided by a single imager, wherein the acquired target position signal is a signal of the single imager of a stereoscopic X-ray imaging apparatus comprising another imager being obstructed or not used; c) determining, based on the acquired target position signal and the target movement model, the position of the target, wherein the determination in step c) includes the determination of the position of the target based on an area or plane, which is prior determined from the target movement model using both imagers (1, 2) and within which the position of the target can be, and the target back projection from the imaging plane of the single imager for acquiring the target position signal. a) acquiring a target movement model specifying a movement cycle of the target; b) acquiring a target position signal representing a view of the target from a single direction and provided by a single imager, wherein the acquired target position signal is a signal of the single imager of a stereoscopic X-ray imaging apparatus comprising another imager being obstructed or not used; c) determining, based on the acquired target position signal and the target movement model, the position of the target, wherein the determination in step c) includes the determination of the position of the target based on an area or plane, which is prior determined from the target movement model using both imagers (1, 2) and within which the position of the target can be, and the target back projection from the imaging plane of the single imager for acquiring the target position signal.
A continuously variable valve lift system, comprising a driving swing arm, a camshaft and a valve structure, the valve structure comprising a roller rocker arm and a valve connected to the roller rocker arm, the driving swing arm having a driving surface, the driving surface contacting with the roller rocker arm to drive the valve to perform a reciprocating movement, wherein the continuously variable valve lift system further comprises a middle shaft, an adjusting member and an adjusting swing arm, the driving swing arm, the adjusting member and the adjusting swing arm are sleeved on the middle shaft and are respectively capable of swinging around the middle shaft, the driving swing arm is provided with a first connecting part, the adjusting member is provided with a second connecting part, the adjusting swing arm is provided with a third connecting part, the first connecting part, the second connecting part and the third connecting part are arranged sequentially along a circumferential direction of the middle shaft, the second connecting part is located between the first connecting part and the third connecting part, two sides of the second connecting part abut against the first connecting part and the third connecting part, respectively, the second connecting part abuts against the third connecting part to form a spiral surface therebetween, the adjusting member is further capable of sliding along an axial direction of the middle shaft, the camshaft contacts with the adjusting swing arm, the driving swing arm is provided with two first circular rings, the first connecting part is connected between the two first circular rings, the driving swing arm is sleeved on the middle shaft by the two first circular rings, each first circular ring is connected with a driving surface, the valve structure has two in quantity, each driving surface and each valve structure are disposed correspondingly to constitute a valve adjusting system.
A control device for an internal combustion engine, - that is configured to control a control object device based on an output value of a relative angle sensor configured to detect a relative angle of an output shaft of an actuator, and an output value of an absolute angle sensor configured to detect an absolute angle of a drive shaft coupled to the output shaft of the actuator via a speed reducer, - wherein the control device is characterized by correcting an output value of the absolute angle sensor based on an absolute angle of the drive shaft that is obtained from an output value of the relative angle sensor using, as a reference point, an output value of the absolute angle sensor at start-up of the internal combustion engine, and an output value of the absolute angle sensor. - that is configured to control a control object device based on an output value of a relative angle sensor configured to detect a relative angle of an output shaft of an actuator, and an output value of an absolute angle sensor configured to detect an absolute angle of a drive shaft coupled to the output shaft of the actuator via a speed reducer, - wherein the control device is characterized by correcting an output value of the absolute angle sensor based on an absolute angle of the drive shaft that is obtained from an output value of the relative angle sensor using, as a reference point, an output value of the absolute angle sensor at start-up of the internal combustion engine, and an output value of the absolute angle sensor.
A method for simultaneously coordinating a wake control system and a noise control system of a wind farm having a plurality of wind turbines, the method comprising: determining, via a farm controller, one or more wake control set points for the wake control system; determining, via the farm controller, one or more noise control set points for the noise control system; selecting, via the farm controller, between the wake control set points and the noise control set points for each of the plurality of wind turbines; sending, via the farm controller, the selected control set points to local controllers of the plurality of wind turbines; and operating the wind farm based on the selected control set points, wherein the wake control set points, the noise control set points, and the selected control set points comprise at least one of a tip speed ratio, a pitch angle, a yaw angle, a rotor speed, an electrical power, or a generator speed. determining, via a farm controller, one or more wake control set points for the wake control system; determining, via the farm controller, one or more noise control set points for the noise control system; selecting, via the farm controller, between the wake control set points and the noise control set points for each of the plurality of wind turbines; sending, via the farm controller, the selected control set points to local controllers of the plurality of wind turbines; and operating the wind farm based on the selected control set points, wherein the wake control set points, the noise control set points, and the selected control set points comprise at least one of a tip speed ratio, a pitch angle, a yaw angle, a rotor speed, an electrical power, or a generator speed.
A reactor device (100,200) to be mounted in a vehicle, comprising: a reactor body formed by joining a plurality of cores; a case that contains the reactor body; and an engaging member that engages both ends of the reactor body with the case so as to allow a movement of the reactor body in a horizontal direction with respect to the case in a state in which the reactor is mounted in the vehicle, and allows the reactor body to float within the case, rather than fixing the reactor body to the case by fastening, wherein the engaging member comprises a leaf spring (50,52) having one end integrated with the reactor body and the other end placed on an upper surface of the case, the other end being not fixed to the case by fastening. a reactor body formed by joining a plurality of cores; a case that contains the reactor body; and an engaging member that engages both ends of the reactor body with the case so as to allow a movement of the reactor body in a horizontal direction with respect to the case in a state in which the reactor is mounted in the vehicle, and allows the reactor body to float within the case, rather than fixing the reactor body to the case by fastening, wherein the engaging member comprises a leaf spring (50,52) having one end integrated with the reactor body and the other end placed on an upper surface of the case, the other end being not fixed to the case by fastening.