mhurhangee/ep-ind-claims huggingface dataset:
Disc brake for a commercial vehicle, with a) a brake caliper that spans across a brake disc, b) an applicator device arranged in the brake caliper for pressing brake pads against the brake disc, c) at least two adjusting spindles arranged parallel to and a distance apart from one another, mounted so that they can rotate in corresponding threads in a bridge that can be actuated by means of the applicator device, d) an adjustment device positioned in the brake caliper, with which, by virtue of axial displacement of the adjusting spindles, a wear-related change of an air gap between the brake pad and the brake disc can essentially be compensated, e) a synchronizing device with a traction mechanism drive, with which the two adjusting spindles can be displaced synchronously and which comprises a traction means having two strands and two drive-wheels, which are connected in a rotationally fixed manner to the adjusting spindles and against which the traction means are in interlocking or frictional contact, f) a clamping device in contact with the traction mean, characterised in that combined interlocking and frictional action between the traction means and the clamping device clamps the clamping device between the traction means and the bridge in a self-locking manner. a) a brake caliper that spans across a brake disc, b) an applicator device arranged in the brake caliper for pressing brake pads against the brake disc, c) at least two adjusting spindles arranged parallel to and a distance apart from one another, mounted so that they can rotate in corresponding threads in a bridge that can be actuated by means of the applicator device, d) an adjustment device positioned in the brake caliper, with which, by virtue of axial displacement of the adjusting spindles, a wear-related change of an air gap between the brake pad and the brake disc can essentially be compensated, e) a synchronizing device with a traction mechanism drive, with which the two adjusting spindles can be displaced synchronously and which comprises a traction means having two strands and two drive-wheels, which are connected in a rotationally fixed manner to the adjusting spindles and against which the traction means are in interlocking or frictional contact, f) a clamping device in contact with the traction mean,
EGR system, comprising a duct with an inlet port arranged to be connected to a waste gas system of a combustion engine, and an outlet port, arranged to be connected to an intake system of the combustion engine, which duct includes a first duct section with a first cross-sectional area, which first duct section is connected to the inlet port, a second duct section with a second cross-sectional area, which second duct section is connected to the outlet port and a transitional section arranged between the first and second duct sections (54, 56), characterized in that the transitional section includes a curved wall and in that the connection between the first duct section and the transitional section forms a sharp edge, so that a first virtual wall is formed by EGR gases in the transitional section when the EGR gases flow in the direction from the inlet port to the outlet port and a second virtual wall is formed by a return flow in the first duct section when the return flow flows from the outlet port to the inlet port, which first and second virtual walls (60, 74) are made up of a first and second vortex (62, 76) formed by the EGR gases or, respectively, the return flow, wherein the transitional section has an essentially circular cross-section, and wherein the first and second duct sections (54, 56) have circular cross-sections, and the transitional section's minimum diameter corresponds with the first duct section's diameter and the transitional section's greatest diameter corresponds with the second duct section's diameter.
A door handle assembly for a motor vehicle, comprising: - a frame-like handle support, - a manually actuatable handle which is movably mounted on the handle support for opening a door or hatch of the motor vehicle by a user, - a pivotably mounted coupling device, a movement of the handle being able to be transmitted thereby to a locking arrangement on the vehicle side, and - a locking device having a locking body, said locking device serving as a mass lock and being movably held on the handle support, wherein with the action of an acceleration force acting in a first direction, as a result of a motor vehicle accident, the locking body is designed to move from a resting position in which an actuation of the handle is possible into a blocking direction in which an actuation of the locking arrangement by the handle and/or the coupling device is blocked, and wherein with the action of an acceleration force acting in a second direction opposing the first direction, as a result of a motor vehicle accident, the locking body is designed to move from the resting position into the one blocking direction, characterised in that the locking device comprises a first lever-arm-shaped mass element which is movable from a basic position in a deflection direction, due to the inertia of its mass with the action of an acceleration force acting in the first direction, and a second lever-arm-shaped mass element which is movable from a basic position in the same deflection direction as the first mass element, due to the inertia of its mass with the action of an acceleration force acting in the second direction, and in that the lever-arm-shaped mass elements (15, 16) cooperate with the locking body. - a frame-like handle support, - a manually actuatable handle which is movably mounted on the handle support for opening a door or hatch of the motor vehicle by a user, - a pivotably mounted coupling device, a movement of the handle being able to be transmitted thereby to a locking arrangement on the vehicle side, and - a locking device having a locking body, said locking device serving as a mass lock and being movably held on the handle support,
A method of controlling a communication device (207, 1701) in a cellular communication system, wherein the communication device has radio equipment that operates on no more than a predefined bandwidth of a radio frequency spectrum, the predefined bandwidth being smaller than the full bandwidth of the cellular communication system, the method comprising: operating the radio equipment to perform a cell search procedure in a first region of the radiofrequency spectrum, wherein the first region has a bandwidth that is no greater than the predefined bandwidth; after finding a cell in the cellular communication system, receiving information transmitted in the first region of the radio frequency spectrum, the information informing about the presence and/or time/frequency location of system information, M-SI, in a second region, wherein the second region has a bandwidth that is no greater than the predefined bandwidth; tuning the radio equipment to cause the radio equipment to operate in said second region of the radiofrequency spectrum; while tuned to the second region of the radiofrequency spectrum, operating the radio equipment to receive said system information, M-SI, (1309, 1405) being transmitted by the cellular communication system; and tuning the radio equipment to cause the radio equipment to operate in a third region of the radiofrequency spectrum in accordance with said system information, M-SI, wherein at least one of the second and third regions of the radiofrequency spectrum is different than the first region of the radio frequency spectrum. operating the radio equipment to perform a cell search procedure in a first region of the radiofrequency spectrum, wherein the first region has a bandwidth that is no greater than the predefined bandwidth; after finding a cell in the cellular communication system, receiving information transmitted in the first region of the radio frequency spectrum, the information informing about the presence and/or time/frequency location of system information, M-SI, in a second region, wherein the second region has a bandwidth that is no greater than the predefined bandwidth; tuning the radio equipment to cause the radio equipment to operate in said second region of the radiofrequency spectrum; while tuned to the second region of the radiofrequency spectrum, operating the radio equipment to receive said system information, M-SI, (1309, 1405) being transmitted by the cellular communication system; and tuning the radio equipment to cause the radio equipment to operate in a third region of the radiofrequency spectrum in accordance with said system information, M-SI, wherein at least one of the second and third regions of the radiofrequency spectrum is different than the first region of the radio frequency spectrum.
A method of handling Time-Sensitive Networking, TSN, over a radio access network, RAN, the method comprising the steps of: receiving system information from a radio base station (200; 1400; 1612; 1720) of the RAN, wherein the system information is implicative or indicative of support for TSN through the radio base station (200; 1400; 1612; 1720); and establishing or initiating to establish, depending on the received system information, at least one TSN stream of the TSN through the radio base station (200; 1400; 1612; 1720). receiving system information from a radio base station (200; 1400; 1612; 1720) of the RAN, wherein the system information is implicative or indicative of support for TSN through the radio base station (200; 1400; 1612; 1720); and establishing or initiating to establish, depending on the received system information, at least one TSN stream of the TSN through the radio base station (200; 1400; 1612; 1720).
An accelerometer sensor system comprising: a sensor comprising a proofmass and electrodes and being configured to generate acceleration feedback signals based on control signals applied to the electrodes in response to an input acceleration; an acceleration component configured to measure the input acceleration based on the acceleration feedback signals; and an acceleration controller comprising a signal generator configured to generate the control signals to define a first scale-factor range (SFR 1) associated with the input acceleration of the sensor and to define a second scale-factor range (SFR 2) associated with the input acceleration of the sensor based on the control signals generated by the signal generator, the acceleration controller comprising a calibration component configured to calibrate the accelerometer sensor system with respect to range-dependent bias error (B E), where the calibration of the accelerometer sensor system is based on a difference between the measured input acceleration in each of the first scale-factor range (SFR 1) and the second scale-factor range (SFR 2). a sensor comprising a proofmass and electrodes and being configured to generate acceleration feedback signals based on control signals applied to the electrodes in response to an input acceleration; an acceleration component configured to measure the input acceleration based on the acceleration feedback signals; and an acceleration controller comprising a signal generator configured to generate the control signals to define a first scale-factor range (SFR 1) associated with the input acceleration of the sensor and to define a second scale-factor range (SFR 2) associated with the input acceleration of the sensor based on the control signals generated by the signal generator, the acceleration controller comprising a calibration component configured to calibrate the accelerometer sensor system with respect to range-dependent bias error (B E), where the calibration of the accelerometer sensor system is based on a difference between the measured input acceleration in each of the first scale-factor range (SFR 1) and the second scale-factor range (SFR 2).
A method comprising: receiving information associated with a conveyance of equipment (560; 860) in a borehole (503; 803) via a cable (505; 805), wherein the information includes one or more of a well profile, wellbore fluid dynamics, tool weights, friction and drag coefficients; applying the received information to a tension model to predict cable tension values at the surface and at one or more points along the cable during conveyance of the equipment in the borehole; conveying the equipment (560; 860) in the borehole (503; 803) via the cable (505;805); acquiring a cable tension value via one or more sensors; comparing the acquired cable tension value to at least one of the predicted cable tension values; and based on the comparison, setting a cable tension limit for further conveying of the equipment (560; 860) in the borehole (503; 803) via the cable (505, 805). receiving information associated with a conveyance of equipment (560; 860) in a borehole (503; 803) via a cable (505; 805), wherein the information includes one or more of a well profile, wellbore fluid dynamics, tool weights, friction and drag coefficients; applying the received information to a tension model to predict cable tension values at the surface and at one or more points along the cable during conveyance of the equipment in the borehole; conveying the equipment (560; 860) in the borehole (503; 803) via the cable (505;805); acquiring a cable tension value via one or more sensors; comparing the acquired cable tension value to at least one of the predicted cable tension values; and based on the comparison, setting a cable tension limit for further conveying of the equipment (560; 860) in the borehole (503; 803) via the cable (505, 805).
W/O emulsions comprising (a) at least one silicon emulsifier of the alkyl-dimethicone-copolyol type and (b) 4-hydroxyacetophenone. (a) at least one silicon emulsifier of the alkyl-dimethicone-copolyol type and (b) 4-hydroxyacetophenone.
A method, comprising: creating, at an apparatus, operating parameters for a wireless data channel connection and descriptive information regarding a time interval available to the apparatus for transmission of advertising channel messages and a count of a number of previous transmissions of the advertising channel messages to reduce connection latency in high device population environments; transmitting, by the apparatus, one or more wireless advertising channel messages indicating presence of the wireless data channel connection, the operating parameters associated with the wireless data channel connection, and the descriptive information regarding the time interval available to the apparatus for transmission of advertising channel messages and the count of the number of previous transmissions of the advertising channel messages; and transmitting, by the apparatus, information on the wireless data channel connection according to the operating parameters; wherein the wireless advertising channel messages are transmitted on an advertising channel of a short-range communications network and messages transmitted on the wireless data channel are transmitted on a data channel of the short-range communications network. creating, at an apparatus, operating parameters for a wireless data channel connection and descriptive information regarding a time interval available to the apparatus for transmission of advertising channel messages and a count of a number of previous transmissions of the advertising channel messages to reduce connection latency in high device population environments; transmitting, by the apparatus, one or more wireless advertising channel messages indicating presence of the wireless data channel connection, the operating parameters associated with the wireless data channel connection, and the descriptive information regarding the time interval available to the apparatus for transmission of advertising channel messages and the count of the number of previous transmissions of the advertising channel messages; and transmitting, by the apparatus, information on the wireless data channel connection according to the operating parameters;
An image creating device configured to create an output image based on a plurality of input images (G1, G2) captured by a plurality of cameras (2-1, 2-2), comprising: a coordinates-associating part configured to associate coordinates on each input image plane on which each input image is positioned, coordinates (PP1, PP2) on a space model onto which each input image is projected, coordinates (PT1, PT2) on a re-projection plane onto which an image projected on the space model is re-projected, and coordinates on an output plane on which the output image is positioned; and adjust the output image by individually determining for each input image (G1, G2) a re-projection angle (γ1, γ2; δ1, δ2) formed by a re-projection line (RL1, RL2; RL1a, RL2a) and a re-projection axis, the re-projection line being a straight line joining a first coordinate (PP1, PP2; PP1a, PP2a) on the space model and a second coordinate (PT1, PT2; PT1a, PT2a) on the re-projection plane corresponding to the first coordinate and the re-projection axis being a central axis of the space model.
An apparatus, comprising: a wireless radio frequency module that transmits a wireless signal specified in a wireless standard; a signal detector that detects a reference signal, a forward path signal and a reverse path signal, wherein the reference signal is a modulation signal of transmitted signal; and a reflection coefficient estimator that obtains a reflection coefficient based on at least the forward path signal and the reverse path signal, wherein the reflection coefficient includes a magnitude coefficient and a phase coefficient; wherein the reflection coefficient estimator comprises a phase estimator responsive to the signal detector and estimates a phase shift between the forward path signal and the reverse path signal, characterized in that the phase estimator comprises a first arctan estimator, a second arctan estimator, and a phase-estimator controller, and wherein the first arctan estimator calculates a reference signal phase shift and the second arctan estimator alternatively calculates one of detection path phase shifts that include a forward path phase shift and a reverse path phase shift, and wherein phase-estimator controller executes the logic to generate the reflection coefficient phase shift based on a forward-to-reference phase and a reverse-to-reference phase. a wireless radio frequency module that transmits a wireless signal specified in a wireless standard; a signal detector that detects a reference signal, a forward path signal and a reverse path signal, wherein the reference signal is a modulation signal of transmitted signal; and a reflection coefficient estimator that obtains a reflection coefficient based on at least the forward path signal and the reverse path signal, wherein the reflection coefficient includes a magnitude coefficient and a phase coefficient; wherein the reflection coefficient estimator comprises a phase estimator responsive to the signal detector and estimates a phase shift between the forward path signal and the reverse path signal, characterized in that the phase estimator comprises a first arctan estimator, a second arctan estimator, and a phase-estimator controller, and wherein the first arctan estimator calculates a reference signal phase shift and the second arctan estimator alternatively calculates one of detection path phase shifts that include a forward path phase shift and a reverse path phase shift, and wherein phase-estimator controller executes the logic to generate the reflection coefficient phase shift based on a forward-to-reference phase and a reverse-to-reference phase.
A pharmaceutical composition comprising a gene encoding a light-sensitive channel for use in the treatment of a disease or disorder associated with suppressed, slow, irregular or unsynchronized cardiac activity in a human patient upon exposure of said composition to light after said composition is introduced by direct injection into a plurality of sites of contractile tissue in the heart of said patient.
An information processing apparatus, comprising: a receiving unit that receives a file containing encrypted data comprising a plurality of pieces of pattern data encrypted with a unique key for each piece of pattern data, wherein each of the pieces of pattern data has an identical size, second datawhich is not encrypted with any one of the unique keys, the second data comprising first encoded image data and dummy data, the dummy data having the same size as each piece of pattern data,and management information for accessing the encrypted data; a decryption unit that reads the encrypted data encrypted with a predetermined key associated with the information processing apparatus from the file on the basis of position information and size information received by the receiving unit, and decrypts the read encrypted data with the predetermined key to generate first pattern data; an insertion unit operable to generate second encoded image data by replacing the dummy data with the first pattern data in the second data; and a decoding unit operable to decode the second encoded image data and to output image data corresponding to the second encoded data. a receiving unit that receives a file containing encrypted data comprising a plurality of pieces of pattern data encrypted with a unique key for each piece of pattern data, wherein each of the pieces of pattern data has an identical size, second datawhich is not encrypted with any one of the unique keys, the second data comprising first encoded image data and dummy data, the dummy data having the same size as each piece of pattern data,and management information for accessing the encrypted data; encrypted data comprising a plurality of pieces of pattern data encrypted with a unique key for each piece of pattern data, wherein each of the pieces of pattern data has an identical size, second datawhich is not encrypted with any one of the unique keys, the second data comprising first encoded image data and dummy data, the dummy data having the same size as each piece of pattern data,and management information for accessing the encrypted data; a decryption unit that reads the encrypted data encrypted with a predetermined key associated with the information processing apparatus from the file on the basis of position information and size information received by the receiving unit, and decrypts the read encrypted data with the predetermined key to generate first pattern data; an insertion unit operable to generate second encoded image data by replacing the dummy data with the first pattern data in the second data; and a decoding unit operable to decode the second encoded image data and to output image data corresponding to the second encoded data.