mhurhangee/ep-ind-claims huggingface dataset:
A transition enforcing coding receiver (400, 1000, 1500, 1600, 1700), hereinafter TEC receiver, comprising: a first delay line circuit (402, 1502), arranged to delay a plurality of vector signals (s -s[m-1]) to generate a plurality of delayed vector signals (s _D-s[m-1]_D), respectively; and a transition detection circuit (404, 1504), arranged to detect a transition of at least one specific delayed vector signal among the delayed vector signals (s _D-s[m-1]_D); characterized by: a data sampling circuit (406, 1006, 1508), arranged to sample the vector signals (s -s[m-1]) according to a sampling timing determined based on an output of the transition detection circuit (404, 1504). a first delay line circuit (402, 1502), arranged to delay a plurality of vector signals (s -s[m-1]) to generate a plurality of delayed vector signals (s _D-s[m-1]_D), respectively; and a transition detection circuit (404, 1504), arranged to detect a transition of at least one specific delayed vector signal among the delayed vector signals (s _D-s[m-1]_D); characterized by: a data sampling circuit (406, 1006, 1508), arranged to sample the vector signals (s -s[m-1]) according to a sampling timing determined based on an output of the transition detection circuit (404, 1504).
An ultrasonic cleaning system for hollow bodies, featuring a container with a transmission medium, an ultrasonic generator, and a vibrating plate that can be excited by means of the ultrasonic generator, characterised in that at least one transmission element connected to the vibrating plate can be set in vibration by the excitation of the vibrating plate, and where the transmission element is detachably connected, in particular screw-mounted.
Method of sequestration of carbon dioxide characterized in that it comprises: - a step of production of at least one macrophyte plant species floating on an expanse of fresh water in order to form a raft of plant biomass; - a step of transportation of said raft of plant biomass from said expanse of fresh water to a sea; - a step of dispersal and decomposition of said raft of plant biomass on an expanse of said sea; at least one of said step of production, said step of transportation and said step of dispersal and decomposition being carried out with human assistance, in that it comprises a preliminary step of sampling and of chemical analysis of the surface water of said expanse of sea, and in it that it comprises a step of simulation of the dispersal of said raft of biomass which is carried out before the step of dispersal and decomposition of said raft of plant biomass. - a step of production of at least one macrophyte plant species floating on an expanse of fresh water in order to form a raft of plant biomass; - a step of transportation of said raft of plant biomass from said expanse of fresh water to a sea; - a step of dispersal and decomposition of said raft of plant biomass on an expanse of said sea;
A device for testing a shaft and/or a mechanical part mounted on the shaft, the device comprising an immobilizing device to immobilize a first portion of the shaft, the immobilized and idle shaft extending along a first axis, and a movement device for moving a second portion of the shaft substantially perpendicular to the first axis, so as to load the shaft in bending, characterized in that the moving device comprises a first cylinder arranged along a first cylinder axis substantially perpendicular to the first axis, the first connection being a ball joint or an annular linear connection, the center of rotation of which is located on the first axis; an annular linear connection, the center of translation of which is the first axis and the center of rotation of which is located on the first axis; a pivot link, the axis of rotation of which is the first axis or a sliding pivot link, the axis of rotation and translation of which is the first axis, a second cylinder arranged along a second cylinder axis substantially perpendicular to the first axis, and a connecting device for connecting the first cylinder and the second cylinder to the shaft, wherein the connecting device is configured to form, between the shaft and one end of the first cylinder, a first connection prohibiting a relative translation perpendicular to the first axis and allowing a relative rotation around the first axis, and to form, between the shaft and one end of the second cylinder or between the end of the first cylinder connected to the shaft and one end of the second cylinder, a second connection prohibiting a relative translation perpendicular to the first axis and allowing a relative rotation around a second axis parallel to the first axis.
Method for controlling sensor elements of a LIDAR measuring system, - wherein sensor elements of a macrocell for different measuring ranges are subdivided into sensor groups, so that a sensor group is assigned to a measuring range - wherein a sensor element is activated and deactivated during a measuring cycle, - wherein a measuring process comprises several measuring cycles, characterized in that - in a first measuring cycle, the sensor element is activated at a first point in time t d within the first measuring cycle, and in a second measuring cycle, the same sensor element is activated at a second point in time t e within the second measuring cycle, - wherein the first point in time t d and the second point in time t e refer to a reference point in time, - wherein the reference point in time is the respective point in time at which a light pulse is emitted by means of an emitter element assigned to the sensor element, - wherein the first point in time t d and the second point in time t e are different, - wherein a measuring cycle comprises at least the duration of time that it takes for the light pulse to travel to an object at the maximum measuring distance and back, - wherein during a transition from a first measuring range to a second measuring range, the sensor group assigned to the first measuring range is deactivated and the sensor group assigned to the second measuring range is activated. - wherein sensor elements of a macrocell for different measuring ranges are subdivided into sensor groups, so that a sensor group is assigned to a measuring range - wherein a sensor element is activated and deactivated during a measuring cycle, - wherein a measuring process comprises several measuring cycles, - in a first measuring cycle, the sensor element is activated at a first point in time t d within the first measuring cycle, and in a second measuring cycle, the same sensor element is activated at a second point in time t e within the second measuring cycle, - wherein the first point in time t d and the second point in time t e refer to a reference point in time, - wherein the reference point in time is the respective point in time at which a light pulse is emitted by means of an emitter element assigned to the sensor element, - wherein the first point in time t d and the second point in time t e are different, - wherein a measuring cycle comprises at least the duration of time that it takes for the light pulse to travel to an object at the maximum measuring distance and back, - wherein during a transition from a first measuring range to a second measuring range, the sensor group assigned to the first measuring range is deactivated and the sensor group assigned to the second measuring range is activated.
A method of communication between at least one base station (1.1, 1.2) of a mobile-radio network, preferably of the LTE or 5G type, and at least one terminal located in a confined space, said method comprising: a) receiving by at least one television aerial (2, 8) external to said confined space, in a UHF frequency band, in particular between 450 MHz and 960 MHz, a plurality of radiofrequency signals comprising, on the one hand, at least one mobile-radio signal emitted by said at least one base station (1.1, 1.2) of the mobile-radio network, preferably in accordance with the LTE or 5G standard, said plurality of radiofrequency signals comprising on the other hand at least one television signal; b) transmitting said plurality of radiofrequency signals (S12, S82), via a wired communication link, between said at least one external television aerial (2, 8) and a processing module (6; 6'; 6"; 61; 62; 63) of said radiofrequency signals located within said confined space; c) extracting said at least one mobile-radio signal by said processing module; d) broadcasting said at least one mobile-radio signal extracted by said processing module within the confined space; and e) receiving by the terminal said broadcast signal, said method being characterised in that the processing module comprises: - a radio frequency router; - at least one wireless access point connected to said router; and - a mobile radio modem adapted to communicate on the one hand with the mobile radio network and on the other hand with the router and said at least one wireless access point, said mobile radio modem being designed to receive at least one physical SIM card or a virtual SIM card known as an e-SIM that can be remotely reprogrammed. a) receiving by at least one television aerial (2, 8) external to said confined space, in a UHF frequency band, in particular between 450 MHz and 960 MHz, a plurality of radiofrequency signals comprising, on the one hand, at least one mobile-radio signal emitted by said at least one base station (1.1, 1.2) of the mobile-radio network, preferably in accordance with the LTE or 5G standard, said plurality of radiofrequency signals comprising on the other hand at least one television signal; b) transmitting said plurality of radiofrequency signals (S12, S82), via a wired communication link, between said at least one external television aerial (2, 8) and a processing module (6; 6'; 6"; 61; 62; 63) of said radiofrequency signals located within said confined space; c) extracting said at least one mobile-radio signal by said processing module; d) broadcasting said at least one mobile-radio signal extracted by said processing module within the confined space; and e) receiving by the terminal said broadcast signal, - a radio frequency router; - at least one wireless access point connected to said router; and - a mobile radio modem adapted to communicate on the one hand with the mobile radio network and on the other hand with the router and said at least one wireless access point, said mobile radio modem being designed to receive at least one physical SIM card or a virtual SIM card known as an e-SIM that can be remotely reprogrammed.
A terminal configured to perform vehicle-to-everything communication, the terminal comprising: a transceiver configured to transmit and receive one or more wireless signals; and a processor configured to: control the transceiver to measure reference signal received powers, RSRPs, or signal-to-interference & noise ratios, SINRs, of each one of a group of k physical sidelink feedback channels, PSFCHs, from among a plurality of PSFCHs received during one time transmission interval, TTI, wherein k is an integer greater than 1, sort the k PSFCHs, based on the RSRPs or the SINRs, in ascending order, control the transceiver to perform a sequential determination of whether the sorted k PSFCHs are a hybrid automatic repeat request, HARQ, acknowledgement, ACK, or a HARQ negative-acknowledgement, NACK, in the ascending order, and determine whether a physical sidelink shared channel, PSSCH, is to be retransmitted, based on the sequential determination. a transceiver configured to transmit and receive one or more wireless signals; and a processor configured to: control the transceiver to measure reference signal received powers, RSRPs, or signal-to-interference & noise ratios, SINRs, of each one of a group of k physical sidelink feedback channels, PSFCHs, from among a plurality of PSFCHs received during one time transmission interval, TTI, wherein k is an integer greater than 1, sort the k PSFCHs, based on the RSRPs or the SINRs, in ascending order, control the transceiver to perform a sequential determination of whether the sorted k PSFCHs are a hybrid automatic repeat request, HARQ, acknowledgement, ACK, or a HARQ negative-acknowledgement, NACK, in the ascending order, and determine whether a physical sidelink shared channel, PSSCH, is to be retransmitted, based on the sequential determination. control the transceiver to measure reference signal received powers, RSRPs, or signal-to-interference & noise ratios, SINRs, of each one of a group of k physical sidelink feedback channels, PSFCHs, from among a plurality of PSFCHs received during one time transmission interval, TTI, wherein k is an integer greater than 1, sort the k PSFCHs, based on the RSRPs or the SINRs, in ascending order, control the transceiver to perform a sequential determination of whether the sorted k PSFCHs are a hybrid automatic repeat request, HARQ, acknowledgement, ACK, or a HARQ negative-acknowledgement, NACK, in the ascending order, and determine whether a physical sidelink shared channel, PSSCH, is to be retransmitted, based on the sequential determination.
A method (300, 400) of preventing leakage of an inner bag chamber seal of a vacuum bag during curing of a composite layup, comprising: applying (306, 406) an inner bag vacuum pressure to an inner bag chamber and an outer vacuum pressure to an outer vacuum chamber, the inner bag chamber being formed by a vacuum bag covering the composite layup and sealed to a forming tool, the inner bag vacuum pressure being no less than the outer vacuum pressure; increasing (308, 408) a temperature of a composite layup to an elevated temperature to initiate a temperature hold period; venting (312, 412) the outer vacuum chamber to atmosphere to initiate an outer vacuum chamber venting period during the temperature hold period; applying (314, 414) compaction pressure to the inner bag chamber seal during the outer vacuum chamber venting period; and re-applying (316, 416) the outer vacuum pressure to the outer vacuum chamber to terminate the outer vacuum chamber venting period. applying (306, 406) an inner bag vacuum pressure to an inner bag chamber and an outer vacuum pressure to an outer vacuum chamber, the inner bag chamber being formed by a vacuum bag covering the composite layup and sealed to a forming tool, the inner bag vacuum pressure being no less than the outer vacuum pressure; increasing (308, 408) a temperature of a composite layup to an elevated temperature to initiate a temperature hold period; venting (312, 412) the outer vacuum chamber to atmosphere to initiate an outer vacuum chamber venting period during the temperature hold period; applying (314, 414) compaction pressure to the inner bag chamber seal during the outer vacuum chamber venting period; and re-applying (316, 416) the outer vacuum pressure to the outer vacuum chamber to terminate the outer vacuum chamber venting period.
A skin test diagnostic reagent in the form of a sterile injectable preparation, comprising: a. the CFP-10 epitope polypeptides consisting of amino acid sequences SEQ ID NOs:1-10; b. the ESAT-6 epitope polypeptides consisting of amino acid sequences SEQ ID NOs:11-21; and c. the Rv3615c epitope polypeptides consisting of amino acid sequences SEQ ID NOs:23-34. a. the CFP-10 epitope polypeptides consisting of amino acid sequences SEQ ID NOs:1-10; b. the ESAT-6 epitope polypeptides consisting of amino acid sequences SEQ ID NOs:11-21; and c. the Rv3615c epitope polypeptides consisting of amino acid sequences SEQ ID NOs:23-34.
A wellhead Christmas tree assembly comprising a wellhead Christmas tree displaying a pipe outlet, and a valve device comprising a first valve comprising a through-going main channel which extends through the first valve and which, upon activation of the first valve is closed and/or opened for through-flow, which first valve comprises at least one flange portion (2, 3) securing the first valve to the wellhead Christmas tree such that the main channel of the first valve is aligned with the pipe outlet of the Christmas tree, and also comprising a second valve mounted inside the pipe outlet, which second valve is a barrier valve which moves to a fail safe closed position if the control fluid fails, characterised in that the at least one flange portion comprises at least one bore (6a, 6b) extending from an outside of the flange portion to the main channel for operation of the second valve.
An optimization program for optimizing work of mounting electronic components being characterized by: the optimization program being for a mounting work system provided with multiple mounting work machines lined up in row, wherein multiple-board printed panels are conveyed in the mounting work system from an upstream side of the multiple mounting work machines to a downstream side, and the multiple-board printed panel being defined as a panel with multiple boards on one circuit substrate, in which multiple electronic circuit board patterns, on which multiple of the electronic components are to be mounted, are provided, the optimization program comprising: a setting means that sets a mounting work procedure of mounting the multiple electronic components to each of the electronic circuit board patterns for each of the multiple mounting work machines such that mounting work of the multiple electronic components onto each of the multiple electronic circuit board patterns is performed by all of the multiple mounting work machines. the optimization program being for a mounting work system provided with multiple mounting work machines lined up in row, wherein multiple-board printed panels are conveyed in the mounting work system from an upstream side of the multiple mounting work machines to a downstream side, and the multiple-board printed panel being defined as a panel with multiple boards on one circuit substrate, in which multiple electronic circuit board patterns, on which multiple of the electronic components are to be mounted, are provided, the optimization program comprising: a setting means that sets a mounting work procedure of mounting the multiple electronic components to each of the electronic circuit board patterns for each of the multiple mounting work machines such that mounting work of the multiple electronic components onto each of the multiple electronic circuit board patterns is performed by all of the multiple mounting work machines. a setting means that sets a mounting work procedure of mounting the multiple electronic components to each of the electronic circuit board patterns for each of the multiple mounting work machines such that mounting work of the multiple electronic components onto each of the multiple electronic circuit board patterns is performed by all of the multiple mounting work machines.
Optical coherent receiver, comprising: an equalization unit (13, 103, 203, 403), adapted to perform at least one kind of optical distortion compensation of a received signal in frequency domain; a frequency offset compensation unit, adapted to perform the frequency offset compensation in frequency domain on a received signal according to an estimated value of the frequency offset to obtain the signal with frequency offset compensated; a Fourier Transform, FT, unit (101, 201, 401), adapted to carry out Fourier Transform, FT, on the signal to obtain a first spectrum of the signal; as frequency offset compensation unit a frequency shift unit (102, 202, 402), adapted to shift the first spectrum of the signal by the estimated value of the frequency offset to obtain a second spectrum of the signal in the frequency domain; an Inverse Fourier Transform, IFT, unit (104, 204, 404), adapted to carry out an Inverse Fourier Transform, IFT, on the signal with the second spectrum; characterized in that the equalization unit (13, 103, 203, 403) is adapted to perform optical distortion compensation on the signal with the second spectrum before sending the signal to the IFT unit. an equalization unit (13, 103, 203, 403), adapted to perform at least one kind of optical distortion compensation of a received signal in frequency domain; a frequency offset compensation unit, adapted to perform the frequency offset compensation in frequency domain on a received signal according to an estimated value of the frequency offset to obtain the signal with frequency offset compensated; a Fourier Transform, FT, unit (101, 201, 401), adapted to carry out Fourier Transform, FT, on the signal to obtain a first spectrum of the signal; as frequency offset compensation unit a frequency shift unit (102, 202, 402), adapted to shift the first spectrum of the signal by the estimated value of the frequency offset to obtain a second spectrum of the signal in the frequency domain; an Inverse Fourier Transform, IFT, unit (104, 204, 404), adapted to carry out an Inverse Fourier Transform, IFT, on the signal with the second spectrum; characterized in that the equalization unit (13, 103, 203, 403) is adapted to perform optical distortion compensation on the signal with the second spectrum before sending the signal to the IFT unit.
A method for producing a multi-channel audio signal from one or more sound object signals, comprising: For each sound object signal: Producing a plurality of de-correlated width signals from the sound object signal by duplicating a part of the sound object signal; Processing the plurality of width signals to produce a plurality of pan signals, each pan signal being mapped to at least one channel; For each channel in the audio signal, combining the pan signals from each sound object for that channel; characterised in that for each sound object signal, the plurality of de-correlated width signals is produced by applying gains to each of the duplicated signals, wherein the applied gains follow a Gaussian distribution. For each sound object signal: Producing a plurality of de-correlated width signals from the sound object signal by duplicating a part of the sound object signal; Processing the plurality of width signals to produce a plurality of pan signals, each pan signal being mapped to at least one channel; For each channel in the audio signal, combining the pan signals from each sound object for that channel;
A support for an object, comprising an internally threaded base device adapted to be attached to a surface, an externally threaded top disc adapted to be threaded to the base device, and a magnet adapted to be attached to the object to be supported, the top disc having the shape of an externally threaded cylinder, characterised by the externally threaded cylinder having an end surface comprising a magnetically conductive material and the opposite end being open.