mhurhangee/ep-ind-claims huggingface dataset:
A processor implemented method to identify noisy regions in a skin conductance signal, comprising: dividing the signal into a plurality of windows; computing two or more features of the signal within a first window, characterised in that: at least one of the two or more features being in a frequency domain whereas the two or more features of the signal comprise at least two of a normalized range, a normalized maximum or minimum, a number of mean crossings, an amount of low frequency energy, or an amount of high frequency energy; the method being further characterised in comprising: combining at least two of the two of more features of the signal within the first window to obtain at least a first metric; comparing the first metric to a corresponding threshold; and identifying the first window as a noisy region of the skin conductance signal based at least in part on the comparison. dividing the signal into a plurality of windows; computing two or more features of the signal within a first window, characterised in that: at least one of the two or more features being in a frequency domain whereas the two or more features of the signal comprise at least two of a normalized range, a normalized maximum or minimum, a number of mean crossings, an amount of low frequency energy, or an amount of high frequency energy; at least one of the two or more features being in a frequency domain whereas the two or more features of the signal comprise at least two of a normalized range, a normalized maximum or minimum, a number of mean crossings, an amount of low frequency energy, or an amount of high frequency energy; combining at least two of the two of more features of the signal within the first window to obtain at least a first metric; comparing the first metric to a corresponding threshold; and identifying the first window as a noisy region of the skin conductance signal based at least in part on the comparison.
Method of secure distributed storage, on N servers (SRV 1,... SRV i,... SRV N), of confidential data, the method comprising: /a/ an obtaining (SENSE), by an electronic circuit for obtaining (BIO_SENSOR) of a recording device (ENR_STAT), of a piece of confidential data (FGPRN k), /b/ an obtaining (EXTR), by an electronic circuit for extracting (EXTR_C) from the recording device (ENR_STAT), of an approximated short representation (S_FGPRN k) of the piece of confidential data (FGPRN k) from said piece of confidential data (FGPRN k), /c/ an obtaining, by a secret sharing electronic circuit (SHR_C) from the recording device (ENR_STAT), of N parts (FGPRN 1,k, FGPRN 2,k,... FGPRN i,k,... FGPRN N,k) of the piece of confidential data (FGPRN k) with a threshold t such that at least t parts are necessary to reconstitute the piece of confidential data (FGPRN k), and of N short parts (S_FGPRN 1,k, S_FGPRN 2,k,... S_FGPRN i,k,... S_FGPRN N,k) of the approximated short representation (S_FGPRN k) with a threshold t such that at least t short parts are necessary to reconstitute the approximated short representation (S_FGPRN k), /d/ a transmitting, by a transmitter (XMIT) from the recording device (ENR_STAT), of each one (FGPRN i,k) of these N parts (FGPRN i,k, FGPRN 2,k,... FGPRN i,k,... FGPRN N,k) and of each one (S_FGPRN i,k) of these N short parts (S_FGPRN 1,k, S_FGPRN 2,k,... S FGPRN i,k,... S_FGPRN N,k) to a respective server (SRV i) among the N servers (SRV 1,... SRV i,... SRV N), in order to store them therein. /a/ an obtaining (SENSE), by an electronic circuit for obtaining (BIO_SENSOR) of a recording device (ENR_STAT), of a piece of confidential data (FGPRN k), /b/ an obtaining (EXTR), by an electronic circuit for extracting (EXTR_C) from the recording device (ENR_STAT), of an approximated short representation (S_FGPRN k) of the piece of confidential data (FGPRN k) from said piece of confidential data (FGPRN k), /c/ an obtaining, by a secret sharing electronic circuit (SHR_C) from the recording device (ENR_STAT), of N parts (FGPRN 1,k, FGPRN 2,k,... FGPRN i,k,... FGPRN N,k) of the piece of confidential data (FGPRN k) with a threshold t such that at least t parts are necessary to reconstitute the piece of confidential data (FGPRN k), and of N short parts (S_FGPRN 1,k, S_FGPRN 2,k,... S_FGPRN i,k,... S_FGPRN N,k) of the approximated short representation (S_FGPRN k) with a threshold t such that at least t short parts are necessary to reconstitute the approximated short representation (S_FGPRN k), /d/ a transmitting, by a transmitter (XMIT) from the recording device (ENR_STAT), of each one (FGPRN i,k) of these N parts (FGPRN i,k, FGPRN 2,k,... FGPRN i,k,... FGPRN N,k) and of each one (S_FGPRN i,k) of these N short parts (S_FGPRN 1,k, S_FGPRN 2,k,... S FGPRN i,k,... S_FGPRN N,k) to a respective server (SRV i) among the N servers (SRV 1,... SRV i,... SRV N), in order to store them therein.
A communication processing apparatus which executes command transmission processing for transmitting a command to an RFID tag by modulating a carrier wave, reception processing, in which the communication processing apparatus transmits a continuous carrier wave while receiving a reflected wave from the RFID tag in reply to the continuous carrier wave, and decoding processing for decoding a response signal given by the RFID tag from the received reflected wave, the apparatus being characterized by comprising: a phase detection unit for detecting a phase of the reflected wave received in the reception processing; a phase change unit for changing a phase of the continuous carrier wave in response to start of reception of the reflected wave in the reception processing; and a distance measuring unit for measuring a time from when the phase of the continuous carrier wave is changed to when change occurs in the phase of the reflected wave detected by the phase detection unit according to the change of the phase in the continuous carrier wave, and using the measured time to measure a distance to the RFID tag that returned the reflected wave. a phase detection unit for detecting a phase of the reflected wave received in the reception processing; a phase change unit for changing a phase of the continuous carrier wave in response to start of reception of the reflected wave in the reception processing; and a distance measuring unit for measuring a time from when the phase of the continuous carrier wave is changed to when change occurs in the phase of the reflected wave detected by the phase detection unit according to the change of the phase in the continuous carrier wave, and using the measured time to measure a distance to the RFID tag that returned the reflected wave.
Device for sharpening and cleaning a shaving device with razor blades mounted in a razor blade unit, comprising a main body and a strip-shaped leather section, wherein the main body additionally has a liquid reservoir that is compressible under pressure load, and recesses (3,6) for receiving the liquid reservoir and for receiving the leather section, characterized in that the recess for receiving the liquid reservoir as well as the recess for receiving the leather section are arranged on a common first side of the main body and along a longitudinal direction of the main body in series with one another.
A method for forming a fuel oil composition, comprising: blending a first distillate fraction comprising a T90 distillation point of 400°C or less, a sulfur content of 0.40 wt% or more, and an aromatics content greater than 35 wt% relative to a weight of the first distillate fraction, with a resid fraction having a T90 distillation point of 500°C or more and a sulfur content of 0.35 wt% or less relative to a weight of the resid fraction, to form a fuel oil composition comprising a sulfur content of 0.1 wt% to 0.6 wt% relative to a weight of the fuel oil composition, the fuel oil composition comprising at least 5 wt% of the first distillate fraction and at least 15 wt% of the resid fraction.
A quantum random number generator, QRNG, comprising integrated into a chip, which is a photonic integrated circuit, PIC, manufactured using InP technology, with electrical inputs and outputs, the following components connected from a front end to a back end of the QRNG generator: - a light source comprising a first gain switching laser integrated in the front end of the QRNG generator, wherein the first laser is single-mode with the ability to reach a quantum noise level between optical pulses to obtain phase randomness between optical pulses; - two Mach-Zehnder interferometers, MZI (I1, I2) connected in series, wherein a first MZI interferometer is symmetrical and configured to receive the output signal from the light source and balance the signal power at the input of a second MZI interferometer, and wherein the second MZI interferometer is asymmetric and configured to convert random phase variations between consecutive optical pulses into amplitude variations; and - a single photodetector integrated at the back end of the QRNG generator and configured to detect the amplitude variations of the optical pulses at the output of the second MZI interferometer, converting the variations into electrical signals to be delivered to one of the PIC circuit outputs. - a light source comprising a first gain switching laser integrated in the front end of the QRNG generator, wherein the first laser is single-mode with the ability to reach a quantum noise level between optical pulses to obtain phase randomness between optical pulses; - two Mach-Zehnder interferometers, MZI (I1, I2) connected in series, wherein a first MZI interferometer is symmetrical and configured to receive the output signal from the light source and balance the signal power at the input of a second MZI interferometer, and wherein the second MZI interferometer is asymmetric and configured to convert random phase variations between consecutive optical pulses into amplitude variations; and - a single photodetector integrated at the back end of the QRNG generator and configured to detect the amplitude variations of the optical pulses at the output of the second MZI interferometer, converting the variations into electrical signals to be delivered to one of the PIC circuit outputs.
A free standing inorganic storage phosphor panel comprising: an inorganic storage phosphor layer comprising at least one thermoplastic polymer, an inorganic storage phosphor material and a copper phthalocyanine blue dye, wherein the inorganic storage phosphor layer is formed by melt compounding the at least one thermoplastic polymer, inorganic storage phosphor material and copper phthalocyanine blue dye to form a melt compounded material and by then melt extruding, injection molding, or hot pressing the melt compounded material; wherein the thermoplastic polymer is a polyolefin, a polypropylene, a polyurethane, a polyester, a polycarbonate, a silicone, a siloxane, a polyvinyl chloride or a polyvinylidine chloride; and wherein a peak torque (Tp) required for tearing the panel is greater than 0.04 Newton meter and less than 0.2 Newton meter. an inorganic storage phosphor layer comprising at least one thermoplastic polymer, an inorganic storage phosphor material and a copper phthalocyanine blue dye, wherein the inorganic storage phosphor layer is formed by melt compounding the at least one thermoplastic polymer, inorganic storage phosphor material and copper phthalocyanine blue dye to form a melt compounded material and by then melt extruding, injection molding, or hot pressing the melt compounded material; wherein the thermoplastic polymer is a polyolefin, a polypropylene, a polyurethane, a polyester, a polycarbonate, a silicone, a siloxane, a polyvinyl chloride or a polyvinylidine chloride; and wherein a peak torque (Tp) required for tearing the panel is greater than 0.04 Newton meter and less than 0.2 Newton meter.
Device for the production of granules or extrudates, wherein the device comprises a container with an inlet for the material to be treated, with an inlet for a liquid, with a stirring device for producing an intermediate product from the material to be treated and the liquid, and with an outlet for the intermediate product, and a discharge tube, characterized in that the device comprises an inlet for the intermediate product and an outlet for the granules or extrudate, as well as a discharge tube which has a conveying device which conveys the intermediate product from the inlet of the discharge tube in the direction of the outlet of the discharge tube, wherein the discharge tube, which is able to rotate about an axis E-E, is arranged on the container in such a manner that the discharge tube can be transitioned between an open position and a closed position with respect to the container.
Method for monitoring an aircraft engine provided with at least one limited-lifetime part, said part being associated with an age parameter, characterised in that after the starting of said engine, the following steps are performed: - during an identification step, a temporary storage means of the aircraft stores a list including a reference of each identified limited-lifetime part of said engine, - during an information-search step, the storage means communicates with a centralised data system remote from the aircraft storing maintenance data including at least for each reference of a limited-lifetime part from the manufacturer a value of the age parameter before starting, the storage means storing the corresponding maintenance data for each identified limited-lifetime part, - during a monitoring step, the engine wear is monitored in the course of time by using the information stored in said storage means. - during an identification step, a temporary storage means of the aircraft stores a list including a reference of each identified limited-lifetime part of said engine, - during an information-search step, the storage means communicates with a centralised data system remote from the aircraft storing maintenance data including at least for each reference of a limited-lifetime part from the manufacturer a value of the age parameter before starting, the storage means storing the corresponding maintenance data for each identified limited-lifetime part, - during a monitoring step, the engine wear is monitored in the course of time by using the information stored in said storage means.
A driving mechanism for furniture, the furniture comprising a first furniture part and a second furniture part movable relative to the first furniture part, the driving mechanism.. comprising: a first driving device comprising a first elastic member; a locking device comprising a locking part and a guiding member, the guiding member configured to generate a force toward the locking part; and a swing member movably connected to the second furniture part, characterized in that when the swing member is operatively engaged between the locking part and the guiding member, the first elastic member of the first driving device accumulates a first driving force; and when the swing member is operatively disengaged from the locking part and the guiding member, the first driving force is released to drive the second furniture part to move from a retrieve position to an open position relative to the first furniture part. a first driving device comprising a first elastic member; a locking device comprising a locking part and a guiding member, the guiding member configured to generate a force toward the locking part; and a swing member movably connected to the second furniture part, characterized in that when the swing member is operatively engaged between the locking part and the guiding member, the first elastic member of the first driving device accumulates a first driving force; and when the swing member is operatively disengaged from the locking part and the guiding member, the first driving force is released to drive the second furniture part to move from a retrieve position to an open position relative to the first furniture part.
A crane having an outrigger pad monitoring system, the crane comprising: a) a crane body; b) a plurality of outrigger assemblies attached to the crane body, each of the plurality of outrigger assemblies comprising: i) an outrigger body coupled to the crane body; ii) an outrigger jack coupled to the outrigger body and configured to selectively extend and retract relative to the outrigger body; iii) an outrigger pad (208; 402, 404, 406, 408) coupled to the outrigger jack; and iv) a sensor adapted to measure a property from which a reaction force on the outrigger pad can be determined; and c) a crane control system communicatively coupled to each of the sensors of the plurality of outrigger assemblies, the crane control system comprising: i) a processor; ii) a user input device; and iii) a computer readable storage memory characterized in that the computer readable storage memory has instructions stored thereon, that, when executed by the processor, cause the crane control system to perform a setup function including: A) receive a user input through the user input device; B) cause a first outrigger jack to extend relative to the outrigger body; C) receive from a first of said sensors a signal from which a first reaction force acting on a first of said outrigger pads (208; 402, 404, 406, 408) can be determined; and D) determine a first outrigger pad status for the first outrigger pad (208; 402, 404, 406, 408). a) a crane body; b) a plurality of outrigger assemblies attached to the crane body, each of the plurality of outrigger assemblies comprising: i) an outrigger body coupled to the crane body; ii) an outrigger jack coupled to the outrigger body and configured to selectively extend and retract relative to the outrigger body; iii) an outrigger pad (208; 402, 404, 406, 408) coupled to the outrigger jack; and iv) a sensor adapted to measure a property from which a reaction force on the outrigger pad can be determined; and i) an outrigger body coupled to the crane body; ii) an outrigger jack coupled to the outrigger body and configured to selectively extend and retract relative to the outrigger body; iii) an outrigger pad (208; 402, 404, 406, 408) coupled to the outrigger jack; and iv) a sensor adapted to measure a property from which a reaction force on the outrigger pad can be determined; and c) a crane control system communicatively coupled to each of the sensors of the plurality of outrigger assemblies, the crane control system comprising: i) a processor; ii) a user input device; and iii) a computer readable storage memory i) a processor; ii) a user input device; and iii) a computer readable storage memory A) receive a user input through the user input device; B) cause a first outrigger jack to extend relative to the outrigger body; C) receive from a first of said sensors a signal from which a first reaction force acting on a first of said outrigger pads (208; 402, 404, 406, 408) can be determined; and D) determine a first outrigger pad status for the first outrigger pad (208; 402, 404, 406, 408).
A process for preparing a polymer comprising S-vinylthioalkanol as monomer by radical polymerization, which comprises carrying out the polymerization in aqueous solution, with the proviso that no N-vinylpyrrolidone is used as monomer for preparing the polymer, and wherein at least one further monomer, different from an S-vinylthioalkanol, is used, the further monomer being a monoethylenically unsaturated water-soluble monomer, with the exception of vinylpyrrolidone.
A dismantlable medical forceps system, comprising a first force transmission element, which is designed to transmit a first maximum force, further comprising at least a second force transmission element, which is designed to transmit a second maximum force greater than the first maximum force, and further comprising at least a first grip, which has at least one movable grip part, the at least one first grip having a coupling device by means of which one of the force transmission elements (32, 38) can be connected with a force fit to the movable grip part, the first force transmission element having a first connection element and the at least second force transmission element having a second connection element for respective connection to the coupling device, wherein the coupling device has a first seat, which is designed for force-fit connection to the first connection element, and at least a second seat, which is designed for force-fit connection to the second connection element, characterized in that the cross-sectional size and/or the cross-sectional shape of the first connection element transverse to the longitudinal direction of the first force transmission element differs from the cross-sectional size and/or the cross-sectional shape of the second connection element transverse to the longitudinal direction of the second force transmission element.
A vacuum pump system comprising a vacuum pump, a control unit, and a second microcontroller monitoring the revolution speed of the motor, wherein the vacuum pump has a brushless, multiphase synchronous motor with a permanent magnetically excited rotor, wherein the control unit includes a drive microcontroller and an end stage (6a, 6b), and wherein the second microcontroller is configured to switch off the end stage (6a, 6b) on a recognition of the exceeding of a maximum revolution speed, characterized in that the second microcontroller is arranged in the control unit; in that the vacuum pump has pump type recognition means; and in that the drive microcontroller is configured to determine the revolution speed of the motor from a motor model and from the currents adopted in the phases, with a converter unit for converting the voltages measured at the phases into a digital signal being arranged in the drive microcontroller, and with the digital signal being evaluated in the second microcontroller.
A method for high dynamic range imaging comprising the steps of: defining n capture intervals where n is 3 or above; capturing a series of images at the said capture intervals in a repeating sequence of 2n-2 steps, wherein the first n steps of the sequence comprise one of each capture interval, and the n-2 capture intervals between the first and the n th capture intervals are then duplicated for the subsequent steps of the sequence and wherein each of the n-2 capture intervals between the first and the n th capture intervals that is in an odd position in the first n capture intervals of the sequence maintains an odd position when duplicated in the subsequent steps of the sequence and each of the n-2 capture intervals between the first and the n th capture intervals that is in an even position in the first n capture intervals within the sequence maintains an even position when duplicated in the subsequent steps of the sequence; and combining n successive captured images to generate a series of composite frames for output.
A method for controlling a monocotyledonous, sedge, or dicotyledonous weed comprising applying to the weed an amount of a sarmentine or a sarmentine analog effective for controlling the weed, wherein said sarmentine analog is selected from N-(Decanoyl)pyrrolidine, N-(Decenoyl)pyrrolidine, N-(Decanoyl)piperidine, N-(trans-Cinnamoyl)pyrrolidine, N-(trans-Cinnamoyl)piperidine, (2E,4Z-Decadienoyl)pyrrolidine, N-(Decenoyl)piperidine, (2E,4Z-Decadienoyl)piperidine, (2E,4Z-Decadienoyl)hexamethyleneimine, N-(Decenoyl)hexamethyleneimine and N-(Decanoyl)hexamethyleneimine, wherein the sarmentine or the sarmentine analog is applied by foliar application.