mhurhangee/patent-ind-claim-en huggingface dataset:
A program that causes a computer to execute a process, the process comprising: reading (S1) out time-series data to be analyzed from a storage unit , the time-series data comprising wearable sensor data, or natural environment data that indicate temperature, humidity, or carbon dioxide concentration; characterised by determining numerical values indicating features at respective timings having a predetermined time interval with respect to the time-series data by determining (S2), for each time interval between the respective timings, numerical values of a highest point and a lowest point included in the time-series data within that time interval and numerical values of interpolation points between the highest point and the lowest point, wherein a same number of the interpolation points is determined in respect of each time interval; generating (S3) an attractor related to the time-series data based on the determined numerical values; and analyzing (S4) the time-series data by topological data analysis based on the generated attractor. reading (S1) out time-series data to be analyzed from a storage unit , the time-series data comprising wearable sensor data, or natural environment data that indicate temperature, humidity, or carbon dioxide concentration; characterised by determining numerical values indicating features at respective timings having a predetermined time interval with respect to the time-series data by determining (S2), for each time interval between the respective timings, numerical values of a highest point and a lowest point included in the time-series data within that time interval and numerical values of interpolation points between the highest point and the lowest point, wherein a same number of the interpolation points is determined in respect of each time interval; generating (S3) an attractor related to the time-series data based on the determined numerical values; and analyzing (S4) the time-series data by topological data analysis based on the generated attractor.
A method of monitoring a dynamic compensation control system of an elevator system , the method comprising: receiving and monitoring a first motion state sensor signal generated by a first motion state sensor , the first motion state sensor associated with an elevator machine; receiving and monitoring a second motion state sensor signal generated by a second motion state sensor , the second motion state sensor located on an elevator car; performing a dynamic compensation control mode of operation to control a motion state of the elevator car relative to a landing with a computing system by controlling the elevator machine to minimise oscillations, vibrations, excessive position deflections, and/or bounce of the elevator car at the landing; characterised by determining an operational status of the second motion state sensor based on an analysis of the first motion state sensor signal and the second motion state sensor signal, wherein the operation status is determined to be a failure status if the second motion state sensor signal is outside of a predetermined tolerance relative to the first motion state sensor signal; and when it is determined that the operation status of the second motion state sensor is the failure status, deactivating the dynamic compensation control mode of operation of the elevator system . receiving and monitoring a first motion state sensor signal generated by a first motion state sensor , the first motion state sensor associated with an elevator machine; receiving and monitoring a second motion state sensor signal generated by a second motion state sensor , the second motion state sensor located on an elevator car; performing a dynamic compensation control mode of operation to control a motion state of the elevator car relative to a landing with a computing system by controlling the elevator machine to minimise oscillations, vibrations, excessive position deflections, and/or bounce of the elevator car at the landing; characterised by determining an operational status of the second motion state sensor based on an analysis of the first motion state sensor signal and the second motion state sensor signal, wherein the operation status is determined to be a failure status if the second motion state sensor signal is outside of a predetermined tolerance relative to the first motion state sensor signal; and when it is determined that the operation status of the second motion state sensor is the failure status, deactivating the dynamic compensation control mode of operation of the elevator system .
IMPROVED METHOD FOR MANUFACTURING CANDLES IN A CONTAINER of the type comprising a stage of attaching the wick to a stand, threading the wick through a longitudinal orifice made in a core, attaching the stand to the base of a container and positioning the core, leaving a cavity between the core and the walls of the container and pouring the filler material, characterised in that : 1. The filler material is poured at a controlled rate from a point not directly vertically above the upper opening of the longitudinal orifice. 2. The filler material is led through a series of channels to the base of the longitudinal orifice . 3. The longitudinal orifice is filled from the base thereof. 4. The longitudinal orifice and the cavity around the core are filled simultaneously. 5. The air previously present in the longitudinal orifice is expelled before the filler material covers the core. 1. The filler material is poured at a controlled rate from a point not directly vertically above the upper opening of the longitudinal orifice. 2. The filler material is led through a series of channels to the base of the longitudinal orifice . 3. The longitudinal orifice is filled from the base thereof. 4. The longitudinal orifice and the cavity around the core are filled simultaneously. 5. The air previously present in the longitudinal orifice is expelled before the filler material covers the core.
A device for inserting a tongue into an insertion groove in a panel characterized in that the device comprises a first part comprising a supporting surface configured to directly cooperate with an upper surface of a panel , such that the supporting surface is positioned relative the upper surface of the panel, that the device comprises a second part , which is connected to the first part , that the second part comprises a displaceable puncher and a guiding device which is configured to guide the displaceable puncher , and that the displaceable puncher is configured to displace a tongue into an insertion groove of the panel , wherein the supporting surface is extending in a first direction and the guiding device is extending in second direction , and that the device is configured to be handheld. that the device comprises a first part comprising a supporting surface configured to directly cooperate with an upper surface of a panel , such that the supporting surface is positioned relative the upper surface of the panel, that the device comprises a second part , which is connected to the first part , that the second part comprises a displaceable puncher and a guiding device which is configured to guide the displaceable puncher , and that the displaceable puncher is configured to displace a tongue into an insertion groove of the panel , wherein the supporting surface is extending in a first direction and the guiding device is extending in second direction , and that the device is configured to be handheld.
Looper for a tufting machine, with a looper body with a space for receiving a cutting edge insert and a space for receiving a slider and separate from the cutting edge insert receiving space , with a cutting edge insert arranged in the cutting edge insert receiving space , and with a slider arranged in the slider receiving space , characterised in that the slider receiving space is formed by a slot which is open on the narrow side of the looper body .
A lifting and/or transporting arrangement , with a remote-controllable lifting and/or transporting device , such as, in particular, an aircraft pusher, a remote-control transmitter for controlling a lifting and/or transporting movement of the lifting and/or transporting device and a safety apparatus on which data for defining a horizontally extending virtual enablement area (F) are stored and which has a sensor system for detecting a position of the remote-control transmitter , wherein by means of the safety apparatus , a control process of the remote-control transmitter can be enabled or disabled depending on a currently detected position of the remote-control transmitter relative to the enablement area (F), characterised in that the enablement area (F) additionally has a limited vertical extent (E) in a vertical direction (V) and the sensor system of the safety apparatus has height determination means for detecting a height position of the remote-control transmitter , wherein the control process can additionally be enabled or disabled depending on a currently detected height position of the remote-control transmitter relative to the vertical extent (E) of the enablement area (F). with a remote-controllable lifting and/or transporting device , such as, in particular, an aircraft pusher, a remote-control transmitter for controlling a lifting and/or transporting movement of the lifting and/or transporting device and a safety apparatus on which data for defining a horizontally extending virtual enablement area (F) are stored and which has a sensor system for detecting a position of the remote-control transmitter , wherein by means of the safety apparatus , a control process of the remote-control transmitter can be enabled or disabled depending on a currently detected position of the remote-control transmitter relative to the enablement area (F), characterised in that the enablement area (F) additionally has a limited vertical extent (E) in a vertical direction (V) and the sensor system of the safety apparatus has height determination means for detecting a height position of the remote-control transmitter , wherein the control process can additionally be enabled or disabled depending on a currently detected height position of the remote-control transmitter relative to the vertical extent (E) of the enablement area (F).
An obstacle recognition method, comprising: comparing a first path loss value with a second path loss value between a first access point, AP, and a second AP, to determine whether an obstacle exists between the first AP and the second AP, wherein the first path loss value is a magnitude of a signal loss obtained through measurement between the first AP and the second AP, characterized in that the second path loss value is a path loss value obtained by inferring based on a plurality of path loss value pairs between a second terminal and each AP pair in a plurality of AP pairs, each AP pair in the plurality of AP pairs comprises two APs, and the plurality of AP pairs do not comprise an AP pair formed by the first AP and the second AP. comparing a first path loss value with a second path loss value between a first access point, AP, and a second AP, to determine whether an obstacle exists between the first AP and the second AP, wherein the first path loss value is a magnitude of a signal loss obtained through measurement between the first AP and the second AP, characterized in that the second path loss value is a path loss value obtained by inferring based on a plurality of path loss value pairs between a second terminal and each AP pair in a plurality of AP pairs, each AP pair in the plurality of AP pairs comprises two APs, and the plurality of AP pairs do not comprise an AP pair formed by the first AP and the second AP.
A device comprising: a resonant array of a plurality of synthetic jet generators (102; 104, 106) where neighboring jet generators are coupled, resulting in the potential for constructive and destructive interference between jets of the plurality of synthetic jet generators depending on a relative phase of a corresponding plurality of drive signals to the plurality of synthetic jet generators; and a controller configured to control the relative phase of the corresponding plurality of drive signals to effect a change in a first jet emitted by a first synthetic jet generator of the plurality of synthetic jet generators by changing a given phase of a second jet emitted by a second synthetic jet generator of the plurality of synthetic jet generators. a resonant array of a plurality of synthetic jet generators (102; 104, 106) where neighboring jet generators are coupled, resulting in the potential for constructive and destructive interference between jets of the plurality of synthetic jet generators depending on a relative phase of a corresponding plurality of drive signals to the plurality of synthetic jet generators; and a controller configured to control the relative phase of the corresponding plurality of drive signals to effect a change in a first jet emitted by a first synthetic jet generator of the plurality of synthetic jet generators by changing a given phase of a second jet emitted by a second synthetic jet generator of the plurality of synthetic jet generators.
A preparative method for carboxylic acids, wherein compounds (II) are reacted in the presence of hydrogen peroxide and base to produce target products (I), as represented by the following reaction scheme: wherein R 1 is an aryl, an aryl substituted by an electron-withdrawing group selected from nitro, chlorine, trifluoromethyl and methansulfonyl, a pyridyl, a pyridyl substituted by an electron-withdrawing group selected from nitro, chlorine, trifluoromethyl and methansulfonyl, a pyrimidyl, a pyridazinyl, a pyrazinyl, a benzothienyl, a benzofuranyl, a quinolinyl, an isoquinolinyl, a thiadiazolyl, a C 1-6 alkyl, a C 3-6 cycloalkyl, a C 2-6 alkenyl, a C 2-6 alkynyl or a hydrogen; R 2 is an alkoxycarbonyl, an alkylaminocarbonyl, an aminocarbonyl, an alkylthiolcarbonyl, a cyano, a sulfonyl, a sulfinyl, or a nitro; R 3 is an alkoxycarbonyl, an alkyl amido carbonyl, an aminocarbonyl, a cyano, a sulfonyl, a sulfinyl, or a nitro.
A network connection method, wherein the method comprises: broadcasting, by a hotspot terminal, a first unencrypted service set identifier, SSID, and a second encrypted SSID; receiving (S301), by the hotspot terminal , an Internet access request sent by a mobile terminal, wherein the Internet access request is sent to the hotspot terminal after the mobile terminal accesses, according to the first unencrypted SSID of the hotspot terminal, an unencrypted wireless local area network, WLAN, established by the hotspot terminal, wherein the mobile terminal is able to access, according to the first unencrypted SSID, the unencrypted WLAN without password; receiving (S303), by the hotspot terminal , a user identity information sent by the mobile terminal, and the user identity information is used to identify a user who uses the mobile terminal; receiving (S304), by the hotspot terminal , a permission confirmation instruction that is entered by an administrator according to the user identity information; and determining (S305), by the hotspot terminal , Internet access permission of the mobile terminal according to the received permission confirmation instruction. broadcasting, by a hotspot terminal, a first unencrypted service set identifier, SSID, and a second encrypted SSID; receiving (S301), by the hotspot terminal , an Internet access request sent by a mobile terminal, wherein the Internet access request is sent to the hotspot terminal after the mobile terminal accesses, according to the first unencrypted SSID of the hotspot terminal, an unencrypted wireless local area network, WLAN, established by the hotspot terminal, wherein the mobile terminal is able to access, according to the first unencrypted SSID, the unencrypted WLAN without password; receiving (S303), by the hotspot terminal , a user identity information sent by the mobile terminal, and the user identity information is used to identify a user who uses the mobile terminal; receiving (S304), by the hotspot terminal , a permission confirmation instruction that is entered by an administrator according to the user identity information; and determining (S305), by the hotspot terminal , Internet access permission of the mobile terminal according to the received permission confirmation instruction.
A sound proofing assembly , notably for an automobile vehicle of the type comprising: - an elastic and porous base spring layer , intended to be placed facing a surface , notably of an automobile vehicle; - an intermediate insulation layer impervious to the passage of air, the intermediate layer being positioned on the base spring layer ; wherein the impervious intermediate layer has a surface mass density of less than 500 g/m 2 , notably comprised between 50 g/m 2 and 400 g/m 2 , the sound proofing assembly including a porous stiffening layer positioned in contact with the impervious intermediate layer , and wherein the porous stiffening layer has a smaller thickness than the thickness of the base spring layer , characterized in that the porous stiffening layer has a flexural stiffness (B), reduced to a unit width, of more than 0.4 N.m. - an elastic and porous base spring layer , intended to be placed facing a surface , notably of an automobile vehicle; - an intermediate insulation layer impervious to the passage of air, the intermediate layer being positioned on the base spring layer ;
Smart card comprising: a light-emitting diode having an anode terminal coupled to a node of application of a power supply voltage (Vcc) by a first transistor (T1), and a cathode terminal coupled to a node of application of a reference voltage (Gnd) by a second transistor (T2); and a microcontroller , characterized in that the microcontroller comprises a digital-to-analog converter and a comparator having a first input coupled to one of the anode and cathode terminals of the diode and a second input configured to receive an output voltage (Vref) of the converter , and in that an output signal (OUT) of the comparator controls one of the first and second transistors (T1, T2) for turning off the supply of the light-emitting diode when a current flowing therein reaches a maximal targeted current in said light-emitting diode. a light-emitting diode having an anode terminal coupled to a node of application of a power supply voltage (Vcc) by a first transistor (T1), and a cathode terminal coupled to a node of application of a reference voltage (Gnd) by a second transistor (T2); and a microcontroller , characterized in that the microcontroller comprises a digital-to-analog converter and a comparator having a first input coupled to one of the anode and cathode terminals of the diode and a second input configured to receive an output voltage (Vref) of the converter , and in that an output signal (OUT) of the comparator controls one of the first and second transistors (T1, T2) for turning off the supply of the light-emitting diode when a current flowing therein reaches a maximal targeted current in said light-emitting diode.
A method for wireless communications, comprising: operating at a first voltage level in a wireless communications device ; detecting , within a first portion of a received frame , a frame metric comprising a throughput category corresponding to a bandwidth associated with a plurality of packets of the received frame ; and determining whether to transition to a second voltage level to process at least a portion of the plurality of packets in a second portion of the received frame based on the detected throughput category. operating at a first voltage level in a wireless communications device ; detecting , within a first portion of a received frame , a frame metric comprising a throughput category corresponding to a bandwidth associated with a plurality of packets of the received frame ; and determining whether to transition to a second voltage level to process at least a portion of the plurality of packets in a second portion of the received frame based on the detected throughput category.
Method for connecting a device (MOB), termed master device, with a slave device chosen from among several slave devices (AP1-AP3), the method comprising, in the master device, a. a step of receiving advertising messages (LE) arising from several slave devices (AP1-AP2), the messages including respective temporal data (UPT1-UPT3) provided by respective temporal counters (CPT1-CPT3) able to recognize respective durations of use (UPT1-UPT3) of the slave devices b. a step of comparing the temporal data received (UPT1-UPT3); c. a step of connecting with at least one slave device as a function of the result of the comparing step; a. a step of receiving advertising messages (LE) arising from several slave devices (AP1-AP2), the messages including respective temporal data (UPT1-UPT3) provided by respective temporal counters (CPT1-CPT3) able to recognize respective durations of use (UPT1-UPT3) of the slave devices b. a step of comparing the temporal data received (UPT1-UPT3); c. a step of connecting with at least one slave device as a function of the result of the comparing step;
A method for providing simultaneous dual polarization operation using a linearly-polarized planar antenna and a polarizer spaced apart from the linearly-polarized planar antenna, the polarizer including a first polarization state comprising primarily left-hand circular polarization (LHCP), a second polarization state comprising primarily right-hand circular polarization (RHCP), and a third intermediate polarization state comprising linear polarization from which a combination of both LHCP and RHCP is simultaneously derived, the method comprising: placing the polarizer in the first or second polarization state to at least one of transmit or receive a signal having primarily one of LHCP or RHCP, respectively; placing the polarizer in the third intermediate polarization state to simultaneously transmit and/or receive two different signals, a first signal of the two different signals having primarily LHCP and a second signal of the two different signals having primarily RHCP; and receiving and transmitting RF signals between the linearly-polarized planar antenna and an electronic device while the polarizer is in the third intermediate polarization state. placing the polarizer in the first or second polarization state to at least one of transmit or receive a signal having primarily one of LHCP or RHCP, respectively; placing the polarizer in the third intermediate polarization state to simultaneously transmit and/or receive two different signals, a first signal of the two different signals having primarily LHCP and a second signal of the two different signals having primarily RHCP; and receiving and transmitting RF signals between the linearly-polarized planar antenna and an electronic device while the polarizer is in the third intermediate polarization state.
Polyester composition comprising poly(alkylene furandicarboxylate) and a color-stabilizing agent wherein the color-stabilizing agent is selected from the group consisting of sterically hindered phenolic compounds, phosphonite compounds, phosphites containing at least one tri-substituted phenyl moiety and combinations thereof.