mhurhangee/ep-ind-claims huggingface dataset:
A method for testing a fire alarm system, the method comprising: in response to a technician activating devices of the fire alarm system during a test of the devices, the activated devices sending signals to a control panel, event data from the control panel being sent to a central operations system, wherein the event data are generated by the control panel based on the signals; and sending the event data from the central operations system to a mobile computing device operated by the technician, characterized in that the event data includes at least one analog and/or detected value of the activated devices, the at least one analog and/or detected value including a detected smoke level or detected ambient temperature. in response to a technician activating devices of the fire alarm system during a test of the devices, the activated devices sending signals to a control panel, event data from the control panel being sent to a central operations system, wherein the event data are generated by the control panel based on the signals; and sending the event data from the central operations system to a mobile computing device operated by the technician, characterized in that the event data includes at least one analog and/or detected value of the activated devices, the at least one analog and/or detected value including a detected smoke level or detected ambient temperature.
Use of a benzothiophene compound for inducing alternative autophagy by introducing the compound into a culture liquid of a cell, wherein the compound is represented by the following general formula: wherein, in the formula, R 1 represents a halogen atom, an optionally substituted 5- to 10-membered aromatic carbon ring, an optionally substituted 5- to 10-membered aromatic heterocycle, or a group represented by -R 6 -R 7; R 2 represents a halogen atom, a hydroxyl group, or a group represented by -O-R 6 -R 7 or -O-R 6 -R 8; R 3 represents a hydrogen atom or a group represented by -C(=O)R 9; R 4 represents a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms; R 5 represents an oxygen atom or an imino group; R 6 s, which may be the same or different, each independently represent a linear, branched, or cyclic alkylene group having 1 to 6 carbon atoms; R 7 s, which may be the same or different, each independently represent an amino group optionally substituted by a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms, a linear, branched, or cyclic alkenyl group having 2 to 6 carbon atoms, or a linear, branched, or cyclic hydroxyalkyl group having 1 to 6 carbon atoms; R 8 represents an optionally substituted 5- to 10-membered aromatic carbon ring or an optionally substituted 5- to 10-membered aromatic heterocycle; and R 9 represents a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms, an optionally substituted 5-to 10-membered aromatic carbon ring, or an optionally substituted 5- to 10-membered aromatic heterocycle. R 1 represents a halogen atom, an optionally substituted 5- to 10-membered aromatic carbon ring, an optionally substituted 5- to 10-membered aromatic heterocycle, or a group represented by -R 6 -R 7; R 2 represents a halogen atom, a hydroxyl group, or a group represented by -O-R 6 -R 7 or -O-R 6 -R 8; R 3 represents a hydrogen atom or a group represented by -C(=O)R 9; R 4 represents a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms; R 5 represents an oxygen atom or an imino group; R 6 s, which may be the same or different, each independently represent a linear, branched, or cyclic alkylene group having 1 to 6 carbon atoms; R 7 s, which may be the same or different, each independently represent an amino group optionally substituted by a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms, a linear, branched, or cyclic alkenyl group having 2 to 6 carbon atoms, or a linear, branched, or cyclic hydroxyalkyl group having 1 to 6 carbon atoms; R 8 represents an optionally substituted 5- to 10-membered aromatic carbon ring or an optionally substituted 5- to 10-membered aromatic heterocycle; and R 9 represents a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms, an optionally substituted 5-to 10-membered aromatic carbon ring, or an optionally substituted 5- to 10-membered aromatic heterocycle.
A steering device of a working vehicle, comprising: a lever which performs tilting operation for steering; a first switch for setting a steering signal from the lever to be in a valid/invalid state; a lever support member which is provided so as to be able to flip up from a certain position of performing tilting operation with use of the lever and supports the lever; a second switch which attains conduction when the lever support member is located at the certain position, and attains non-conduction in conjunction with a case where the lever support member is flipped up from the certain position; and a control device for setting steering with use of the lever to be valid/invalid, characterized in that the first switch having a plurality of terminals which attain conduction of a steering signal from the lever in accordance with setting of a valid state and an invalid state and are electrically connected to the control device in parallel with the second switch and, the control device determines an abnormal state in accordance with an input order of signals inputted based on the first and second switches (202, 204). a lever which performs tilting operation for steering; a first switch for setting a steering signal from the lever to be in a valid/invalid state; a lever support member which is provided so as to be able to flip up from a certain position of performing tilting operation with use of the lever and supports the lever; a second switch which attains conduction when the lever support member is located at the certain position, and attains non-conduction in conjunction with a case where the lever support member is flipped up from the certain position; and a control device for setting steering with use of the lever to be valid/invalid, characterized in that the first switch having a plurality of terminals which attain conduction of a steering signal from the lever in accordance with setting of a valid state and an invalid state and are electrically connected to the control device in parallel with the second switch and, the control device determines an abnormal state in accordance with an input order of signals inputted based on the first and second switches (202, 204).
System for ablating solid material in the oral cavity of a human or animal comprising a fixation device and an insertion device (5, 9, 10, 11, 14, 16), wherein the insertion device includes at least one means (8, 9) for touchless ablation of solid material and the fixation device is set up for being fixed in place on a human or animal head, in particular a jaw, wherein the fixation device includes a first connecting means and the insertion device (5, 9, 10, 11, 14, 16) includes a second connecting means, wherein the connecting means (6, 7) are set up such that the second connecting means is rigidly connectable to the fixation device, and fixation device and insertion device (5, 9, 10, 11, 14, 16) are configured such that the second connecting means, following the rigid connection to the fixation device that is fixed on the head, is in a fixed position relative to a jaw bone or a tooth of the human or animal, characterized in that the insertion device (5, 9, 10, 11, 14, 16) comprises a distance-measuring device (17, 18) for determining the distance to the material to be ablated.
An enhancement system operative to estimate noise from a received signal comprising a memory including instructions to implement the functions of: divide a frequency spectrum of a portion of a received signal into wide bands each comprising a plurality of narrow bands; track characteristics of the received signal and modify an initial noise adaptation rate for each wide band to derive a modified wide band noise adaptation factor; and apply the modified wide band noise adaptation factor for each wide band to the narrow bands comprised therein. divide a frequency spectrum of a portion of a received signal into wide bands each comprising a plurality of narrow bands; track characteristics of the received signal and modify an initial noise adaptation rate for each wide band to derive a modified wide band noise adaptation factor; and apply the modified wide band noise adaptation factor for each wide band to the narrow bands comprised therein.
A microfluidic pump, comprising: a substrate configured to define a channel for carrying a fluid; a series of resistive heaters configured to be disposed along the channel, wherein activating the resistive heaters using a firing pulse sequence moves the fluid through a conduit in a direction and at a speed based on the firing pulse sequence; a temperature sensor configured to be in thermal communication with the substrate, the temperature sensor being configured to measure a pump temperature and produce a temperature signal corresponding to the pump temperature; and a fire signal generator configured to be in electrical communication with each resistive heater, the fire signal generator being configured to produce a series of firing pulse sequences, each firing pulse sequence being configured to comprise a number of firing pulses, successive firing pulses being configured to be separated by an idle period comprising a period of time with no firing pulses, characterized in that the fire signal generator being configured to vary at least one of the number of firing pulses in the firing pulse sequence and the idle period in response to the pump temperature. a substrate configured to define a channel for carrying a fluid; a series of resistive heaters configured to be disposed along the channel, wherein activating the resistive heaters using a firing pulse sequence moves the fluid through a conduit in a direction and at a speed based on the firing pulse sequence; a temperature sensor configured to be in thermal communication with the substrate, the temperature sensor being configured to measure a pump temperature and produce a temperature signal corresponding to the pump temperature; and a fire signal generator configured to be in electrical communication with each resistive heater, the fire signal generator being configured to produce a series of firing pulse sequences, each firing pulse sequence being configured to comprise a number of firing pulses, successive firing pulses being configured to be separated by an idle period comprising a period of time with no firing pulses, characterized in that the fire signal generator being configured to vary at least one of the number of firing pulses in the firing pulse sequence and the idle period in response to the pump temperature.
A motor control device comprising: a torque detector that is arranged to detect a steering torque; a steering angle detector (23, 45) that is arranged to detect an actual steering angle; an automatic steering controller that sets an automatic steering control amount (T m,ad); an assist controller that sets an assist control amount using the steering torque; an integrated control amount calculating portion that calculates an integrated control amount by adding the automatic steering control amount and the assist control amount; and a controller that controls, based on the integrated control amount, an electric motor for steering angle control, characterized in that the motor control device further comprises: an actual automatic steering angle calculating portion that calculates, based on at least one of either of the steering torque and the assist control amount and on the actual steering angle (θ c,ma), an actual automatic steering angle (θc, ad) that is a steering angle due to automatic steering control and included in the actual steering angle; and the automatic steering controller sets the automatic steering control amount using a target automatic steering angle (θ c,cmda) and the actual automatic steering angle. a torque detector that is arranged to detect a steering torque; a steering angle detector (23, 45) that is arranged to detect an actual steering angle; an automatic steering controller that sets an automatic steering control amount (T m,ad); an assist controller that sets an assist control amount using the steering torque; an integrated control amount calculating portion that calculates an integrated control amount by adding the automatic steering control amount and the assist control amount; and a controller that controls, based on the integrated control amount, an electric motor for steering angle control, the motor control device further comprises: an actual automatic steering angle calculating portion that calculates, based on at least one of either of the steering torque and the assist control amount and on the actual steering angle (θ c,ma), an actual automatic steering angle (θc, ad) that is a steering angle due to automatic steering control and included in the actual steering angle; and the automatic steering controller sets the automatic steering control amount using a target automatic steering angle (θ c,cmda) and the actual automatic steering angle.
A cardiac rhythm management system, comprising: a hemodynamic tolerability analyzer including: a hemodynamic parameter input configured to receive values of one or more hemodynamic parameters including values of the one or more hemodynamic parameters sensed during delivery of pacing pulses according to a hemodynamic challenge protocol produced to induce increasingly severe tachyarrhythmia by delivering pacing pulses at an increasing pacing rate; an annotation input configured to receive annotations associating the values of the one or more hemodynamic parameters to levels of hemodynamic tolerability each being a measure of tolerance to deteriorated hemodynamic performance resulting from tachyarrhythmia; and a hemodynamic tolerability map generator configured to generate a hemodynamic tolerability map relating at least the values of the one or more hemodynamic parameters to the levels of hemodynamic tolerability; and a control circuit configured to control the delivery of pacing pulses by executing the hemodynamic challenge protocol. a hemodynamic tolerability analyzer including: a hemodynamic parameter input configured to receive values of one or more hemodynamic parameters including values of the one or more hemodynamic parameters sensed during delivery of pacing pulses according to a hemodynamic challenge protocol produced to induce increasingly severe tachyarrhythmia by delivering pacing pulses at an increasing pacing rate; an annotation input configured to receive annotations associating the values of the one or more hemodynamic parameters to levels of hemodynamic tolerability each being a measure of tolerance to deteriorated hemodynamic performance resulting from tachyarrhythmia; and a hemodynamic tolerability map generator configured to generate a hemodynamic tolerability map relating at least the values of the one or more hemodynamic parameters to the levels of hemodynamic tolerability; and a hemodynamic parameter input configured to receive values of one or more hemodynamic parameters including values of the one or more hemodynamic parameters sensed during delivery of pacing pulses according to a hemodynamic challenge protocol produced to induce increasingly severe tachyarrhythmia by delivering pacing pulses at an increasing pacing rate; an annotation input configured to receive annotations associating the values of the one or more hemodynamic parameters to levels of hemodynamic tolerability each being a measure of tolerance to deteriorated hemodynamic performance resulting from tachyarrhythmia; and a hemodynamic tolerability map generator configured to generate a hemodynamic tolerability map relating at least the values of the one or more hemodynamic parameters to the levels of hemodynamic tolerability; and a control circuit configured to control the delivery of pacing pulses by executing the hemodynamic challenge protocol.
An isolated humanized monoclonal antibody that specifically binds to Neu5Acα2→ 3Galβ1→ 3GalNAcβ1→ 3Galα1→ 4Galβ1→ 4Glcβ1, wherein the antibody comprises a VH having SEQ ID NO: 147 and a VL having SEQ ID NO: 148.
A method of forming a refrigerator cabinet, comprising the steps: providing an inner liner; providing an external wrapper, the wrapper defining at least one injection port and at least one vacuum port; positioning the inner liner within the external wrapper such that a gap is defined between the inner liner and the external wrapper; drawing a vacuum within the gap through the at least one vacuum port; and injecting an insulator into the gap through the at least one injection port, said insulator comprising organic or inorganic spheres, wherein the step of drawing the vacuum through the at least one vacuum port and injecting the insulator into the gap through the at least one injection port are performed simultaneously and wherein the insulator is injected using a powder pump. providing an inner liner; providing an external wrapper, the wrapper defining at least one injection port and at least one vacuum port; positioning the inner liner within the external wrapper such that a gap is defined between the inner liner and the external wrapper; drawing a vacuum within the gap through the at least one vacuum port; and injecting an insulator into the gap through the at least one injection port, said insulator comprising organic or inorganic spheres, wherein the step of drawing the vacuum through the at least one vacuum port and injecting the insulator into the gap through the at least one injection port are performed simultaneously and wherein the insulator is injected using a powder pump.
A method for separating a master electrode (101, 201) and a substrate (102, 202) in an ECPR printing process after printing, the master electrode (101, 201) or the substrate (102, 202) being arranged on a first chuck (103, 104, 203, 204) and the other one of said master electrode (101, 201) and the substrate (102, 202) being arranged on a second chuck (103, 104, 203, 204), said master electrode (101, 201) and substrate (102, 202) having a planar interaction area during plating, said method comprising initiating separation at the edge of the master electrode (101, 201) and the substrate (102, 202); pulling a front side of the master electrode (101, 201) apart from a front side of the substrate (102, 202) such that the interaction area between the master electrode (101, 201) and the substrate (102, 202) is decreased continuously from the periphery of the master electrode (101, 201) and the substrate (102, 202) towards a centre of the master electrode (101, 201) or substrate (102, 202).
A method of producing a 3-dimensional part, the method comprising: printing, by a deposition system, a plurality of 2-dimensional layers onto a plurality of carrier sheets, wherein the plurality of carrier sheets move through the deposition system in a single direction without changing the direction of the plurality of carrier sheets during a deposition process; successively transferring, by a transfer system, at least one 2D layer from at least one carrier sheet of the plurality of carrier sheets, onto the 3D part, wherein the 3D part is located on a base substrate, wherein the plurality of carrier sheets move through the transfer system in the same single direction without changing the direction of the plurality of carrier sheets during a transfer process, characterized in that the carrier sheets with the plurality of 2D layers are collected in a tray so that the transfer system transfers the plurality of 2D layers onto the 3D part after the plurality of 2D layers are successively printed onto the plurality of carrier sheets. printing, by a deposition system, a plurality of 2-dimensional layers onto a plurality of carrier sheets, wherein the plurality of carrier sheets move through the deposition system in a single direction without changing the direction of the plurality of carrier sheets during a deposition process; successively transferring, by a transfer system, at least one 2D layer from at least one carrier sheet of the plurality of carrier sheets, onto the 3D part, wherein the 3D part is located on a base substrate, wherein the plurality of carrier sheets move through the transfer system in the same single direction without changing the direction of the plurality of carrier sheets during a transfer process, characterized in that the carrier sheets with the plurality of 2D layers are collected in a tray so that the transfer system transfers the plurality of 2D layers onto the 3D part after the plurality of 2D layers are successively printed onto the plurality of carrier sheets.
A wireless device (102, 1602), comprising: at least two microphones on the wireless device, the at least two microphones on the wireless device being configured to capture sound from a target user; processing circuitry coupled to the at least two microphones on the wireless device; and a communication interface (124, 1606) coupled to the processing circuitry, the communication interface configured to receive external device microphone audio from at least two external device microphones (118, 120) of an external device to assist the processing circuitry in the wireless device to locate the target user, wherein the processing circuitry is configured to determine a location of the external device relative to the wireless device and to locate the target user by triangulation based on: i) a first estimated target user direction of arrival, DOA, using the at least two microphones of the wireless device, ii) a second estimated target user DOA using the external device microphone audio from the at least two external device microphones, and iii) the location of the external device relative to the wireless device. at least two microphones on the wireless device, the at least two microphones on the wireless device being configured to capture sound from a target user; processing circuitry coupled to the at least two microphones on the wireless device; and a communication interface (124, 1606) coupled to the processing circuitry, the communication interface configured to receive external device microphone audio from at least two external device microphones (118, 120) of an external device to assist the processing circuitry in the wireless device to locate the target user, wherein the processing circuitry is configured to determine a location of the external device relative to the wireless device and to locate the target user by triangulation based on: i) a first estimated target user direction of arrival, DOA, using the at least two microphones of the wireless device, ii) a second estimated target user DOA using the external device microphone audio from the at least two external device microphones, and iii) the location of the external device relative to the wireless device.