Abstract: A tactile sensor, comprising: a cover provided so as to cover at least a portion of a base; a first force detection section configured to detect a force acting on the cover in a direction toward the base from the cover; and a second force detection section configured to detect the force acting on the cover in a case in which the cover is further displaced in the direction toward the base after the first force detection section has detected the force acting on the cover.

Abstract: An integrated system for detecting a red palm weevil (RPW), farm fire, and soil moisture includes an optical fiber configured to be extending to a tree, and a distributed acoustic sensor (DAS) box connected to the optical fiber. The DAS box is configured to process first to third different optical signals reflected from the optical fiber, to determine a presence of the RPW from the first optical signal, a temperature at a location along the optical fiber from the second optical signals, and a moisture at a location around the tree from the third optical signal.

Abstract: A capacitive measurement circuit for a capacitive sensing device having a plurality of antenna electrodes includes: a measurement signal voltage source, a remotely controllable switching unit, and a current measurement circuit. The switching unit includes a plurality of ports and switching members that are configured to provide connections between selected ports. The measurement signal voltage source and the current measurement circuit are operatively connected to a distinct port. Each antenna electrode is individually connectable to a distinct port. The switching unit is configured to connect, within a same measurement cycle, each of the antenna electrodes to the voltage output port and the current measurement circuit for loading mode operation. The switching unit is further configured to connect at least one of the antenna electrodes to the voltage output port and at least one other antenna electrode of the antenna electrodes to the current measurement circuit for coupling mode operation.

Abstract: The present technology is to provide a technique for further optimizing microparticle suction conditions, using a microparticle sorting microchip. The present technology provides a method for optimizing microparticle suction conditions, using a microparticle sorting microchip including: a main flow channel in which a sheath solution and a microparticle-containing sample solution flow; and a pressure chamber that sucks microparticles. The method includes: the step of acquiring data of a velocity V of each microparticle, by introducing the sheath solution and the microparticle-containing sample solution into the main flow channel, and detecting the point of time at which the microparticle passes through a predetermined position in the main flow channel; and the step of controlling the pressure for sucking the microparticles, on the basis of the data of the velocity V of each microparticle.

Abstract: The invention relates to a method for determining the total volume and/or the true volume and the porosity of objects, wherein a gas chamber of a closed measurement chamber is compressed or expanded, this volume change ?V in the measurement chamber causes a movement change of a membrane of a transducer, wherein the movement of this membrane of the transducer correlates linearly with the volume change ?V in the measurement chamber, the mechanical movement of said membrane of the transducer being triggered by at least one frequency, as a function of the volume of an object in a measurement chamber, and the movement change of the membrane being measured by a sensor head. The invention also relates to a device suitable for the method.

Abstract: A current load circuit for testing a power supply circuit includes a control circuit and a load generation circuit. The control circuit is configured to generate a reset signal according to a clock signal. The load generation circuit is coupled to the control circuit and has several load configurations. The load generation circuit is configured to provide one of the load configurations as a current load of the load generation circuit according to the clock signal and the reset signal and receive a portion of the supply current provided by the power supply circuit according to the current load to generate an indication signal for indicating a performance of the power supply circuit.

Abstract: A heterogeneous sensor system includes a magnetic field sensor and an inductive sensor. A checker is configured to receive the magnetic field sensor output signal and the inductive sensor output signal and determine whether an error has occurred based on a comparison of the magnetic field sensor output signal and the inductive sensor output signal. Targets include at least a portion that is conductive and may include a ferromagnetic portion for back biased magnetic sensing. Additional features include on axis and off axis positioning of the sensors with respect to the target, multi-track targets for absolute position sensing, angle sensing and torque sensing configurations.

Abstract: Disclosed is a signal processing method for a distributed acoustic sensing system (DAS), where a scattered signal that was scattered at a scattering location along an optical path is received and interfered with a local oscillator signal to generate a first carrier signal that is modulated by a phase difference between the local oscillator signal and the scattered signal. The first carrier signal is then digitally processed in order to generate a second carrier signal that is modulated by a spatial differential of the phase difference. The spatial differential of the phase difference is directly related to the strain (or acoustic environment) of the optical path at the scattering location, and so enables the strain at the scattering location to be estimated.

Abstract: An anthropomorphic test device includes a spine assembly defining a spinal axis; a neck assembly coupled to a head assembly; and a neck bracket assembly coupling the neck assembly to the spine assembly. The neck bracket assembly has a base secured to the spine assembly with a base plane transverse to the spinal axis and a mount secured to the neck assembly and coupled to the base with the spinal axis passing through said mount. A pivot mechanism is secured to the base and mount with the neck and head assemblies pivoting relative to the base and spine assembly in a plurality of head positions. The mount has upper and lower surfaces angled to each other with one of the upper and lower surfaces being positioned at an angle relative to the base plane in all of the plurality of head positions.

Abstract: A test device (10) for testing screwing devices, comprising a shaft (14) with an end (15) for connection to a screwing device and an opposite end (16) for connection to a joint to be screwed. The device (10) further comprises a first transducer (18) for detecting the rotation angle of the shaft (14) and a second transducer (19) for detecting the torque transmitted by the shaft (14) between the two ends (15, 16). The device (10) further comprises a control unit (20), an NFC communication module (31), a memory (30), and means (24, 31) for communication with the outside. The control unit stores in the memory (30) an identification code received from the NFC communication module (31) and associates it in the memory (30) with test data obtained from the first and second transducers (18, 19). Then the communication means (24, 31) send to the outside data obtained from the contents of the memory (30).

Abstract: A method for diagnosing whether or not a judder detection module mounted on a vehicle is operating normally includes receiving a diagnosis request requesting that the judder detection module of the vehicle be diagnosed; preparing for an execution environment for diagnosis of the judder detection module; activating the judder detection module; forcibly generating judder in the vehicle; and determining whether or not the judder detection module operates.

Abstract: Provided herein are methods of characterizing rock qualities, such qualities of rock obtained as cuttings from petroleum operations. One embodiment comprises determining the carbonate grain size of one or more rock samples by subjecting the samples to conditions that cause release of carbon dioxide or carbon dioxide-related compound(s) and quantifying the amount thereof. In another embodiment, the invention provides a method of identifying regions of a geologic area likely to be associated with faults by identifying regions of low carbon dioxide or other target volatile compound(s) compared with expected properties and/or the surroundings of the low volatile compound region. Other methods involve analyzing differences in the amounts of compounds of different sizes in different geologic areas. The methods can aid in guiding petroleum exploration and/or production operations.

Abstract: A fluid flow sensing and bubble detecting apparatus, comprising: —housing provided with a cavity configured to receive a tube through which conductive fluid flows; —a fluid flow sensing and bubble detecting electrical sensor assembly supported by the housing and configured to sense the flow of the fluid flowing through the tube and to detect bubbles in the fluid; and—an electrically grounded Electro-Magnetic Interference (EMI) shielding arranged between at least a part of the sensor assembly and the cavity such that the EMI shielding protects the sensor assembly from unwanted EMI emanating from a tube received within the cavity, which might otherwise cause the fluid flow sensing and bubble detecting apparatus to generate false bubble detection signals.

Abstract: A looseness detection structure includes: a structure (transducer) T which is formed on a surface of a cable; a screw which tightens and fixes the cable in contact with the structure T; and a terminal (detection unit) which transmits a transmission signal to the structure T, receives a reception signal returning after propagating through the structure T, and detects the loosening of the screw based on a change in the reception signal.

Abstract: This document discloses a power leakage sensor for a circuit, comprising: a power switch controller circuit coupled with at least one power switch for the digital circuit, the power switch controller configured to control the at least one power switch, to monitor power supply of the digital circuit, and to perform the following: a. in response to the detecting that the power supply to the circuit is powered on, output a power-off signal to the at least one power switch; and b. in response to the measured power supply metric falling below a threshold in response to the power-off signal, output a power-on signal to the at least one power switch. The power leakage sensor further comprises a frequency counter circuit configured to count a frequency of executing steps a. and b., the frequency indicating a proportion of power leakage in the digital circuit.

Abstract: [Object] To provide an arithmetic device, an arithmetic method, and a gas detection system that are capable of easily correcting deterioration over time of a detection element. [Solving Means] The arithmetic device includes a calculation unit. The calculation unit calculates a correction coefficient from a detection element that causes a resonant frequency change by adsorption of gas on the basis of a resonant frequency change amount associated with a humidity change of the detection element in a degraded state and a resonant frequency change amount associated with a humidity change of the detection element in an initial state that was acquired in advance, and corrects the resonant frequency change amount of the detection element in the degraded state by using the correction coefficient.

Abstract: According to an example aspect of the present invention, there is provided a sensor structure formed on a substrate comprising a sensor frame, comprising electric contacts for sensors, an active sensor within the sensor frame comprising at least a capacitive humidity sensor. In accordance with the invention the active sensor is connected to the sensor frame only by a thin thermally isolating layer supporting the active sensor, the thermally isolating layer including electric contacts from the sensor frame.

Abstract: A power transfer system for supplying electric power to a battery of an electric vehicle including a control architecture capable of controlling the transmission of electric power to a battery of the electric vehicle and, at the same time, capable of providing frequency control functionalities to optimize power transmission efficiency. In a further aspect, the invention relates to a method for controlling a power transfer system.

Abstract: Various embodiments are directed to systems, apparatus and methods configured for anthropometrics data/measurement acquisition such as for fitment of handguns, hand tools, weapons and the like.

Abstract: A leakage detector is used with a cable tray run configured to support one or more electrical cables. The leakage detector includes an electrical conductor extending around the cable tray run generally transverse to a length of the cable tray run. A magnetic sensor is coupled to the electrical conductor. In use the leakage detector is configured to sense magnetic flux generated by current flowing through the one or more electrical conductors adjacent the leakage detector. More than one leakage detector can be used in a leakage detection system. The leakage detection system may further include a central computing device to determine if there is leakage current from the one or more electrical conductor in the cable tray run based on signals received from the leakage detectors.