Systems, methods, and apparatuses for inspecting a tank containing a flammable fluid are provided. A vehicle configured to inspect the tank can include a propeller, a battery, a control unit, an inspection device, and a ranging device. The battery provides power to the propeller, the control unit, the inspection device, and the ranging device. The control unit generates a map of the tank and determines a first position of the vehicle on the map. The propeller moves the vehicle through the flammable fluid in the tank. The inspection device includes a pulsed eddy current array to obtain inspection data indicating a quality of a tank wall. The control unit causes the propeller to move the vehicle from the first position to a second position within the tank. The control unit obtains first inspection data indicating the quality of the tank wall, and stores the first inspection data.

Systems and methods are provided for collecting measurement data for a three-dimensional object. In embodiments, a computer model of the three-dimensional object is generated that correlates points on the three-dimensional object with points in three-dimensional space; the computer model is used to collect measurement data of the three-dimensional object and associate the collected measurement data with points in three-dimensional space; and a plan view computer model of the three-dimensional object is generated that depicts the measurement data in two dimensions and that associates the depicted measurement data with points in three-dimensional space.

Systems and methods are provided for collecting measurement data for a three-dimensional object. In embodiments, a computer model of the three-dimensional object is generated that correlates points on the three-dimensional object with points in three-dimensional space; the computer model is used to collect measurement data of the three-dimensional object and associate the collected measurement data with points in three-dimensional space; and a plan view computer model of the three-dimensional object is generated that depicts the measurement data in two dimensions and that associates the depicted measurement data with points in three-dimensional space.

System (100) for checking the presence of thickness restrictions on at least one mechanical component (1), comprising at least one base (2) for fixing said mechanical component (1) coming from a production line (200) to a plurality of fixing points (L1, L2, L3), and measuring means (3) to measure the thickness of said mechanical component (1) next to at least one control point (P) of said mechanical component (1) to be checked, characterized in that said measuring means (3) comprise at least one mechanical robotic arm (30) adapted to be moved in the direction of said at least one control point (P), wherein said mechanical robotic arm comprises at least one ultrasonic probe (31) for the ultrasonic measurement of the thickness of said mechanical component (1) next to said at least one control point (P), said ultrasonic probe (31) being positionable in the proximity of said at least one control point (P) so that the ultrasonic wave emitted by said ultrasonic probe (31) travels along a direction (Q) substantially orthogonal to the plane (T) tangent to the surface (S) of said mechanical component (1) next to said at least one control point (P) to be checked.

System (100) for checking the presence of thickness restrictions on at least one mechanical component (1), comprising at least one base (2) for fixing said mechanical component (1) coming from a production line (200) to a plurality of fixing points (L1, L2, L3), and measuring means (3) to measure the thickness of said mechanical component (1) next to at least one control point (P) of said mechanical component (1) to be checked, characterized in that said measuring means (3) comprise at least one mechanical robotic arm (30) adapted to be moved in the direction of said at least one control point (P), wherein said mechanical robotic arm comprises at least one ultrasonic probe (31) for the ultrasonic measurement of the thickness of said mechanical component (1) next to said at least one control point (P), said ultrasonic probe (31) being positionable in the proximity of said at least one control point (P) so that the ultrasonic wave emitted by said ultrasonic probe (31) travels along a direction (Q) substantially orthogonal to the plane (T) tangent to the surface (S) of said mechanical component (1) next to said at least one control point (P) to be checked.

This application relates generally to sensor systems and, more particularly, relates to systems and methods for management of smart wheel sensors that collect actionable sensor data from a rotatable component of a vehicle's wheel. In certain embodiments, a system includes a vehicle body; a rotatable component configured to rotate relative to the vehicle body; an energy harvesting component disposed along a circumference of the rotatable component, wherein the energy harvesting component is configured to generate electric power based on a force to the rotatable component; a sensor configured to produce sensor data by using the electric power while disposed on the rotatable component; and at least one processor disposed within the vehicle body, the at least one processor configured to perform an action within the vehicle body based on a parameter value meeting a threshold value, wherein the parameter value is based on the sensor data.

This application relates generally to sensor systems and, more particularly, relates to systems and methods for management of smart wheel sensors that collect actionable sensor data from a rotatable component of a vehicle's wheel. In certain embodiments, a system includes a vehicle body; a rotatable component configured to rotate relative to the vehicle body; an energy harvesting component disposed along a circumference of the rotatable component, wherein the energy harvesting component is configured to generate electric power based on a force to the rotatable component; a sensor configured to produce sensor data by using the electric power while disposed on the rotatable component; and at least one processor disposed within the vehicle body, the at least one processor configured to perform an action within the vehicle body based on a parameter value meeting a threshold value, wherein the parameter value is based on the sensor data.

A method can include identifying an inspected object with an inspection device; viewing the inspected object through an augmented reality device to identify points; and measuring a thickness of a layer at the inspection points. In response to detecting a region of interest on the surface of the inspected object, an image of the region of interest can be taken. By operation of communication circuits, at least the thickness measurements and images can be transmitted to a server system. A value of the inspected object can be adjusted based on at least the thickness measurements and images from the at least one inspection device. Corresponding devices and systems are also disclosed.

One or more embodiments described herein generally relate to methods and systems for monitoring film thickness using a sensor assembly. In embodiments described herein, a process chamber having a chamber body, a substrate support disposed in the chamber body, a lid disposed over the chamber body, and a sensor assembly coupled to the chamber body at a lower portion of the sensor assembly. The sensor assembly is coupled to the lid at an upper portion of the sensor assembly. The sensor assembly includes one or more apertures disposed through one or more sides of the sensor assembly, and the one or more sensors are disposed in the sensor assembly through the one or more of the apertures.

The present disclosure relates to a method for calibrating a stationary THz measuring device which measures geometric properties of a profile by means of one or more THz sensors during an extrusion of the profile, comprising at least one or more steps.