G01N27/83

Non-destructive inspection method

A non-destructive inspection method of inspecting an inspection target using multiple different types of non-destructive inspection means that include one non-destructive inspection means and at least one other non-destructive inspection means. The method includes determining a marking position on the inspection target in a detection result by the one non-destructive inspection means, causing a device to store the marking position, and fixedly forming a mark on the inspection target corresponding to the marking position. The mark is detectable by the other non-destructive inspection means. The method further includes causing the other non-destructive inspection means to inspect an inspection target including the mark. The method further includes contrasting detection results by the multiple different types of non-destructive inspection means in reference to the mark which is the marking position.

METHOD OF USING MULTIPLE ROW SENSING DEVICE FOR A TIRE
20170370806 · 2017-12-28 ·

A method of using a sensor device for tire inspection is provided. Signals are received from multiples rows of sensors separated by a predetermined distance. The sensors are positioned next to the inner surface of the tire for inspection. Signals from the different rows of sensors are used to identify e.g., breaks in the reinforcements of the tire and also used to identify undesirable signals generated from vibration or jarring of the sensor device.

METHOD AND APPARATUS FOR STATIONARY ELECTROMAGNETIC INSPECTION (EMI) WITH ORTHOGONAL MAGNETIZERS

A stationary electromagnetic inspection (EMI) apparatus and method are disclosed which includes a base; a plurality of hydraulic clamping rollers, connected to that base, operable to move a test pipe forward and backward in a translational direction only; a transverse flaw detection module comprising a plurality of sensor arms each equipped with rows of magnetic sensor arrays arranged in a stagger manner along an axis of a test pipe; and a longitudinal flaw detection module comprising magnetizers and magnetic sensor arrays each respectively arranged orthogonal to one another.

TRACKING AND ESTIMATING TUBING FATIGUE IN CYCLES TO FAILURE CONSIDERING NON-DESTRUCTIVE EVALUATION OF TUBING DEFECTS
20220365031 · 2022-11-17 ·

A technique facilitates tracking and assessing a fatigue life of a tubing string utilizing, for example, estimation of cycles to failure when used in a wellbore operation. The technique may comprise initially determining a fatigue life of a tubing string. Additionally, the technique comprises utilizing a sensing device, e.g. a magnetic flux leakage (MFL) device, to monitor the tubing string. When an anomaly, e.g. a new defect, is detected by the sensing device, a new fatigue life of the tubing string is determined based on the change. The new fatigue life may be used to estimate a fatigue life in terms of cycles to failure.

TRACKING AND ESTIMATING TUBING FATIGUE IN CYCLES TO FAILURE CONSIDERING NON-DESTRUCTIVE EVALUATION OF TUBING DEFECTS
20220365031 · 2022-11-17 ·

A technique facilitates tracking and assessing a fatigue life of a tubing string utilizing, for example, estimation of cycles to failure when used in a wellbore operation. The technique may comprise initially determining a fatigue life of a tubing string. Additionally, the technique comprises utilizing a sensing device, e.g. a magnetic flux leakage (MFL) device, to monitor the tubing string. When an anomaly, e.g. a new defect, is detected by the sensing device, a new fatigue life of the tubing string is determined based on the change. The new fatigue life may be used to estimate a fatigue life in terms of cycles to failure.

Automated inspection for internal corrosion
11668773 · 2023-06-06 ·

A system for magnetically inspecting a metallic component uses a manipulator configured to manipulate a relative position between a part fixture that holds the metallic component and a probe fixture that holds a magnetic probe, thereby causing the probe tip to trace an inspection route along the surface of the metallic component so that the probe tip contacts the metallic component such that an angular difference between the probe axis and a vector normal to the surface is less than a predetermined angle delta. The magnetic probe has a probe tip that measures magnetic permeability of the metallic component along the inspection route, which the controller receives. A method of performing the magnetic inspection is also disclosed.

DEFECT INSPECTION DEVICE AND DEFECT INSPECTION METHOD
20170328864 · 2017-11-16 ·

A defect inspection device configured to measure a surface shape of an inspection target using light applied to the inspection target via a spatial light phase modulator based on an interference state of reflected light from the inspection target obtained via the spatial light phase modulator, to measure magnetic field distribution of a surface of the inspection target magnetized by an excitation device for magnetizing the inspection target using light applied to the inspection target via the spatial light phase modulator based on an interference state of reflected light from the inspection target obtained via the spatial light phase modulator, and to separate data of a magnetic field specific portion which exists on the surface of the inspection target from magnetic field distribution data which is a measurement result of magnetic field distribution of the inspection target based on surface shape data which is a measurement result of the surface shape of the inspection target, to suppress deterioration of measurement accuracy of magnetic field distribution generated by the surface shape of the inspection target and to improve defect detection accuracy.

Magnetic material inspection device
11493574 · 2022-11-08 · ·

The magnetic material inspection device includes: a differential coil configured to detect a change in a magnetic field of a magnetic material and transmit a differential signal, the differential coil including a pair of receiving coils; a detection coil configured to detect the change in the magnetic field of the magnetic material and transmit a detection signal; and a controller configured to detect a state of the magnetic material based on the differential signal of the differential coil and detect the state of the magnetic material based on the detection signal of the detection coil.

Electromagnetic multifunction inspection apparatus
11493319 · 2022-11-08 ·

A flaw detection apparatus for use with a tubular has a helixing conveyor adapted to receive the tubular thereon, a frame positioned over a center section of the helixing conveyor, and a plurality of inspection devices retained by the frame so as to detect flaws in the tubular as said helixing conveyor moves the tubular through the frame. The helixing conveyor has a plurality of sets of rollers that are angularly adjustable relative to a longitudinal axis of the helixing conveyor. The plurality of inspection devices include a longitudinal inspection device, a Hall Effect wall thickness inspection device, an oblique inspection device, a transverse inspection device, and a grade verification/comparator device.

Linkage assembly for in-line inspection tool
09804132 · 2017-10-31 ·

An in-line pipeline inspection tool includes a plurality of sensors assemblies distributed about a central body. Each sensor assembly includes a sensor body coupled at the ends thereof to the central body by first and second linkage assemblies. The linkage assemblies include first and second links, the first link coupled by a first pivot to the central body and by a second pivot to the second link. The second link is coupled to the sensor body by a third pivot. As the tool is moved in one direction, the sensor body is urged away from the first linkage assembly, which engages a block that prevents further rotation of about one of the pivots. As the tool is moved in another direction, the block disengages, thereby permitting rotation about all three pivots. The second linkage assembly functions in an identical fashion.