Inspection path display

1. An inspection system comprising:

at least one data processor configured to operate with a probe, a display device, and a position tracker to inspect an object; and

a data storage device storing executable instructions, the data storage device being accessible by the at least one processor, wherein, when executed by the at least one processor, the executable instructions implement operations comprising:

displaying at least one probe travel axis on the display device, the at least one probe travel axis extending through a plurality of inspection position points,

generate a first inspection value based on a first signal from the probe, the first inspection value characterizing a characteristic of the object at a first object point,

generate a second inspection value based on a second signal from the probe, the second inspection value characterizing the characteristic of the object at a second object point,

displaying an inspection path based on the first inspection position and the second inspection position, the inspection path extending relative to the at least one probe travel axis, and

displaying a reference path extending relative to the at least one probe travel axis, wherein the inspection path and the reference path form a track characterizing information related to the characteristic of the object at the first and second object points.

2. The inspection system of claim 1 , wherein, the first and second inspection values are each selected from a group consisting of an impedance value, a phase angle value, and an eddy current factor value.

3. The inspection system of claim 1 , wherein the first and second inspection values are each selected from a group consisting of a signal strength value, a time value, and an ultrasound factor value.

4. The inspection system of claim 1 , wherein the characteristic is selected from a group consisting of a physical characteristic, an electrical characteristic, and a chemical characteristic.

5. The inspection system of claim 1 , wherein

the first signal is based on a first dimension of the object; and

the second signal is based on a second dimension of the object, wherein the first and second dimensions are different.

6. The inspection system of claim 1 , wherein the at least one processor is operable according to the instructions to operate with the display device to display at least one inspection axis intersecting with the at least one probe travel axis.

7. The inspection system of claim 1 , wherein:

the at least one processor is operable according to the instructions to receive a maximum deviation setting relating to a maximum deviation between a first reference value of the reference path and the first inspection value of the inspection path; and

the at least one processor is operable according to the instructions to operate with the display device to generate a failure outcome output if a difference between the first reference value of the reference path and the first inspection value of the inspection path, is greater than the maximum deviation.

8. The inspection system of claim 7 , wherein the at least one processor is operable according to the instructions to operate with the display device to generate a pass outcome output if any difference between the first reference value of the reference path and the first inspection value of the inspection path, is equal to or less than the maximum deviation.

9. An inspection system comprising:

at least one processor configured to operate with a probe and a position tracker to inspect an object, the at least one processor being programmed to operate with a display device to

display at least one probe travel axis, the at least one probe travel axis extending through a plurality of inspection position points;

generate a first inspection value based on a first signal from the probe, the first inspection value characterizing a characteristic of the object at a first object point;

generate a second inspection value based on a second signal from the probe, the second inspection value characterizing a characteristic of the object at a second object point;

perform an association, the association including

associating the first inspection value with the first position point, and

associating the second inspection value with the second position point;

display an inspection path based on the association, the inspection path extending relative to the at least one probe travel axis; and

display a reference path extending relative to the at least one probe travel axis, the reference path being based on a first reference value corresponding to the characteristic at the first object point, and a second reference value corresponding to the characteristic at the second object point.

10. The inspection system of claim 9 , wherein, the first and second inspection values are each selected from a group consisting of an impedance value, a phase angle value, and an eddy current factor value.

11. The inspection system of claim 10 , wherein the first and second inspection values are each selected from a group consisting of a signal strength value, a time value, and an ultrasound factor value.

12. The inspection system of claim 9 , wherein the characteristic is selected from a group consisting of a physical characteristic, an electrical characteristic, and a chemical characteristic.

13. The inspection system of claim 9 , wherein:

the first inspection value is derived from a first signal received from the probe, the first signal being based on a first dimension of the object;

the second inspection value is derived from a second signal received from the probe, the second signal being based on a second dimension of the object, there being a difference between the first and second dimensions; and

the first and second signals are different based on the difference between the first and second dimensions of the object.

14. The inspection system of claim 9 , wherein the at least one processor is programmed to operate with the display device to display at least one inspection axis intersecting with the at least one probe travel axis.

15. The inspection system of claim 9 , wherein the at least one processor is programmed to:

operate with the display device to receive a maximum deviation setting related to a distance between the inspection path and the reference path; and

generate an output depending upon the distance.

16. The inspection system of claim 15 , wherein:

the at least one processor is operable according to the instructions to operate with the display device to generate a failure outcome output if the inspection path is further from the reference path than the distance; and

the at least one processor is operable according to the instructions to operate with the display device to generate a pass outcome output if the inspection path is not further from the reference path than the distance.

17. The inspection system of claim 9 , further comprising

a position tracker coupled to the at least one processor, the position tracker being configured to be operated in the reference mode and the inspection mode;

a memory device coupled to the at least one processor, the memory device storing a plurality of instructions;

a display device coupled to the at least one processor; and

a probe coupled to the at least one processor, the probe being configured to be operated in a reference mode and an inspection mode, wherein the probe is operable to

transmit a plurality of outgoing reference signals toward a reference object extending along a reference object axis when in the reference mode,

receive a plurality of incoming reference signals resulting from interaction of the outgoing reference signals with the reference object when in the reference mode,

transmit a plurality of outgoing inspection signals toward the object extending along an object axis when in the inspection mode, and

receive a plurality of incoming inspection signals resulting from interaction of the outgoing inspection signals with the object when in the inspection mode.

18. An inspection method, comprising:

graphically displaying at least one probe travel axis, the at least one probe travel axis extending through a plurality of inspection position points;

generating a first inspection value based on a first signal from the probe, the first inspection value characterizing a characteristic of the object at a first object point;

generating a second inspection value based on a second signal from the probe, the second inspection value characterizing the characteristic of the object at a second object point;

performing an association that includes

associating the first inspection value with the first position point, and

associating the second inspection value with the second position point;

displaying an inspection path based on the association, the inspection path extending relative to the at least one probe travel axis; and

displaying a reference path extending relative to the at least one probe travel axis, the reference path being derived from an inspection of a reference characteristic of a reference object,

wherein the inspection path and the reference path form a track that characterizes a difference between the characteristic of the object and the reference characteristic of the reference object.

19. The inspection method of claim 18 , wherein

the reference path is based on

a first reference value corresponding the reference characteristic at the first object point, and

a second reference value corresponding the reference characteristic at the second object point;

the first and second inspection values are each selected from a first group consisting of an impedance value, a phase angle value, an eddy current factor value, a signal strength value, a time value, and an ultrasound factor value; and

the characteristic is selected from a second group consisting of a physical characteristic, an electrical characteristic, and a chemical characteristic.

20. The inspection method of claim 19 , comprising:

receiving an input of a maximum deviation relating to a distance between the inspection path and the reference path; and

generating a failure outcome output as a result of the distance being greater than the maximum deviation.