This course explores sound wave behavior and major ultrasonic wave modes including compressional, shear, surface, and Lamb waves, while providing hands-on instruction in equipment calibration, flaw detection, and thickness measurement.
It addresses the variables related to the propagation, reflection, and attenuation of sound as well as the responses from discontinuities. The various wave modes are presented in a comprehensive way so that the major wave modes are fully understood. These wave modes include compressional (longitudinal or straight beam), shear (transverse), surface (Rayleigh), and thin sheet (Lamb).
The student will be able to understand the display and to calibrate the UT instrument and identify the location of reflectors and discontinuities in various test specimens. UT equipment and transducers are demonstrated. UT is also used for precise thickness measurements and the basic procedure for this is also covered. A number of techniques and applications will also be presented including discussions on the data required for precise reporting.
This course is essential for those desiring to enter and specialize in UT. It is also beneficial for those who will not be practitioners but who want to understand the basic principles and applications of Ultrasonic Testing.
This course specifically addresses the variables related to the propagation, reflection, and attenuation of sound as well as the responses from discontinuities. The various wave modes are presented in a comprehensive way so that the major wave modes are fully understood. These wave modes include compressional (longitudinal or straight beam), shear (transverse), surface (Rayleigh), and thin sheet (Lamb).
The course will demonstrate the use of UT equipment and transducers, enabling students to understand the display and how to calibrate the UT instrument, and to identify the location of reflectors and discontinuities in various test specimens.
Because UT is also used for precise thickness measurements and the basic procedure for this is also covered, a number of techniques and applications will also be presented, including discussions on the data required for precise reporting.
NOTE: There is RECOMMENDED READING assigned at the beginning of the course. The completion of these assignments in addition to self-study is strongly encouraged and will add to the overall training benefit and time to be credited. It will also better prepare the student for the practical lab/’hands-on” session. It is recommended that the student a log of the self-study time. It is also recommended that the applicable Level III be involved and confirm that the reading and self-study assignments have been completed. This should become a part of the student’s training records which may be used in conjunction with subsequent certifications.
Availability to Course Materials
Course Length
Ultrasonic Testing I Chapter 1 – Introduction
Ultrasonic Testing I Chapter 2 – History
Ultrasonic Testing I Chapter 3 – Qualification and Certification
Ultrasonic Testing I – Quiz 1
Ultrasonic Testing I Chapter 4 – Basic Math
Ultrasonic Testing I Chapter 5 – Acoustics
Ultrasonic Testing I – Quiz 2
Ultrasonic Testing I Chapter 6 – Wave Modes
Ultrasonic Testing I – Quiz 3
Ultrasonic Testing I Chapter 7 – Training Exercise
Ultrasonic Testing I Chapter 8 – Transducers
Ultrasonic Testing I – Quiz 4
Ultrasonic Testing I Chapter 9 – Test Instruments
Ultrasonic Testing I – Quiz 5
Ultrasonic Testing I Chapter 10 – Calibration
Ultrasonic Testing I – Quiz 6
Ultrasonic Testing I Chapter 11 – Demonstrations: Olympus 38DL Plus and Olympus EPOCH 600
Ultrasonic Testing I Chapter 12 – Demonstration: GE DMS Go
Ultrasonic Testing I Chapter 13 – Closing
Ultrasonic Testing I – Final Exam
Tim is a consultant, instructor, and technical expert with over 30 years of experience in nondestructive testing, specializing in ultrasonic testing (UT). He is credited with several key innovations and has received multiple prestigious awards. Tim’s background includes roles as senior NDT engineer and applications engineer, with extensive work in naval nuclear, aerospace, and inspection industries, focusing on field applications, probability of detection (POD), aging aircraft inspection, and test equipment development.