Module 1: Basic Principles of Ultrasound and Ultrasound Testing
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Sound versus Ultrasound
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Physical properties of ultrasound waves
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Description of conventional UT hardware
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Origin and use of A-, B- and C-Scans
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Production of ultrasound waves
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Properties of the ultrasound beam
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Structure and content of a UT procedure
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Choosing the right hardware for an inspection
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Importance of calibration
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Inspection guidelines
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Data analysis principles
Module 2: Principles Underlying Phased Array Ultrasound
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Origin of phasing
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Phased array hardware
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Scans and views specific to phased array
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Production of phased array ultrasound
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Properties of 0-degree phased array ultrasound beam
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Phased array specific procedures
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How to build a 0-degree phased array ultrasound setup
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Calibration of a 0-degree phased array set-up
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Introduction to 0-degree phased array scanning
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Analysing 0-degree phased array data
Module 3: Beam Steering in Phased Array Ultrasound
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Introduction to beam steering
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Inner workings of phased array instrument
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Scans and views specific to angled phased array
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Beam steering theory and limitations
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How to build an angled phased-array ultrasound set-up
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Calibration of an angled phased array set-up
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Introduction to angled phased array scanning
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Analysing angled phased array data
Module 4: Beam Focussing In Phased Array Ultrasound
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Introduction to focusing
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Phased array probes
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Multiple scans and views
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Beam focusing theory and limitations
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Choosing between focused and non-focused beams
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Calibration with focused beams
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Defects shape vs. focal distance
Module 5: Optimizing Data Quality
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Introduction to data quality
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Selecting optimal hardware
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Instrument limitations
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Data quality theory and limitations
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Optimizing setups parameters
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Encoder calibration
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Remote data analysis
Module 6: Review
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Introduction
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Hardware
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Scans and views
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Theory
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Set-ups
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Calibration
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Inspection
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Data analysis