Certificate in Clinician Performed Ultrasound (CCPU)

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Certificate in Clinician Performed Ultrasound (CCPU) Syllabus Physics Tutorial

Physics Tutorial Purpose: Training: Assessments: This unit is designed to cover the theoretical and practical curriculum for Physics. Recognised either through the ASUM online tutorial or attendance at an ASUM accredited Physics course or equivalent. There is one multiple choice question throughout each topic, and each topic concludes with a 5 multiple choice question quiz. Introduction Ultrasonic imaging provides impressively detailed images of gross anatomy and pathology. The high quality of these images can lead to overconfidence in interpretation of the images in a clinical setting. In practice, all ultrasound images are distorted to some extent and are subject to artifact. While not always materially detracting from the image, it is essential to recognise the presence of artifacts and minimise their effects in order to draw appropriate clinical conclusions from ultrasound images. This is of particular significance in studies involving accurate measurement (for example, estimating tumour growth) and where accurate localisation of a structure is required. As most artifacts must be dealt with by the user at the time of the ultrasound examination, the importance of understanding the imaging process and its limitations has led to the inclusion of a compulsory physics component in all qualifications issued by ASUM. Although commonly referred to as physics, this syllabus deals more generally with the technology relied upon in ultrasonic imaging and defining its limitations in clinical applications.

Course Objectives On completing this unit, learners should be able to: Know the parameters that define the safe use of diagnostic ultrasound Understand how an ultrasound image is obtained and how the use of the controls on ultrasound equipment can be used to alter the image in order to obtain an optimal image. Recognise the limitations of machine default settings Demonstrate understanding of the physical principles underpinning the practice of diagnostic ultrasound. Course Content Introduction: The Ultrasound Examination Optimal Plane of Scan Optimising the Image Imaging Artifacts Origins of Artifacts Dealing with Artifacts Interactions Principles of Imaging Forming a Greyscale Image Greyscale Imaging Tissue Harmonics Imaging Controls Gain TGC Preset Controls Strengths and Limitations Flow Measurement and Imaging Spectral Doppler Colour Doppler Power Doppler Strengths and Limitations Doppler Controls Gain TGC Doppler Gain

Colour Gain Velocity Range Aliasing Baseline Shift Colour Quality Preset Controls High Pass Filters (HPF) Doppler Artifacts Frequency Aliasing Intrinsic Spectral Broadening Inappropriate HPF Inadequate Frame Rate Flow Reversal vs. Aliasing Transducer Arrays Single element transducer Multi-element arrays Scanning Steering Focussing Multiple Focal Zones Frame rate limitations Guidelines for Safe Practice Section 1 Propagation Ultrasound Wavelength Propagation Speed Relationship between parameters The Pulse-Echo principle Range Errors Attenuation o Attenuation Coefficient Scattering Reflection Attenuation

Specular reflection Characteristic Impedance Reflection Coefficient Scattering Refraction Effect of Differences in Propagation Speed Critical Angle Effect of Refraction Relevance of Propagation Imaging Technology Single Element Transducers Multi-Element Transducer Arrays Transducers in Practice Section 2 Tissue Harmonic Imaging Frequency Components Distortion of the Ultrasound Wave Harmonic Generation in Tissue Tissue Harmonic Imaging Strength of Harmonics Reverberation Artifacts Other Artifacts Transmit Pulse Bandwidth Pulse inversion harmonics Limitations Contrast harmonics Imaging Artifacts Resolution artifacts o Axial resolution o Lateral resolution Slice thickness Temporal resolution Depth of origin artifacts Reverberation artifact

Propagation speed artifact Range ambiguity Beam path artifacts Refraction artefact Mirror artefact Mirror artefact and Doppler Attenuation artifacts o Shadowing o Enhancement Equipment settings artifacts o TGC settings Movement artifact Bioeffects and Safety Types of Bioeffect o Thermal bioeffect o Mechanical bioeffect Determining the acoustic output o Acoustic pressure Intensity Time variation Spatial variation Power Thermal and mechanical indices o Thermal index o Mechanical index Policies and advice ALARA Equipment Performance Spatial resolution Axial resolution Lateral resolution Contrast resolution Temporal resolution Image processing Testing equipment performance Test object

Phantom Measurement accuracy Spatial resolution Slice thickness Contrast resolution Penetration Equipment settings Doppler phantoms Flow phantoms Moving string phantom Section 3 Advances in Ultrasound Spacial compound imaging o Advantages and limitations Ultrasound contrast agents Contrast agents and harmonics Three dimensional ultrasound Spatial resolution 3D display methods Re-slicing Orthogonal plane view Surface rendering Maximum projection rendering 4D ultrasound Extended field of view Automatic image optimisation Image processing Depth of penetration Coded signals Matrix transducers Spectral Doppler The Doppler effect Doppler ultrasound The Doppler equation The Doppler angle

How is the Doppler angle determined? Limits on the Doppler angle Continuous wave Doppler Continuous wave Doppler processing Controls Advantages Pulsed Doppler Pulsed Doppler processing Spectral analysis The spectral display o Measurements from the spectral display The Sampling Theorem Pulsed Doppler sample volume Patient exposure Colour Doppler Acquiring the colour Doppler information Colour Doppler signal processing Wall filter and tissue/blood discrimination Colour Doppler signal processing The colour Doppler display Spatial filtering, persistence Variance Colour Doppler controls Colour box, line density Gain, power Wall filter Grey-scale priority Colour velocity scale, baseline shift Colour map Persistence Uses and limitations of colour Doppler Colour Doppler and pulsed Doppler Angle effects Power mode colour Doppler Tissue Doppler Doppler Artifacts

Frequency aliasing Baseline shift Other remedies High PRF mode, range ambiguity Frequency aliasing in colour Doppler Intrinsic spectral broadening Spectral mirror artifact Thump and flash artefact Colour Doppler temporal artefact Twinkle artifact Miscellaneous Glossary Mathematics Multiplication and division Units Powers of 10 Scientific notation Logarithms Decibels Reality checking answers Exercises Answers Teaching Methodologies The ASUM Physics Tutorial is conducted online through MyASUM. It is a selfpaced tutorial. Accredited courses can be found on the ASUM website, www.asum.com.au. Go to Education Programs, CCPU, Course Accreditation information, List of Accredited Courses. Assessment There is one multiple choice question throughout each topic, and each topic concludes with a 5 multiple choice question quiz.