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Ultrasound Physics Simplified Online Course

$99.00 | 2 Day Course | Melbourne
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Zedu practical physics onlince module
Zedu practical physics onlince module

Ultrasound Physics That Actually Improves Your Scans

Most ultrasound physics courses teach equations. This one teaches you what those equations do - to your image, your probe, and your clinical decisions. If you’ve already studied ultrasound physics but still don’t feel confident adjusting your image or explaining why something is happening, you’re not alone. This course is designed to change that.

No wasted theory. No irrelevant detail. Just clinically useful physics.

Learn Ultrasound Physics Through the Image

Instead of abstract formulas and rote memorisation, every concept in this course is taught through its visible impact on real ultrasound images. You’ll learn to:
  • See how physics shapes what appears on the screen
  • Recognise why an image looks the way it does
  • Connect theory directly to scanning decisions
Because if you can see it, you can understand it - and if you understand it, you can use it.

From Equation → Knob → Image

Every equation in this course earns its place. For each concept, we answer three critical questions:
  1. What is happening physically?
  2. How does it change the image?
  3. What should you do differently when scanning?
This means you’ll know exactly:
  • Which control to adjust
  • When to adjust it
  • Why it works
No wasted theory. No irrelevant detail. Just clinically useful physics.

Designed for Clinicians (DDU, CCPU & Sonography Training)

This module is built specifically for:
  • Doctors preparing for DDU or CCPU
  • Sonography students who have “done physics” but don’t get it yet
  • Tutors and supervisors who need a clear, reliable teaching resource
We focus on what matters in real clinical practice - not engineering-level detail.

Stop Memorising. Start Understanding.

Many learners come to ultrasound physics after struggling with:
  • Forgetting equations after exams
  • Not being able to apply knowledge in practice
  • Feeling unsure how to fix poor image quality
This course flips that approach. You’ll learn to:
  • Understand concepts deeply enough to apply them in new situations
  • Recognise patterns in image quality and artefacts
  • Solve unfamiliar problems using reasoning - not recall

Built Around Real Scanning Problems

Here at Zedu we don’t just teach topics - we teach solutions. You’ll learn how to answer questions like:
  • Why is my image noisy or unclear?
  • Why can’t I see deeper structures?
  • What is causing this artefact - and should I use it or remove it?
  • Why is my Doppler behaving unpredictably?
Each lesson connects physics directly to real-world scanning challenges.

A Course You’ll Use Beyond the Exam

Yes - this course will help you pass your physics assessments. But more importantly, it gives you a framework you can use every time you scan.
  • Revisit concepts quickly when you need them
  • Use it as a reference during clinical training
  • Support teaching and supervision with clear explanations
This isn’t just exam prep - it’s a long-term clinical tool.

Why This Course Is Different

Most ultrasound physics courses:
  • Focus on memorisation
  • Teach concepts in isolation
  • Lack clear clinical relevance
This course is built on a different principle:

If it doesn’t change what you do at the bedside, it doesn’t belong here.

Start Understanding Ultrasound Physics Today

If you’re ready to move beyond memorising formulas and start confidently controlling your image, this course will give you the clarity you’ve been missing. Learn ultrasound physics the way it should have been taught the first time - through the image, and for clinical practice.

Series Learning Objectives

Across this 10-part series, you will build a systematic framework for diagnostic ultrasound:

  • Transducer Mechanics: Define the sequence from pulse transmission to digital display.

  • Tissue Recognition: Relate acoustic impedance and echogenicity to the grayscale image.

  • Strategic Optimisation: Balance frequency and resolution for any anatomical target.

  • Artifact Logic: Classify artifacts into those that hide, help, mimic, or degrade your diagnosis.

  • Hemodynamic Assessment: Select the appropriate mode (B, M, or Doppler) for functional assessment.

  • Safety Protocols: Active management of output power based on Thermal and Mechanical indices.

Features

  • Videos on demand 10 (3 hours)
  • Lifetime access Yes

Ultrasound Physics That Actually Improves Your Scans

Most ultrasound physics courses teach equations. This one teaches you what those equations do - to your image, your probe, and your clinical decisions. If you’ve already studied ultrasound physics but still don’t feel confident adjusting your image or explaining why something is happening, you’re not alone. This course is designed to change that.

No wasted theory. No irrelevant detail. Just clinically useful physics.

Learn Ultrasound Physics Through the Image

Instead of abstract formulas and rote memorisation, every concept in this course is taught through its visible impact on real ultrasound images. You’ll learn to:
  • See how physics shapes what appears on the screen
  • Recognise why an image looks the way it does
  • Connect theory directly to scanning decisions
Because if you can see it, you can understand it - and if you understand it, you can use it.

From Equation → Knob → Image

Every equation in this course earns its place. For each concept, we answer three critical questions:
  1. What is happening physically?
  2. How does it change the image?
  3. What should you do differently when scanning?
This means you’ll know exactly:
  • Which control to adjust
  • When to adjust it
  • Why it works
No wasted theory. No irrelevant detail. Just clinically useful physics.

Designed for Clinicians (DDU, CCPU & Sonography Training)

This module is built specifically for:
  • Doctors preparing for DDU or CCPU
  • Sonography students who have “done physics” but don’t get it yet
  • Tutors and supervisors who need a clear, reliable teaching resource
We focus on what matters in real clinical practice - not engineering-level detail.

Stop Memorising. Start Understanding.

Many learners come to ultrasound physics after struggling with:
  • Forgetting equations after exams
  • Not being able to apply knowledge in practice
  • Feeling unsure how to fix poor image quality
This course flips that approach. You’ll learn to:
  • Understand concepts deeply enough to apply them in new situations
  • Recognise patterns in image quality and artefacts
  • Solve unfamiliar problems using reasoning - not recall

Built Around Real Scanning Problems

Here at Zedu we don’t just teach topics - we teach solutions. You’ll learn how to answer questions like:
  • Why is my image noisy or unclear?
  • Why can’t I see deeper structures?
  • What is causing this artefact - and should I use it or remove it?
  • Why is my Doppler behaving unpredictably?
Each lesson connects physics directly to real-world scanning challenges.

A Course You’ll Use Beyond the Exam

Yes - this course will help you pass your physics assessments. But more importantly, it gives you a framework you can use every time you scan.
  • Revisit concepts quickly when you need them
  • Use it as a reference during clinical training
  • Support teaching and supervision with clear explanations
This isn’t just exam prep - it’s a long-term clinical tool.

Why This Course Is Different

Most ultrasound physics courses:
  • Focus on memorisation
  • Teach concepts in isolation
  • Lack clear clinical relevance
This course is built on a different principle:

If it doesn’t change what you do at the bedside, it doesn’t belong here.

Start Understanding Ultrasound Physics Today

If you’re ready to move beyond memorising formulas and start confidently controlling your image, this course will give you the clarity you’ve been missing. Learn ultrasound physics the way it should have been taught the first time - through the image, and for clinical practice.

Series Learning Objectives

Across this 10-part series, you will build a systematic framework for diagnostic ultrasound:

  • Transducer Mechanics: Define the sequence from pulse transmission to digital display.

  • Tissue Recognition: Relate acoustic impedance and echogenicity to the grayscale image.

  • Strategic Optimisation: Balance frequency and resolution for any anatomical target.

  • Artifact Logic: Classify artifacts into those that hide, help, mimic, or degrade your diagnosis.

  • Hemodynamic Assessment: Select the appropriate mode (B, M, or Doppler) for functional assessment.

  • Safety Protocols: Active management of output power based on Thermal and Mechanical indices.

Features

  • Videos on demand 10 (3 hours)
  • Lifetime access Yes

Practical Physics Module Outline

1.1 Seeing with Sound

  • Definition of ultrasound and sound wave properties.
  • Internal components of an ultrasound transducer.
  • The piezoelectric effect and energy conversion.
  • Process of sound transmission, reception, and image generation.

1.2 256 Shades of Grey

  • Interaction of sound with various tissue types.
  • Mechanics of reflection, refraction, and scattering.
  • Definitions of echogenicity (anechoic, hyperechoic, etc.).
  • Relationship between acoustic impedance and the grayscale image.

1.3 Which Probe and Why?

  • The inverse relationship between frequency and wavelength.
  • Factors affecting axial and lateral resolution.
  • Physical attributes of Linear, Curvilinear, and Phased Array probes.
  • Function and parameters of factory presets.

1.4 Artifacts: Is My Image Lying to Me?

  • The four sources of artifacts: acoustic, equipment, operator, and patient.
  • Standard ultrasound machine assumptions (1540 m/s, straight-line travel).
  • Introduction to the Hide, Help, Mimic, and Degrade classification system.

1.5 Artifacts that Hide Pathology

  • Physics of “clean” vs. “dirty” shadowing.
  • Posterior acoustic enhancement mechanics.
  • Causes of reverberation, comet tail, and ring down artifacts.
  • Identification and mitigation of edge refraction shadows.

1.6 Artifacts that Mimic Pathology

  • Mechanism of mirror image artifacts at strong reflectors.
  • Physics of anisotropy in tendons and nerves.
  • Causes of secondary lobes (Side and Grating lobes).
  • Strategies for verifying phantom structures in multiple planes.

1.7 Artifacts that Degrade Image Quality

  • Impact of over-gain and under-gain (Pseudosludge vs. Pseudocyst).
  • Identification of electrical interference and crystal dropout.
  • Impact of patient habitus and loss of probe contact.
  • Technical optimization using TGC and focal zones.

1.8 Artifacts that Help Diagnose

  • Diagnostic utility of acoustic enhancement in identifying fluid.
  • Using clean shadowing to confirm calculi or bone.
  • Differentiating Comet Tail from Ring Down for lung and gallbladder pathology.
  • Use of the “Positive Mirror Image” to rule out pleural fluid.

1.9 Ultrasound Modes Explained

  • Mechanics of B-Mode (2D grayscale) and M-Mode (motion).
  • Doppler physics: Colour, Power, and Spectral (PW/CW) modes.
  • Temporal vs. spatial resolution trade-offs.
  • Appropriate clinical selection for each imaging mode.

1.10 Keeping Your Patients Safe

  • Thermal effects and the Thermal Index (TI).
  • Non-thermal effects (cavitation) and the Mechanical Index (MI).
  • Implementation of the ALARA principle.
  • Safety guidelines for obstetric and vulnerable patient populations.

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