Physiology (2025/6)

These lecture notes are for the introductory BME one semester course in physiology and anatomy of the human body, given at Tel-Aviv University. These will continuously update on a semi-weekly basis. Check back to see whether new lecture notes have been uploaded. They are in Hebrew.

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• Lecture 1. Introduction

• Lecture 2. Cellular Neurophysiology

• Lecture 3. The Nervous System

• Lecture 4. Sensing

• Lecture 5. Blood

• Lecture 6. The Cardiovascular System

• Lecture 7. The Respiratory System

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Presentations:

• The Cardiovascular System

• The Respiratory System

• The Urinary System

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Electromagnetism (2025)

These lecture notes are for the now-concluded undergraduate BME course in advanced electromagnetism given at Tel-Aviv University. 

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• Lecture 1. Mathematical Preliminaries.

• Lecture 2. An Overview of Maxwell's Equations.

• Lecture 3. Electrostatics and Magnetostatics in Free Space.​

• Lecture 4. Electrostatics and Conductors.

• Lecture 5. Multipoles Expansion and Dielectrics.

• Lecture 6. Magnetic Dipoles and Magnetic Materials.

• Lecture 7. Conservation Laws.

• Lecture 8. Retarded Solutions.

• Lecture 9. Radiation.

• Lecture 10. Waves.

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MRI Primer (2021)

This is a course I've given during my tenure at the Weizmann Institute, covering the basics of MRI excitation, acquisition and contrast mechanisms, from a mathematical/physical point of view.

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• Lecture 0. Mathematical preliminaries.

• Lecture 1. Fundamentals of imaging.

• Lecture 2. MRI as a black box.

• Lecture 3. Single-spin dynamics.

• Lecture 4. Excitation and acquisition.

• Lecture 5. Imaging.

• Lecture 6. Basic image reconstruction.

• Lecture 7. T1, T2 and T2* contrast.

• Lecture 8. Modeling T1 and T2.

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NMR Primer (2016)

I've given this course on Nuclear Magnetic Resonance spectroscopy in 2016 at the Weizmann Institute. It covers basic physics, pulse sequences and acquisition/processing techniques.

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• Lecture 1. Quantum Mechanics primer.

• Lecture 2. NMR interactions.

• Lecture 3. 1D NMR.

• Lecture 4. J-Coupling.

• Lecture 5. Mechanisms of relaxation.

• Lecture 6. 2D NMR.

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