Navigation auf uzh.ch

Suche

Physik-Institut

PHY127, Physics for Life Sciences 2

Schedule

Lecturer : Prof. Ben Kilminster
Lectures ( PHY127.1 ):

Friday, 08:00 - 09:45

Exercise sessions ( PHY127.2 ): Tuesday or Wednesday, 13:00 - 15:45    (First : 1st March 2022)
Office Hours Fridays 10:30-11:30 at 36J50  or by email appointment

Lecturer


Course information sheet

References & texts

References for each lecture will be added below. 

Here is a reference sheet (PDF, 95 KB)(handed out in class with key terms from PHY117, and german/english translation)

The following can serve as a reference for the basic physics (from PHY 117) 

Texts: 

  • Paul A. Tipler, Gene Mosca: Physics for scientists and engineers.  
  • Halliday & Resnick : Fundamentals of Physics. 

Additional resources to help with mathematics. 

  • MHP: Mathematische Hilfsmittel (PDF, 587 KB) (in german) derivatives, integrals, series expansions, statistics, vector algebra, coordinate transformations, tensors, ... )
  • C.B. Lang und N. Pucker: Mathematische Methoden der Physik, Spektrum Verlag, Heidelberg und Berlin.

Formelsammlung Mittelschulphysik (PDF, 396 KB) is also useful for usage of basic formulas.


Exercises

Exercises are posted on OLAT  every 2 weeks on Friday after lecture.

Exercise sessions in the following week will help you understand the terms and concepts of the exercises. Exercise sessions in the second week after the exercises are assigned will explain the solutions.  It is expected that you will complete the exercises before this second exercise session. 

Dates of exercise classes (PDF, 91 KB)

Lists exercise classes Thuesday (PDF, 105 KB) (updated 8.3.22)

Lists exercise classes Wednday (PDF, 103 KB) (updated 8.3.22)

List online class  (PDF, 92 KB)(updated 8.3.22)

Online exercise class
The places available for permanent participation in the online class are full. Permanent assignment to the online group is no longer possible, except for verifiable medical reasons. In this case, please apply by email.

One-time change:
If you are ill or cannot attend your regular class for another important reason, you can switch to the online class for a single session, please send an email with the following information: reason, date of the online class, your name, your regular class.

There will be no podcasts of exercise classes. 

Exam schedule

Exam guidelines  :

Exams will be similar in style to the exercises. A formula sheet with all needed equations will be provided to you in the exams.  The formula sheet will be sent to you by the end of the semester to help you study.  We will provide you with paper and a calculator if needed.  The final exam will be printed in english and in german.   The following are forbidden in exams : 

  • Any means of communication (mobile phones, smart watches, etc.)
  • Any kind of calculator, laptop, or electronic storage device
  • Any additional formula sheets or written notes. 

Grades

Your grade is based on the following assessments : 

  • 100%  final examination

Attendance is expected and recorded for exercise sessions.  The final examination will be composed of questions similar to those presented in the lectures and the weekly exercises. 


Outline of course

The course will cover modern physics topics such as relativity, quantum physics, atomic, nuclear, and particle physics, radiation, particle-wave duality, particles interacting in matter, particle detection.  These ideas will be used to explain the basics of modern radiation techniques for diagnostics and treatment, and such instruments as X-rays, CT scanners, PET scanners, NMR, MRI, etc. 

 

 


Lecture information

 

Lecture schedule (12 lectures) Topics          PDF of chalkboard Additional resources

Week 1  (Feb. 25, 2022)

Units, particles, Feynman diagram

Notes Lecture 1 (PDF, 2 MB)

Units and basics on vectors are in Prof. K's first semester script (PDF, 5 MB).  Feynman diagrams are typically in quite difficult quantum field theory textbooks, so stay away from those.  You don't need to know the details behind the calculations. If you have questions, just ask Prof. K or your TA. 

Week 2 (Mar.4, 2022)

Electromagnetic radiation is made of photons.  Notes Lecture 2 (PDF, 6 MB) See Prof. K's second semester intro physics script (PDF, 3 MB) for energy transfer of electromagnetic radiation (Wien's law, Planck radiation, etc.).  Also, see any intro physics text book.  For the energy and momentum of a photon, see an intro physics textbook with a section on "modern physics". 
Week 3 (Mar. 11, 2022) But are photons particles or waves ?

Notes Lecture 3 (PDF, 2 MB)

Any intro physics text book with a modern physics section.  For example, Tipler, Part 6 on modern physics.   Are you confused about wave-particle duality ?  Try googling "wave-particle duality", and "double-slit experiment".  There are lots of cool websites and youtube videos on this. 

Week 4 (Mar. 18, 2022)

Waves, standing waves, probabilities

Notes Lecture 4 (PDF, 2 MB)

first semester script (PDF, 5 MB).  for more on waves and standing waves.    second semester intro physics script (PDF, 3 MB) for more on electromagnetic waves. 

Week 5 (Mar. 25, 2022)

Wave-particle duality, wave packets, uncertainty principle, Schroedinger wave equation Notes lecture 5 (PDF, 10 MB)

Videos shown in lecture : Wave-diffraction (GIF, 592 KB)

Wave-diffraction-big-aperture (GIF, 276 KB)

wave-packet (GIF, 3 MB)
group-and-phase-velocity (GIF, 1 MB)

More info :  google "wave-particle duality", "group velocity", "wave packet", "Uncertainty principle", "electron double slit experiment"

Week 6 (Apr. 1, 2021)

The quantum nature of electrons in an  atom, and emitted light. Standing waves.  Particle in a 3D box. 

Notes lecture 6 (PDF, 2 MB)

Videos shown on standing waves on a 2D drum: 

StandingWave-drum-1 (GIF, 191 KB)

StandingWave-drum-2 (GIF, 190 KB)

StandingWave-drum-3 (GIF, 115 KB)

StandingWave-drum-4 (GIF, 214 KB)

StandingWave-drum-5 (GIF, 138 KB)

StandingWave-drum-6 (GIF, 245 KB)

Week 7 (Apr. 8, 2021)

Hydrogen atom in 3D, with 3 quantum numbers.  Angular momentum. Standing waves.

Notes lecture 7 (PDF, 2 MB)

For more info on angular momentum, see script, chapter 7. (PDF, 5 MB)

For more info on magnetic moment and the atom, see : script 2, chapter 11 (PDF, 3 MB)

Holiday April 15th      
Holiday April 22nd      

Week 8 (April 29, 2022)

 

Many-electron atoms, charge screening, X-rays, Bremsstrahlung, Characteristic X-rays, Thomson scattering, Compton effect, Bragg's law   Notes Lecture 8 (PDF, 5 MB)  

Week 9 (May 6, 2022)

 

X-ray penetration, attenuation, radiation dose, exposure dose, biological effects of radiation, CT scans with X-rays, pair production, pair annihilation, PET scans Notes Lecture 9 (PDF, 16 MB)  

Week 10 (May 13, 2022)

microCT, nanoCT, phase-contrast imaging, Fresnel plate focusing, synchrotron accelerators, X-ray synchrotron imaging, X-ray free electron laser imaging Notes Lecture 10 (PDF, 45 MB)

Superconducting Radiofrequency Acceleration Cavity (GIF, 2 MB)

Undulator to make X-rays with alternating magnetic field (GIF, 3 MB)

Radio Frequency acceleration (GIF, 437 KB)

Quadrupole focusing magnet (GIF, 98 KB)

Synchrotron Xray image (AVI, 16 MB)

Robot fly in3D (MP4, 18 MB)

Synchrotron X-ray of flying fly (MP4, 61 MB)

Week 11 (May 20, 2022) Angular momentum, precession of spinning object in gravity, precession of magnet in magnetic field, nuclear magnetic moment, nuclear magnetic resonance Notes Lecture 11 (PDF, 2 MB)  

Week 12 (May 27, 2022)

 

nuclear magnetic resonance (NMR), magnetic resonance imaging (MRI), strong nuclear force, nuclear structure Notes Lecture 12 (PDF, 27 MB)  
Week 13 (June 3, 2022) Nuclear stability, nuclear decay, alpha, beta, gamma radiation.  Decay series chains. Half lives.  Bethe-Bloch energy loss.  Dose delivered. Nuclear fission. Nuclear fusion.   Notes Lecture 13 (PDF, 31 MB)  

 

Weiterführende Informationen

Other info