NE 162 - Radiation Biophysics and Dosimetry

Spring 2008
Lectures: Prof. Jasmina Vujic

Tu 5:00-6:30 pm, 71 Evans ; Th 5:00-6:30 pm, 1171 Etcheverry Hall


GSI: JONATHAN DREYER, jdreyer@berkeley.edu
Office Hours:  TBD
Room: TBD

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Prerequisites:         NE 101 is not prerequisite any more
Grading:                Homework      40%
                              2 Midterms      30%
                              Final Exam      30%


Textbook: References:

Lecture date Topic Chapter in Textbook
1 Jan 22
Introduction. History of radiation. Atoms, elements, isotopes, atomic structure, atomic models, energy levels in an atom, excitation and ionization of an atom. Ch 1, Ch 2
Notes 1
2 Jan 24
Nuclear structure. Nuclear force. Binding energy. Q-Value in nuclear reactions. Energy levels in the nucleus. Ch 3
Notes 2
3 Jan 29
Radioactivity. Types of radioactive decay. Radioactive decay schemes. Energy released per decay. Law of radioactive decay. Activity and specific activity. Radioactive decay chains. Ch 3, Ch 4
Notes 3
4 Jan 31
Natural and man-made sources of radiation. X-ray sources. Ion sources. Ch 1-4,  (Shultis Ch 4)
Notes 4
5 Feb 5
Interaction of photons with matter. Attenuation and absorption coefficients. Ch 8
Notes 5
Homework 1 due
6 Feb 7
Interaction of photons with matter. Attenuation and absorption coefficients. Ch 8
7 Feb 12
Interaction of heavy charged particles with matter. Ch 5
Notes 7
Homework 2 due
8 Feb 14
Interaction of electrons with matter. Phenomena associated with charged particles tracks. Ch 6, Ch 7
Notes 8
9 Feb 19
Neutron sources and interaction of neutrons with matter. Ch 9
Notes 9
Homework 3 due
10 Feb 21
Neutron sources and interaction of neutrons with matter.  Ch 9
Notes 10

11
Feb 26 Methods of radiation detection I
Ch 10
Notes 11
12 Feb 28 Review and examples

 Ch 1-9 (GSI)


13
March 4
MIDTERM I

Ch 1-9,  Notes (GSI)
14
March 6
Monte Carlo methods for radiation transport calculations. Sampling and scoring techniques in MC. Sample analog MC calculation. Tallies. Error analysis. Intro to MC
15
March 11
Introduction to the MCNP Monte Carlo code. MCNP Manual

16
March 13
Introduction to the MCNP Monte Carlo code. Running MCNP on DECF computers

17 March  18
Characterization of radiation sources, fields, and energy transfer mechanisms. Kerma, absorbed dose and LET.  Notes11 (Shultis Ch 2 and 5.1, Faw Ch 1.3)
Notes 11a
Homework 4 due
18 March 20
Concept of radiation response functions. Response functions for photons and neutrons. Basic methods for external radiation dose calculations. Uncollided radiation dose from a point source.
Ch 12, Notes (Shultis Ch 5.3-5.8) (Shultis Ch 6.1, Faw Ch 6.5)
Notes11b
-
March 25
SPRING BREAK

-
March 27
SRING BREAK

19 April 1  Uncollided radiation dose from distributed sources. Point-kernel concept for total dose.

Ch 12, Notes (Shultis 6.2-6.3, Faw Ch 6.5)
Homework 5 due
20
April 3
The human cell. Structure of DNA. Chromosomes and genetic information. Cell division. Radiation chemistry of aqueous solutions. Radiation chemistry of DNA solutions.Biological effects of radiation. Ch 13 (Alpen Ch 6, Faw Ch 3)   Notes12a
Notes 12
21
April 8
Theories and models for cell survival. Survival curve and its significance. Modification of radiation response.Dose-response relationships. Target theory and the linear-quadratic model. Effects of high doses of radiation: stochastic and non-stochastic Ch 13 (Alpen Ch 8 and 9)
Ch 13, (Alpen Ch 11 and 12, Faw Ch 3.4)
Notes 13
Homework 6 due
22
April 10
Radiation carcinogenesis and genetic effects. Measures of risk from low-level exposure.
Exposure standards and limits. Exposure to natural and man-made sources.
Special techniques for external electron dose.
 Ch 14, (Faw 1.4, 3.7, 4 and 5) Notes14a
Ch 15, Notes (Shultis Ch 9, Faw Ch 7)
Notes 14

23
April 15
Special techniques for external photon dose: buldup factors, albedo concept. 
Biomedical application of radiation: Medical Imaging and Cancer Therapy

-Ch 15, Notes (Shultis Ch 7, Faw Ch 6.6)(Shultis Ch 8, Faw Ch 6.7) Buildup Factors, Table of Coefficients, BNCT

24 April 17
Review  Ch 10, 12 -15
25 April 22
MIDTERM II Ch 10, 12 -15
26 April 24
The Effect of Cosmic Radiation on Humans
Dr Sylvain Costes, LBNL
Notes 16 (Spring 2007 Notes)
Notes 16 (Spring 2008 Notes)
27 April 29 The general method for internal dose evaluation. Source-organ transformation models. The ICRP models for the respiratory and GI systems. The ICRP recommendations for exposure limits. Ch 16, (Faw 8.1- 8.3)(Faw 8.4, 8.7-8.8)(Faw 8.12) Homework 9 Help
Homework 8 due
28 May 1
Simulation of dose distribution in MIRD phantom by MCNP

29 May 6
Shielding calculations using MCNP Notes
30 May 8
REVIEW Homework 9 due
  May 21 17:00-20:00 Final Exam 3102 Etcheverry

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