Nuclear Spectroscopy
Nuclear Spectroscopy
Nuclear Spectroscopy
Create successful ePaper yourself
Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.
Cardwell, and especially Robert Bradford. I want to<br />
thank Sherwood Ebey for his critical review of Experiment<br />
#9; Clay Ross for his help with Mathematica; Ed<br />
Kirven for providing some critical help with the chemistry<br />
and the chemical supplies; and Frank Hart and<br />
Polly Peterson for their critical and timely review of<br />
this book.<br />
There are several people who have helped me develop<br />
my own teaching of nuclear science. This book would<br />
not have been possible without their unfailing support<br />
and kindness - Roger Stevens, first at the Nucleus and<br />
now at Spectrum Techniques; Paul Frame at O.R.I.S.E.;<br />
and Jerry Duggan and Floyd McDaniel at the University<br />
of North Texas. Thank you.<br />
Finally, I want to thank my wife, Peggy, and my two<br />
daughters, Carrie and Abby, for their support, help,<br />
and understanding during this writing and testing.<br />
To correspond with the author about experiments in<br />
this book, please send a message via E-mail to<br />
rpeterso@sewanee.edu.<br />
Summary of Radiation-Related Units<br />
Activity a measure of the number Curie (Ci) 1 Ci = 3.7 x 10 10 Bq<br />
of nuclear disintegrations Becquerel (Bq)* 1 Bq = 1 disintegration/sec<br />
per second<br />
Exposure amount of ionizing radiation Roentgen (R)<br />
that produces 2.58 Coulombs rate as R/hr<br />
per cm 3 of STP air<br />
Absorbed total energy absorbed from rad 100 rad = 1.0 Gy<br />
Dose ionizing radiation per mass Gray (Gy)* 1 Gy = 1.0 J/kg<br />
of the absorber<br />
Dose measure of the biological rem 100 rem = 1.0 Sv<br />
Equivalent health risks; absorbed dose Sievert (Sv)*<br />
times the Q factor<br />
*Denotes SI unit.<br />
6