Collection and Analysis of a 13N Labeled Ammonia Radiotracer
Location
CSU 204
Start Date
9-4-2012 3:00 PM
End Date
9-4-2012 4:00 PM
Student's Major
Mathematics and Statistics, Electrical and Computer Engineering and Technology, Physics and Astronomy
Student's College
Science, Engineering and Technology
Mentor's Name
Andrew Roberts
Mentor's Department
Physics and Astronomy
Mentor's College
Science, Engineering and Technology
Description
The production of 13N (t1/2 ˜ 9.96 minutes) was accomplished at the applied nuclear science lab at Minnesota State University, Mankato. Using a 400keV Van de Graaff positive ion accelerator, one can create the nitrogen isotope through the 12C(d,n)13N reaction. Radiolabeled 13N compounds are commonly used for physiological imaging using PET. The method used to drive such a reaction involves irradiating the custom carbon target with a deuteron beam. The carbon target is then heated by an electric current to release the nitrogen isotope while passing a suitable reaction gas though the target apparatus to extract the 13N from the carbon matrix. The released gas will be in a form that can be used for Positron Emission Tomography (PET), a quantitative nuclear imaging technique. One tracer of particular interest is the compound 13NH3. Although the amount produced is insufficient for imaging work, the theory and procedure may be applied at higher energy laboratories, capable of a greater yield reaction such as 13C(p,n)13N.
Collection and Analysis of a 13N Labeled Ammonia Radiotracer
CSU 204
The production of 13N (t1/2 ˜ 9.96 minutes) was accomplished at the applied nuclear science lab at Minnesota State University, Mankato. Using a 400keV Van de Graaff positive ion accelerator, one can create the nitrogen isotope through the 12C(d,n)13N reaction. Radiolabeled 13N compounds are commonly used for physiological imaging using PET. The method used to drive such a reaction involves irradiating the custom carbon target with a deuteron beam. The carbon target is then heated by an electric current to release the nitrogen isotope while passing a suitable reaction gas though the target apparatus to extract the 13N from the carbon matrix. The released gas will be in a form that can be used for Positron Emission Tomography (PET), a quantitative nuclear imaging technique. One tracer of particular interest is the compound 13NH3. Although the amount produced is insufficient for imaging work, the theory and procedure may be applied at higher energy laboratories, capable of a greater yield reaction such as 13C(p,n)13N.
Recommended Citation
Compton, Nicholas; John Clymer; James Cotter; Henry Dam; Zach Lesko; and Lucas Swanson. "Collection and Analysis of a 13N Labeled Ammonia Radiotracer." Undergraduate Research Symposium, Mankato, MN, April 9, 2012.
https://cornerstone.lib.mnsu.edu/urs/2012/oral-session-13/3