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<u><b>JEFFERSON LAB COLLOQUIUM</b></u><br>
<br>
<b><big><big>Neutrino Oscillations: Recent Progress & Future
Plans</big></big><br>
<br>
Bob McKeown<br>
JLab Deputy Director for Science & Technology<br>
<br>
ABSTRACT</b><br>
The study of neutrino oscillations has established that neutrinos
have finite mass and that there is substantial flavor mixing. Such
experiments provide the only laboratory evidence for new physics
beyond the standard model of particle physics. Recently the last
unknown mixing angle, theta-one-three, was discovered at an
experiment sited at the Daya Bay nuclear power plant in China.
Results of the Daya Bay experiment and prospects for future
experiments will be discussed.<br>
<br>
Thursday, March 15<br>
4 p.m.<br>
CEBAF Center Auditorium<br>
Cookies & coffee in the CEBAF Center lobby, 3:30 p.m.<br>
<br>
This colloquium is open to the public and the entire Jefferson Lab
community.<br>
<br>
<img src="cid:part1.02030700.07030901@jlab.org" alt=""><br>
<span style="font-size: 12pt; line-height: 115%; font-family:
"Times New Roman","serif";">Neutrino Net: When
operating, this tank and the liquid in it reveals neutrinos
through faint, greenish-blue flashes of light. The flashes are
collected by sensitive components, called photomultiplier tubes
(domes) that measure more than a thousand neutrinos every day. <i>Photo:
Berkeley Lab Public Affairs</i></span><br>
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