We review searches for mixing and CP violation in the D0-D0bar system, which, until recently, have eluded experimental observation. We present evidence for D0-D0bar mixing recently obtained by the Belle experiment using two different analysis methods: comparing the lifetimes of D0 decays to K-pi+, K+K- and pi+pi- final states, and performing a time-dependent Dalitz-plot analysis of the self-conjugate final state K0 pi+pi-. These analyses yield measurements of the mixing parameters Delta m and Delta gamma; the results obtained differ significantly from zero. These results are then combined with other D0 mixing measurements to search for CP violation in the D0-D0bar system.

The CDF silicon detector is playing a critical role in the searches for the standard model Higgs. The latest results for the search for the standard model Higgs produced in association with a W and a Z boson at CDF are presented. The results include about 1 to 1.7 fb-1 of data collected by CDF in run II of the Tevatron. I will then discuss the challenges of tracking at the LHC and the importance of pixel detectors. The CMS hybrid pixel detector is located at the core of the CMS tracker and will contribute significantly to track and vertex reconstruction. The detector is subdivided into a three layer barrel, and two end-cap disks on either side of the interaction region. The system operating in the 25 ns beam crossing time of the LHC must be radiation hard, low mass, and robust. The construction of the barrel modules and the forward disks has started after extensive R&D. I will presnet the status of the project.

We now know that neutrinos have mass, and that their weak eigenstates mix. However, the pattern of lepton masses and mixing angles is entirely different from that for quarks. For example, the first and second generations are almost completely mixed, as are the second and third. The first and third generations, though, have a mixing angle that is consistent with zero, based on existing measurements. I will briefly review the status of neutrino oscillation measurements and summarize our current knowledge of masses and mixing angles. I will then describe a China/US collaboration mounting an experiment at the Daya Bay nuclear reactor complex, north of Hong Kong. Our goal is to either measure, or set a limit on, the "last" neutrino mixing angle "$\theta_{13}$" at a level of 1%.