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I can be reached at jiangzhihan63@gmail.com, and a complete CV is available here.
Selected recent logs.
Intrinsically quantum effects of gravitational waves and dark matter carry extra powers of the weak coupling, relative to classical effects. This strong suppression can only be evaded using highly nonclassical detector states.
Conducting walls have a very small, but observable effect on measurements of electron $g-2$. We compute it from first principles with quantum field theory, and show how it can be accounted for in future measurements.
Intrinsically quantum effects of axion dark matter are always highly suppressed, and in practice undetectable. Thus, even though the axion may be in a nonclassical state, it can still be treated as a classical field.
The heterodyne approach to axion detection enhances the axion signal power. A prototype cavity was designed and tested, with a novel geometry that maximizes signal, suppresses noise, and allows a wide tuning range.
Light dark matter particles could couple directly to electron spin. Since the same is true for neutrons, existing neutron scattering data can accurately predict the signal rate of a dark matter experiment.