For an alumnus of the prestigious Lindau Nobel Laureate Meeting in Physics, the Hong Kong Laureate Forum feels like the perfect sequel! I’m confident the plenary sessions will expose me to the Laureates’ latest research while offering deeper insight into their earlier achievements. I’m especially drawn to the Forum’s “beyond-passive-participation” design—with each breakout session providing a unique platform for active engagement with the Laureates and the 200+ fellow attendees. I especially look forward to the public forum, both to ask questions and to learn from the inquiries of others. In the spirit of knowledge exchange, I’m also excited to present my research as a Stanford PhD student (and former undergraduate researcher at Yale, Weizmann and the University of Munich) during the flash/poster sessions, sharing my findings with a community of like-minded peers. The chance to connect informally—during lab or school visits and the Gala dinner—makes the Forum even more valuable, offering me opportunities to build lasting relationships, even those that outlast those four days at Hong Kong Science Park. Above all, I hope to gain a fuller understanding of the perseverance, creativity, and serendipity that shape the lives of accomplished scientists.

Yale University

Weizmann Institute of Science

Reference_Letter_Eran_Ofek.pdf

The nature of dark matter stands tall among the most prominent physics mysteries of the past half-century, with the axion emerging as the most compelling candidate. The Dark Matter Radio (DMRadio) is an experiment searching for low-mass axions while also serving as a testbed for novel quantum devices. Operating in the lumped-element regime, the experiment is designed to detect the signal induced by the interaction of dark matter axions with the detector’s toroidal magnet. This signal is inductively picked up by a superconducting sheath, resonantly amplified by an LC resonator, and cryogenically read out using a low-noise amplifier. For maximal sensitivity, the amplifier noise must achieve a delicate trade-off between measurement imprecision noise, backaction noise, and coupling to loss in the amplifier. My research develops the noise optimization principles intended to ensure that DMRadio couples to and detects the dark matter axion signal, should it exist.