activity
20242026
collaborators

6 papers

physics.app-ph2026

Dual mass milligram-scale torsion oscillator for vibration-free optomechanical sensing

Jack Manley, Thomas Bsaibes, Charles A. Condos +3

Chip-scale optomechanical devices are driving the miniaturization of inertial sensors and next generation fundamental physics experiments. However, precision at the theoretical lim…

physics.ins-det2026

Nanofabricated torsion pendulums for tabletop gravity experiments

Jack Manley, Charles A. Condos, Zachary Fegley +5

Measurement of mutual gravitation on laboratory scales is an outstanding challenge and a prerequisite to probing theories of quantum gravity. A leading technology in tabletop gravi…

physics.app-ph2025

Lithographically Defined SiN Torsional Pendulum

Thomas Bsaibes, Charles Condos, Jack Manley +3

Torsion pendulums provide an opportunity to trap large masses in a potential weak enough to explore two-body gravitation. Cooled to, and then released from a ground state, weak qua…

quant-ph2025

Optimal single-mode squeezing for beam displacement sensing

Wenhua He, Christos N. Gagatsos, Dalziel J. Wilson +1

Estimation of an optical beam's transverse displacement is a canonical imaging problem fundamental to numerous optical imaging and sensing tasks. Quantum enhancements to the measur…

quant-ph2025

Imaging-based Quantum Optomechanics

Christian M. Pluchar, Wenhua He, Jack Manley +3

In active imaging protocols, information about an object is encoded into the spatial mode of a scattered photon. Recently the quantum limits of active imaging have been explored wi…

quant-ph2024

Quantum limited imaging of a nanomechanical resonator with a spatial mode sorter

Morgan Choi, Christian Pluchar, Wenhua He +2

We explore the use of a spatial mode sorter to image a nanomechanical resonator, with the goal of studying the quantum limits of active imaging and extending the toolbox for optome…