A. Parke

most cited300 μs optical cavity storage time and

1 0^{- 7}

active RAM cancellation for

1 0^{- 19}

laser frequency stabilisation

8 citations · 8 across the 2 of their papers we have counts for

collaborators

3 papers

astro-ph.EP2026

Optical clock network tracks tidal variations of the gravity potential

Kilian Stahl, Ingo Nosske, Chetan Vishwakarma +41

Gravity affects the passage of time, as described by General Relativity. On Earth, the rate of a clock as seen by a fixed observer changes by about one part in $1 0^{16}$ per metre…

physics.optics2026

Laser fractional frequency instability at $4 \times 1 0^{- 17}$ with a room temperature optical reference cavity

Adam L. Parke, Eve Clulow, Wei Huang +8

Ultrastable lasers play a key role in optical frequency metrology, setting measurement speed and ultimately impacting both stability and accuracy of optical frequency standards. He…

physics.optics2025★ 8 cited

300 μs optical cavity storage time and $1 0^{- 7}$ active RAM cancellation for $1 0^{- 19}$ laser frequency stabilisation

Adam L. Parke, Marco Schioppo

Frequency stabilisation of lasers to optical reference cavities is an established method to achieve state-of-the-art stability. The strengths of this method are the high discrimina…

Optical clock network tracks tidal variations of the gravity potential

Laser fractional frequency instability at 4×10−17 with a room temperature optical reference cavity

300 μs optical cavity storage time and 10−7 active RAM cancellation for 10−19 laser frequency stabilisation

Laser fractional frequency instability at $4 \times 1 0^{- 17}$ with a room temperature optical reference cavity

300 μs optical cavity storage time and $1 0^{- 7}$ active RAM cancellation for $1 0^{- 19}$ laser frequency stabilisation