Candidate Search: Postdoctoral Research Associate (LES)

An interdisciplinary group of physical scientists and engineers at Brown University are searching for one postdoctoral researcher to study air-sea interaction in the marine boundary layer with applications to offshore wind energy.

The researchers will join a team of oceanographers, climate modelers, physicists, and fluid dynamitists working to

●      Study key aspects of the fluid mechanics of offshore wind farms, including waves, winds, oceanic and atmospheric boundary layers, and wind farm wakes,

●      Develop multiscale and direct statistical simulations of turbulent flow in and around floating offshore wind farms embedded within the marine atmospheric boundary layer enabling the optimized extraction of energy,

●      Study potential offshore sites and dynamics with observations and laboratory experiments.

Successful candidates will have demonstrated expertise in large eddy simulation modeling, wave modeling, high-performance computing, and geophysical fluid dynamics or boundary layer dynamics.

The successful candidate will be directly supported by a broad team spanning New England. They will have leeway for scientific exploration and self-directed research.

The position salary is $70,000 for two years, with the possibility of extension. Hosting or traveling to research visits will be supported, though not required. Start dates can be as early as 10/1/23, though there is some flexibility. Significant additional research, computing, and travel support is available to facilitate this work. The successful candidate will be based at Brown University.

Please direct questions to Baylor Fox-Kemper: baylor@brown.edu

For more information please visit the application portal.

Open date: Aug 31, 2023

Brad Marston featured in Quanta Magazine

BTPC Director Brad Marston is featured in Quanta Magazine‘s July 18 article, “How Quantum Physicists Explained Earth’s Oscillating Weather Patterns.” Professor Marston’s work, particularly the recent paper “Topological Signature of Stratospheric Poincare – Gravity Waves” (now in preprint) has been instrumental in advancing the theoretical framework explaining the behavior of equatorial Kelvin waves. With his co-authors, BTCP affiliated faculty Baylor Fox-Kemper (DEEPS), Weixuan Xu (DEEPS), Jung-Eun Leea, and Ziyan Zhu, Marston presents data collected from direct observations of stratospheric Poincaré-gravity waves. This led to a breakthrough in the theory of the origin of equatorial Kelvin waves.

 

 

 

 

Photo: A. Green