Open Opportunities for MIT Students

These positions are open to MIT undergraduates and graduates. For more information on a position, please email the researcher or point of contact identified in the listing. 


 

Fundamental Plasma Physics Experiments on PUFFIN

Posting Date

9/01/23

Researcher Name

Prof. Jack Hare

Researcher/Contact Email

jdhare@mit.edu

Department/Division

NSE

Position Type

PhD Student

Position Description

The new PUFFIN pulsed-power generator under construction at MIT will enable us to tackle a new frontier of high-energy-density laboratory astrophysics, using long current pulses to produce hot, dense, fast-moving and magnetized plasmas in a quasi-steady state. Using plasma diagnostics such as laser-imaging Mach-Zehnder interferometry, ultra-high-speed framing cameras and Thomson scattering, we will study the evolution of centimeter-scale, micro-second lifetime plasmas in order to understand fundamental plasma physics processes such as magnetic reconnection, magnetized turbulence, magnetized shocks, astrophysical jets, magneto-hydrodynamic instabilities, and creating hypersonic flows. This research informs both astrophysical plasmas (through dimensionless scaling) and the underlying physics of magnetized-target-fusion concepts. Students in the PUFFIN group will help with the design, construction and commissioning of PUFFIN and its diagnostics, as well as visiting other pulsed-power facilities world-wide to carry out research. This is a generic listing which covers a range of possible projects depending on which grants are funded. Interested students are advised to consult the FAQ at https://puffin.mit.edu/work-with-us/

Position Start Date

Fall 2024

 


A hands-on experimental Master's project

Posting Date

8/22/23

Researcher Name

Joshua Stillerman

Researcher/Contact Email

jas@mit.edu

Department/Division

Plasma Science and Fusion Center

Position Type

Masters Student

Position Description

This project will create an end-to-end demonstration of the plasma control system toolkit being developed at MIT to control a small, levitated magnet system. This device provides a convenient, low cost, low risk proxy for the control system requirements of a tokamak. It provides a vehicle for exploring system modeling, algorithm development, supervisory control, and the training and real-time operation of machine learning based diagnostics and controllers. It is a proof-of-principle for the toolkit, exercising all the major architectural components of a tokamak control system apart from the specific physics and diagnostics.

Position Start Date

9/1/23