activity
20182020
most citedAdjoint approach to calculating shape gradients for three-dimensional magnetic confinement equilibria. Part II: Applications

12 citations · 14 across the 2 of their papers we have counts for

collaborators

5 papers

physics.plasm-ph20202 cited

Adjoint methods for stellarator shape optimization and sensitivity analysis

Elizabeth Paul

The design of a stellarator with acceptable confinement properties requires optimization of the magnetic field in the non-convex, high-dimensional spaces describing their geometry.…

physics.plasm-ph201912 cited

Adjoint approach to calculating shape gradients for three-dimensional magnetic confinement equilibria. Part II: Applications

Elizabeth J. Paul, Thomas Antonsen, Matt Landreman +1

The shape gradient is a local sensitivity function that provides the change in a figure of merit associated with a perturbation to the shape of the object. The shape gradient can b…

physics.plasm-ph2019

An Introduction to Stellarators: From magnetic fields to symmetries and optimization

Lise-Marie Imbert-Gerard, Elizabeth J. Paul, Adelle M. Wright

In this self-contained document, we aim to present the basic theoretical building blocks to understand modeling of stellarator magnetic fields, some of the challenges associated wi…

physics.plasm-ph2019

An adjoint method for neoclassical stellarator optimization

Elizabeth Paul, Ian Abel, Matt Landreman +1

Stellarators are a promising route to steady-state fusion power. However, to achieve the required confinement, the magnetic geometry must be highly optimized. This optimization req…

physics.plasm-ph2018

Adjoint approach to calculating shape gradients for 3D magnetic confinement equilibria

Thomas Antonsen, Elizabeth J. Paul, Matt Landreman

The shape gradient quantifies the change in some figure of merit resulting from differential perturbations to a shape. Shape gradients can be applied to gradient-based optimization…