Comment on “Magnetic geometry and physics of advanced divertors: The X-divertor and the snowflake” [Phys. Plasmas 20, 102507 (2013)]

Comparison of ELM heat loads in snowflake and standard divertors

(2013) T.D. Rognlien et al.   JOURNAL OF NUCLEAR MATERIALS

DIII-D research towards resolving key issues for ITER and steady-state tokamaks

(2013) D.N. Hill et al.   NUCLEAR FUSION

Magnetic geometry and physics of advanced divertors: The X-divertor and the snowflake

(2013) Mike Kotschenreuther et al.   PHYSICS OF PLASMAS

Plasma Convection Near the Magnetic Null of a Snowflake Divertor During an ELM Event

(2012) D.D. Ryutov et al.   CONTRIBUTIONS TO PLASMA PHYSICS

A snowflake divertor: a possible solution to the power exhaust problem for tokamaks

(2012) D D Ryutov et al.   PLASMA PHYSICS AND CONTROLLED FUSION

Taming the plasma–material interface with the ‘snowflake’ divertor in NSTX

(2010) V.A. Soukhanovskii et al.   NUCLEAR FUSION

“Snowflake” H Mode in a Tokamak Plasma

(2010) F. Piras et al.   PHYSICAL REVIEW LETTERS

Local properties of the magnetic field in a snowflake divertor

(2010) D D Ryutov et al.   PLASMA PHYSICS AND CONTROLLED FUSION

Analysis of geometric variations in high-power tokamak divertors

(2009) M.V. Umansky et al.   NUCLEAR FUSION

The magnetic field structure of a snowflake divertor

(2008) D. D. Ryutov et al.   PHYSICS OF PLASMAS