C.E. Myers
Princeton University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by C.E. Myers.
Physics of Plasmas | 2014
S. Dorfman; Hantao Ji; Masaaki Yamada; Jongsoo Yoo; Eric Lawrence; C.E. Myers; T. D. Tharp
Fast, impulsive reconnection is commonly observed in laboratory, space, and astrophysical plasmas. In this work, impulsive, local, 3-D reconnection is identified for the first time in a laboratory current sheet. The two-fluid, impulsive reconnection events observed on the Magnetic Reconnection Experiment (MRX) [Yamada et al., Phys Plasmas 4, 1936 (1997)] cannot be explained by 2-D models and are therefore fundamentally three-dimensional. Several signatures of flux ropes are identified with these events; 3-D high current density regions with O-point structure form during a slow buildup period that precedes a fast disruption of the reconnecting current layer. The observed drop in the reconnection current and spike in the reconnection rate during the disruption are due to ejection of these flux ropes from the layer. Underscoring the 3-D nature of the events, strong out-of-plane gradients in both the density and reconnecting magnetic field are found to play a key role in this process. Electromagnetic fluctuat...
Physics of Plasmas | 2016
C.E. Myers; Masaaki Yamada; Hantao Ji; Jongsoo Yoo; Jonathan Jara-Almonte; William Fox
The loss-of-equilibrium is a solar eruption mechanism whereby a sudden breakdown of the magnetohydrodynamic force balance in the Suns corona ejects a massive burst of particles and energy into the heliosphere. Predicting a loss-of-equilibrium, which has more recently been formulated as the torus instability, relies on a detailed understanding of the various forces that hold the pre-eruption magnetic flux rope in equilibrium. Traditionally, idealized analytical force expressions are used to derive simplified eruption criteria that can be compared to solar observations and modeling. What is missing, however, is a validation that these idealized analytical force expressions can be applied to the line-tied, low-aspect-ratio conditions of the corona. In this paper, we address this shortcoming by using a laboratory experiment to study the forces that act on long-lived, arched, line-tied magnetic flux ropes. Three key force terms are evaluated over a wide range of experimental conditions: (1) the upward hoop fo...
2015 AGU Fall Meeting | 2015
C.E. Myers
Bulletin of the American Physical Society | 2014
W. Fox; S. J. Zweben; Jongsoo Yoo; Jonathan Jara-Almonte; C.E. Myers; Masaaki Yamada; H. Ji
Bulletin of the American Physical Society | 2014
C.E. Myers; Masaaki Yamada; E. Belova; H. Ji; Jongsoo Yoo; W. Fox; Jonathan Jara-Almonte; L. Gao
Bulletin of the American Physical Society | 2013
C.E. Myers; Masaaki Yamada; E. Belova; H. Ji; Jongsoo Yoo; Jonathan Jara-Almonte
Bulletin of the American Physical Society | 2013
P. Bolgert; M. Bitter; P.C. Efthimion; K. W. Hill; H. Ji; C.E. Myers; Masaaki Yamada; Jongsoo Yoo; S. J. Zweben
Bulletin of the American Physical Society | 2013
Charles Swanson; Masaaki Yamada; H. Ji; Jongsoo Yoo; C.E. Myers; Jonathan Jara-Almonte; P. Bolgert
Bulletin of the American Physical Society | 2012
Jonathan Jara-Almonte; H. Ji; Masaaki Yamada; Jongsoo Yoo; C.E. Myers; Timothy D. Tharp
Bulletin of the American Physical Society | 2012
S. Dorfman; H. Ji; Masaaki Yamada; Jongsoo Yoo; Eric Lawrence; C.E. Myers; Timothy D. Tharp