We analyze the physical origin of plasmas that are ejected from the solar corona. To address this issue, we perform a comprehensive analysis of the elemental composition of interplanetary coronal mass ejections (ICMEs) using recently released elemental composition data for Fe, Mg, Si, S, C, N, Ne, and He as compared to O and H. We find that ICMEs exhibit a systematic abundance increase of elements with first ionization potential (FIP) 12.0. For ICMEs with elevated charge states, the FIP effect is enhanced by 70% over that of the slow wind. We argue that the compositionally hot parts of ICMEs are active region loops that do not normally have access to the heliosphere through the processes that give rise to solar wind. We also discuss the im...
We examine Fe charge state distributions in the solar wind. The ionic composition of the solar wind ...
Context. As the solar wind propagates through the heliosphere, dynamical processes irreversibly eras...
We present a novel procedure for deriving the physical properties of Coronal Mass Ejections (CMES) i...
We analyze the physical origin of plasmas that are ejected from the solar corona. To address this is...
Interplanetary coronal mass ejection (ICME) associated plasma can exhibit signatures in elemental, i...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/95325/1/grl18052.pd
Advances in instrumentation have resulted in the determination of the average abundances of He, C, N...
We present results from a comparison of CME and slow solar wind ejecta detected at the ACE spacecraf...
Solar wind ionic composition measurements are powerful tools in discriminating between different sou...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/95193/1/grl11810.pd
We review evidence regarding the origin of material accelerated in large, gradual solar energetic pa...
From a turbulent history, the study of the abundances of elements in solar energetic particles (SEPs...
Solar filaments/prominences are one of the most common features in the corona, which may lead to ene...
We present a novel procedure for deriving the physical properties of coronal mass ejections (CMEs) i...
We examine Fe charge state distributions in the solar wind. The ionic composition of the solar wind ...
We examine Fe charge state distributions in the solar wind. The ionic composition of the solar wind ...
Context. As the solar wind propagates through the heliosphere, dynamical processes irreversibly eras...
We present a novel procedure for deriving the physical properties of Coronal Mass Ejections (CMES) i...
We analyze the physical origin of plasmas that are ejected from the solar corona. To address this is...
Interplanetary coronal mass ejection (ICME) associated plasma can exhibit signatures in elemental, i...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/95325/1/grl18052.pd
Advances in instrumentation have resulted in the determination of the average abundances of He, C, N...
We present results from a comparison of CME and slow solar wind ejecta detected at the ACE spacecraf...
Solar wind ionic composition measurements are powerful tools in discriminating between different sou...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/95193/1/grl11810.pd
We review evidence regarding the origin of material accelerated in large, gradual solar energetic pa...
From a turbulent history, the study of the abundances of elements in solar energetic particles (SEPs...
Solar filaments/prominences are one of the most common features in the corona, which may lead to ene...
We present a novel procedure for deriving the physical properties of coronal mass ejections (CMEs) i...
We examine Fe charge state distributions in the solar wind. The ionic composition of the solar wind ...
We examine Fe charge state distributions in the solar wind. The ionic composition of the solar wind ...
Context. As the solar wind propagates through the heliosphere, dynamical processes irreversibly eras...
We present a novel procedure for deriving the physical properties of Coronal Mass Ejections (CMES) i...