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My research focus is to fi]d out where and at what rates in the plasma charged fusion products are created, an emission profile. A prototype diagnostic, or instrument, was designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones). Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future fast ion research in spherical tokamaks, especially as these devices upgrade to higher density plasmas. | ||||||||
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< < | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks, especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
> > | My research focus is to fi]d out where and at what rates in the plasma charged fusion products are created, an emission profile. A prototype diagnostic, or instrument, was designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones). Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future fast ion research in spherical tokamaks, especially as these devices upgrade to higher density plasmas. | |||||||
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< < | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
> > | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks, especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
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< < | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
> > | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
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< < | What kind of experience can you gain from working in FIU's Experimental Plasma Physics (FEPP) Group? Speak to myself and Dr. Boeglin regarding current and future research opportunities.
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< < | Plasma Fast Ion Instrument Design, Development, and ValidationMy research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
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Plasma Fast Ion Instrument Design, Development, and Validation | ||||||||
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< < | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. | |||||||
> > | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. [Excerpt from Dissertation Proposal] | |||||||
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< < | Plasma Fast Ion Instrument concept, design, development, and validation | ||||||||
> > | Plasma Fast Ion Instrument Design, Development, and Validation | ||||||||
My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas. | |||||||||
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< < | FIU University Graduate School (UGS) Dissertation ProposalRamona PerezSeptember 27th 2012 - 10:30AM FL - 4:30PM SPAIN | |||||||
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> > | My research focus is to fi]d out where and at what rates in the plasma charged fusion products, created inside of a fusion plasma, are created; this is called the product profile. A prototype diagnostic, or instrument, will be designed, constructed, assembled, and installed in the Mega Amp Spherical Tokamak (MAST) in the Culham Centre for Fusion Energy (CCFE) in the United Kingdom for data collection. Subsequent data analysis will be used to reconstruct the time-dependent charged fusion product profile from deuterium-deuterium reactions in the plasma. This will allow studies of plasma instabilities (such as toridal Alfven eigenmodes and fi《hbones) and neutral beam ion density profi〕e effects on plasma stability. Plasma instability studies become vital to reduce hindrances on plasma performance so as not to impede efficient fusion energy production. The Proton Detector (or Charged Fusion Products Diagnostic) provides the foundation for future research in spherical tokamaks (machines used to create fusion plasmas), especially as these devices upgrade to higher density plasmas.
[Excerpt from Dissertation Proposal]
Dissertation Title: A charged fusion product diagnostic for a spherical tokamak.FIU University Graduate School (UGS) Disssertation Proposal Documents Date and Time:
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