This README file contains descriptions of the file names of each figure in the following paper:

Title: Regarding the optimization of O1-mode ECRH and the feasibility of EBW startup on NSTX-U
Authors: N. A. Lopez, F. M. Poli
Journal: Plasma Physics Controlled Fusion
Year: 2018

Figure 1 file(s): 
	NEData_NSTU_204202Z16_43ms.txt
		- Slow density, 43 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	NEData_NSTU_204202Z16_90ms.txt
		- Slow density, 90 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	NEData_NSTU_204202Z16_125ms.txt
		- Slow density, 125 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	NEData_NSTU_204202Z71_41ms.txt
		- Fast density, 41 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	NEData_NSTU_204202Z71_53ms.txt
		- Fast density, 53 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	NEData_NSTU_204202Z71_59ms.txt
		- Fast density, 59 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	TEData_NSTU_204202Z16_43ms.txt
		- Slow temperature, 43 milliseconds
		- Units: rho = dimensionless, TE = eV
	TEData_NSTU_204202Z16_90ms.txt
		- Slow temperature, 90 milliseconds
		- Units: rho = dimensionless, TE = eV
	TEData_NSTU_204202Z16_125ms.txt
		- Slow temperature, 125 milliseconds
		- Units: rho = dimensionless, TE = eV
	TEData_NSTU_204202Z71_41ms.txt
		- Fast temperature, 41 milliseconds
		- Units: rho = dimensionless, TE = eV
	TEData_NSTU_204202Z71_53ms.txt
		- Fast temperature, 53 milliseconds
		- Units: rho = dimensionless, TE = eV
	TEData_NSTU_204202Z71_59ms.txt
		- Fast temperature, 59 milliseconds
		- Units: rho = dimensionless, TE = eV

Figure 2 file(s): 
	angleScanData.txt
		- units: CD_Fast & CD_Slow = Amps, FPA_Fast & FPA_Slow = %, PolAngle & TorAngle = degrees
	Width_Deploc.txt
		- Dep_Fast & Dep_Slow = time-averaged deposition location for fast/slow ramp [flux coordinates]
		- mxDep_Fast & mxDep_Slow = maximum (over time) deposition location for fast/slow ramp [flux coordinates]
		- mnDep_Fast & mnDep_Slow = minimum (over time) deposition location for fast/slow ramp [flux coordinates]
		- Wdt_Fast & Wdt_Slow = time-averaged deposition width for fast/slow ramp [flux coordinates]
		- mxWdt_Fast & mxWdt_Slow = maximum (over time) deposition width for fast/slow ramp [flux coordinates]
		- mnWdt_Fast & mnWdt_Slow = minimum (over time) deposition width for fast/slow ramp [flux coordinates]
		- PolAngle = poloidal injection angle [degrees]
		- TorAngle = toroidal injection angle [degrees]

Figure 3 file(s):
	NSTX_limiter.dat
		- first column = x coords [meters], second column = y coords [meters]
	LCFS_fast.txt
		- 2 column pairs for x & y coords [meters] for 6 different flux surfaces (0.1, 0.3, 0.5, 0.7, 0.9, 1.0)
	LCFS_slow.txt
		- 2 column pairs for x & y coords [meters] for 6 different flux surfaces
	rayData_fastHighPol.txt
		- High poloidal injection ray data for fast ramp (Reflection-dominated)
		- 3 column pairs for x, y coords [meters] and pwr [%] for each ray (6 total)
	rayData_fastLowPol.txt
		- Low poloidal injection ray data for fast ramp (Reflection-dominated)
		- 3 column pairs for x, y coords [meters] and pwr [%] for each ray (6 total)
	rayData_slowHighPol.txt
		- High poloidal injection ray data for slow ramp (Deflection-dominated)
		- 3 column pairs for x, y coords [meters] and pwr [%] for each ray (6 total)
	rayData_slowLowPol.txt
		- Low poloidal injection ray data for slow ramp (Deflection-dominated)
		- 3 column pairs for x, y coords [meters] and pwr [%] for each ray (6 total)

Figure 4 file(s):
	MinMaxIPT_Fastdens.txt
		- CD_Min = minimum (over angle) ECCD [Amps]
		- CD_Max = maximum (over angle) ECCD [Amps]
		- FPA_Min = minimum (over angle) Absorbed EC power [W]
		- FPA_Max = maximum (over angle) Absorbed EC power [W]
		- Te0_Min = minimum (over angle) Central electron temperature [eV]
		- Te0_Max = maximum (over angle) Central electron temperature [eV]
		- Time = elapsed time [s]
	MinMaxIPT_Slowdens.txt
		- CD_Min = minimum (over angle) ECCD [Amps]
		- CD_Max = maximum (over angle) ECCD [Amps]
		- FPA_Min = minimum (over angle) Absorbed EC power [W]
		- FPA_Max = maximum (over angle) Absorbed EC power [W]
		- Te0_Min = minimum (over angle) Central electron temperature [eV]
		- Te0_Max = maximum (over angle) Central electron temperature [eV]
		- Time = elapsed time [s]
	Traces_Z71.txt
		- (1,-5) Fast ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]
	Traces_E28.txt
		- (4,3) Fast ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]
	Traces_M17.txt
		- (1.5,1.5) Fast ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]
	Traces_Z16.txt
		- (1,-5) Slow ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]
	Traces_E63.txt
		- (4,3) Slow ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]
	Traces_M18.txt
		- (1.5,1.5) Slow ramp
		- EC_Tot = prescribed current [Amps]
		- EC_Trace = non-inductive ECCD [Amps]
		- P_Tot = Injected Power [W]
		- P_Trace = Absorbed EC power [W]
		- T_Trace = Central electron Temperature [eV]
		- Time = elapsed time [s]

Figure 5 file(s):
	ECCDPabs_Data_E28_37ms.txt
		- (4,3) fast ramp at 37 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_E28_51ms.txt
		- (4,3) fast ramp at 51 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_E63_62ms.txt
		- (4,3) slow ramp at 62 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_E63_94ms.txt
		- (4,3) slow ramp at 94 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_Z16_62ms.txt
		- (1,-5) slow ramp at 62 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_Z16_94ms.txt
		- (1,-5) slow ramp at 94 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_Z71_37ms.txt
		- (1,-5) fast ramp at 37 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate
	ECCDPabs_Data_Z71_51ms.txt
		- (1,-5) fast ramp at 51 milliseconds
		- Mean ECCD = mean value of ECCD on interval [35 39]ms [Amps*cm^-2]
		- Min ECCD = min value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Max ECCD = max value (over time) on interval [35 39]ms [Amps*cm^-2]
		- Mean Pabs = mean value of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Min Pabs = min value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- Max Pabs = max value (over time) of absorbed EC power on interval [35 39]ms [W*cm^-2]
		- rho = flux coordinate

Figure 6 file(s):
	NSTX_limiter.dat
		- first column = x coords [meters], second column = y coords [meters]
	LCFS_Output_L56_40ms.txt
		- 2 column pairs for x & y coords [meters] for 3 different flux surfaces (0.01, 0.1, 1.0)
	LCFS_Output_L56_50ms.txt
		- 2 column pairs for x & y coords [meters] for 3 different flux surfaces (0.01, 0.1, 1.0)
	LCFS_Output_L56_80ms.txt
		- 2 column pairs for x & y coords [meters] for 3 different flux surfaces (0.01, 0.1, 1.0)
	LCFS_Output_L56_90ms.txt
		- 2 column pairs for x & y coords [meters] for 3 different flux surfaces (0.01, 0.1, 1.0)
	LCFS_Output_L56_110ms.txt
		- 2 column pairs for x & y coords [meters] for 3 different flux surfaces (0.01, 0.1, 1.0)

Figure 7 file(s):
	NEData_NSTU_204202E28_27ms.txt
		- Fast density, 27 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	TEData_NSTU_204202E28_27ms.txt
		- Fast temperature, 27 milliseconds
		- Units: rho = dimensionless, TE = eV
	NEData_NSTU_204202E63_27ms.txt
		- Slow density, 27 milliseconds
		- Units: rho = dimensionless, NE = 10^(12) cm^-3
	TEData_NSTU_204202E63_27ms.txt
		- Slow temperature, 27 milliseconds
		- Units: rho = dimensionless, TE = eV

Figure 8 file(s):
	NSTX_limiter.dat
		- first column = x coords [meters], second column = y coords [meters]
	fluxContData_NSTU_204202E28_27ms.txt
		- Fast ramp, 27ms flux surface coordinates
		- 2 column of x,y coordinated: stored following MATLAB ContourMatrix convention
		- 1st element of each column specifies number of total contour lines used (4 - 0.1, 0.4, 0.7, 1.0)
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_O.txt
		- O-mode trajectory data
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_X.txt
		- X-mode trajectory data
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate

Figure 9 file(s):
	NSTX_limiter.dat
		- first column = x coords [meters], second column = y coords [meters]
	fluxContData_NSTU_204202E63_27ms.txt
		- Slow ramp, 27ms flux surface coordinates
		- 2 column of x,y coordinated: stored following MATLAB ContourMatrix convention
		- 1st element of each column specifies number of total contour lines used (4 - 0.1, 0.4, 0.7, 1.0)
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Slowdens_O.txt
		- O-mode trajectory data
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12] degrees
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Slowdens_X.txt
		- X-mode trajectory data
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12] degrees
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Slowdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12] degrees
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate

Figure 10 file(s):
	MAST_OXB_ScanData_Conv_100_6_ray_Collisional.txt
		- Assuming 100% O-X conversion
		- OCD_Fast = O-mode driven current on fast ramp [Amps]
		- OCD_Slow = O-mode driven current on slow ramp [Amps]
		- OPIN_Fast = Initial O-mode power on fast ramp [Watts]
		- OPIN_Slow = Initial O-mode power on slow ramp [Watts]
		- OPABS_Fast = Absorbed O-mode power on fast ramp [Watts]
		- OPABS_Slow = Absorbed O-mode power on slow ramp [Watts]
		- Analogous quantities for X mode (XCD_Fast, etc.) and EBW (BCD_Fast, etc.)
		- PolAngle = poloidal injection angle [degree]

Figure 11 file(s):
	MAST_OXB_ScanData_Conv_100_6_ray_Collisional.txt
		- Assuming 100% O-X conversion
		- OCD_Fast = O-mode driven current on fast ramp [Amps]
		- OCD_Slow = O-mode driven current on slow ramp [Amps]
		- OPIN_Fast = Initial O-mode power on fast ramp [Watts]
		- OPIN_Slow = Initial O-mode power on slow ramp [Watts]
		- OPABS_Fast = Absorbed O-mode power on fast ramp [Watts]
		- OPABS_Slow = Absorbed O-mode power on slow ramp [Watts]
		- Analogous quantities for X mode (XCD_Fast, etc.) and EBW (BCD_Fast, etc.)
		- PolAngle = poloidal injection angle [degree]
	MAST_OXB_ScanData_Conv_75_6_ray_Collisional.txt
		- Assuming 75% O-X conversion
		- OCD_Fast = O-mode driven current on fast ramp [Amps]
		- OCD_Slow = O-mode driven current on slow ramp [Amps]
		- OPIN_Fast = Initial O-mode power on fast ramp [Watts]
		- OPIN_Slow = Initial O-mode power on slow ramp [Watts]
		- OPABS_Fast = Absorbed O-mode power on fast ramp [Watts]
		- OPABS_Slow = Absorbed O-mode power on slow ramp [Watts]
		- Analogous quantities for X mode (XCD_Fast, etc.) and EBW (BCD_Fast, etc.)
		- PolAngle = poloidal injection angle [degree]
	MAST_OXB_ScanData_Conv_50_6_ray_Collisional.txt
		- Assuming 50% O-X conversion
		- OCD_Fast = O-mode driven current on fast ramp [Amps]
		- OCD_Slow = O-mode driven current on slow ramp [Amps]
		- OPIN_Fast = Initial O-mode power on fast ramp [Watts]
		- OPIN_Slow = Initial O-mode power on slow ramp [Watts]
		- OPABS_Fast = Absorbed O-mode power on fast ramp [Watts]
		- OPABS_Slow = Absorbed O-mode power on slow ramp [Watts]
		- Analogous quantities for X mode (XCD_Fast, etc.) and EBW (BCD_Fast, etc.)
		- PolAngle = poloidal injection angle [degree]

Figure 12 file(s):
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate
	MAST_OXB_RayTrajData_6_ray_Collisional_Slowdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12] degrees
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Fastdens.txt
		- DepInd_Fast = ray step index for onset of Collisionless damping (fast ramp)
		- EndInd_Fast = ray step index for termination of ray (fast ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Collisional_Fastdens.txt
		- DepInd_Fast = ray step index for onset of Collisional damping (fast ramp)
		- EndInd_Fast = ray step index for termination of ray (fast ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Slowdens.txt
		- DepInd_Slow = ray step index for onset of Collisionless damping (slow ramp)
		- EndInd_Slow = ray step index for termination of ray (slow ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Collisional_Slowdens.txt
		- DepInd_Slow = ray step index for onset of Collisional damping (slow ramp)
		- EndInd_Slow = ray step index for termination of ray (slow ramp)
		- PolAngle = poloidal injection angle [degrees]

Figure 13 file(s):
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate
	MAST_OXB_RayTrajData_6_ray_Collisional_Slowdens_EBW.txt
		- EBW-mode trajectory data
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12] degrees
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Fastdens.txt
		- DepInd_Fast = ray step index for onset of Collisionless damping (fast ramp)
		- EndInd_Fast = ray step index for termination of ray (fast ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Collisional_Fastdens.txt
		- DepInd_Fast = ray step index for onset of Collisional damping (fast ramp)
		- EndInd_Fast = ray step index for termination of ray (fast ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Slowdens.txt
		- DepInd_Slow = ray step index for onset of Collisionless damping (slow ramp)
		- EndInd_Slow = ray step index for termination of ray (slow ramp)
		- PolAngle = poloidal injection angle [degrees]
	MAST_OXB_EBW_DepInd_Conv_100_6_ray_Collisional_Slowdens.txt
		- DepInd_Slow = ray step index for onset of Collisional damping (slow ramp)
		- EndInd_Slow = ray step index for termination of ray (slow ramp)
		- PolAngle = poloidal injection angle [degrees]

Figure 14 file(s):
	fluxContData_NSTU_204202E28_27ms.txt
		- Fast ramp, 27ms flux surface coordinates
		- 2 column of x,y coordinated: stored following MATLAB ContourMatrix convention
		- 1st element of each column specifies number of total contour lines used (4 - 0.1, 0.4, 0.7, 1.0)
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_O.txt
		- O-mode trajectory data, midplane launch
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_X.txt
		- X-mode trajectory data, midplane launch
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Fastdens_EBW.txt
		- EBW-mode trajectory data, midplane launch
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate
	MAST_OXB_RayTrajData_6_ray_Collisional_Vert_10_Fastdens_O.txt
		- O-mode trajectory data, launch from -30cm
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Vert_10_Fastdens_X.txt
		- X-mode trajectory data, launch from -30cm
		- 4 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection)
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: [m]
	MAST_OXB_RayTrajData_6_ray_Collisional_Vert_10_Fastdens_EBW.txt
		- EBW-mode trajectory data, launch from -30cm
		- 6 column pairs for x_tor, y_tor, x_pol, y_pol coordinates (i.e. x & y for plotting tor/pol projection) & npar, rho
		- 25 such column pairs for each integer poloidal injection angle on [-12, 12]
		- The poloidal injection angle is the first element in each column
		- Units: x_tor, y_tor, x_pol, y_pol = [m], npar = dimensionless, rho = flux coordinate