================================================================================

Figure 1

Note: to plot the poloidal projections of the field lines as shown in the 
figures, use a streamline plotting tool (such as the Matlab "streamline"
function) with the radial (r) and vertical (z) components of the magnetic field 
vectors given below.

2-dimensional arrays:
Br_nstx:   radial component of the magnetic field for the NSTX-like 
           configuration on an R-Z grid as shown in Fig. 1b
Bz_nstx:   vertical component of the magnetic field for the NSTX-like 
           configuration on an R-Z grid as shown in Fig. 1b
Bphi_nstx: toroidal component of the magnetic field for the NSTX-like
           configuration on an R-Z grid as shown in Fig. 1b
Br_d3d:    radial component of the magnetic field for the DIII-D-like 
           configuration on an R-Z grid as shown in Fig. 1c
Bz_d3d:    vertical component of the magnetic field for the DIII-D-like 
           configuration on an R-Z grid as shown in Fig. 1c
Bphi_d3d:  toroidal component of the magnetic field for the DIII-D-like
           configuration on an R-Z grid as shown in Fig. 1c
rGrid.csv: R coordinates of the grid points for all above arrays
zGrid.csv: Z coordinates of the grid points for all above arrays

1-dimensional arrays:
rWall.csv:      R coordinates of the vessel wall for Fig. 1b and 1c
zWall.csv:      Z coordinates of the vessel wall for Fig. 1b and 1c
rCoil.csv:      R coordinates of the PF coils for Fig. 1b and 1c
zCoil.csv:      Z coordinates of the PF coils for Fig. 1b and 1c
rElec_nstx.csv: R coordinates of the biasing electrode for the NSTX-like 
                configuration shown in Fig. 1b
zElec_nstx.csv: Z coordinates of the biasing electrode for the NSTX-like 
                configuration shown in Fig. 1b
rElec_d3d.csv:  R coordinates of the biasing electrode for the DIII-D-like 
                configuration shown in Fig. 1c
zElec_d3d.csv:  Z coordinates of the biasing electrode for the DIII-D-like 
                configuration shown in Fig. 1c


================================================================================

Figure 2

1-dimensional arrays:
lcp.csv: product of connection length and pressure in torr-m
vbd.csv: breakdown voltage for the corresponding values of lcp assuming
         A = 510 m^-1 Torr^-1, B = 12500 V m^-1 Torr^-1, and gamma = 0.582
         in accordance with Equation 1 in the paper

================================================================================

Figure 3

2-dimensional arrays:
pMin_nstx.csv:  p_min (Eq. 2 in the paper) for the NSTX-like configuration.
                Values of zero indicate that breakdown cannot occur at the
                respective grid point.
rGrid_nstx.csv: R coordinates of the corresponding grid points in pMin_nstx.csv.
zGrid_nstx.csv: Z coordinates of the corresponding grid points in pMin_nstx.csv.
pMin_d3d.csv:   p_min (Eq. 2 in the paper) for the DIII-D-like configuration.
                Values of zero indicate that breakdown cannot occur at the
                respective grid point.
rGrid_d3d.csv:  R coordinates of the corresponding grid points in pMin_d3d.csv.
zGrid_d3d.csv:  Z coordinates of the corresponding grid points in pMin_d3d.csv.

1-dimensional arrays:
rWall.csv:      R coordinates of the vessel wall for Fig. 1b and 1c
zWall.csv:      Z coordinates of the vessel wall for Fig. 1b and 1c
rElec_nstx.csv: R coordinates of the biasing electrode for the NSTX-like 
                configuration shown in Fig. 1b
zElec_nstx.csv: Z coordinates of the biasing electrode for the NSTX-like 
                configuration shown in Fig. 1b
rElec_d3d.csv:  R coordinates of the biasing electrode for the DIII-D-like 
                configuration shown in Fig. 1c
zElec_d3d.csv:  Z coordinates of the biasing electrode for the DIII-D-like 
                configuration shown in Fig. 1c

================================================================================

Figure 4

1-dimensional arrays:
rWall_25cm.csv: R coordinates of the vessel wall with original ST-FNSF geometry
zWall_25cm.csv: Z coordinates of the vessel wall with original ST-FNSF geometry
rWall_40cm.csv: R coordinates of the vessel wall with an enlarged lower divertor
zWall_40cm.csv: Z coordinates of the vessel wall with an enlarged lower divertor

================================================================================

Figure 5

2-column arrays, in which the first column is always time in seconds:
Ip_52mWb.csv:     Plasma current (A) with 52 mWb injector flux (Fig. 5a)
Ip_104mWb.csv:    Plasma current (A) with 104 mWb injector flux (Fig. 5a)
Ip_208mWb.csv:    Plasma current (A) with 208 mWb injector flux (Fig. 5a)
pSelf_52mWb.csv:  Self-heating power (MW) with 52 mWb injector flux (Fig. 5b)
pSelf_104mWb.csv: Self-heating power (MW) with 104 mWb injector flux (Fig. 5b)
pSelf_208mWb.csv: Self-heating power (MW) with 208 mWb injector flux (Fig. 5b)
Te_52mWb.csv:     Electron temperature (eV) with 52 mWb injector flux (Fig. 5c)
Te_104mWb.csv:    Electron temperature (eV) with 104 mWb injector flux (Fig. 5c)
Te_208mWb.csv:    Electron temperature (eV) with 208 mWb injector flux (Fig. 5c)
Li_52mWb.csv:     Normalized inducatnce with 52 mWb injector flux (Fig. 5d)
Li_104mWb.csv:    Normalized inducatnce with 104 mWb injector flux (Fig. 5d)
Li_208mWb.csv:    Normalized inducatnce with 208 mWb injector flux (Fig. 5d)

================================================================================