TRANSP output information

These pages contain details of some of the TRANSP output variables. The TRANSP output is dynamic and it depends on the number of species and other parameters. The table below can be considered as an example of TRANSP output and does not include all possible combinations of the output variables. The table gives name of the output variables, short description, and the description of most common first dimensions of the output variables, if these variables are arrays.

Variable name	Units	Description	1st dimension
X		x"r/a" ctr	xc
XB		x"r/a" bdy	xb
RZON	CM	RADIUS	xc
RBOUN	CM	RADIUS	xb
RMNMP	CM	MIDPLANE RADII	xb
RMJMP	CM	FLUX SURFACE CTRS	xb
THETA	RADIANS	POL. ANGLE	theta
BDENSTOTMP	#/CM**3	Fast ion density, GC on midplane	midplane R
EBAPLAV_MP	eV	FAST ION <Epll> , GC on midplane	midplane R
EBAPPAV_MP	eV	FAST ION <Eperp>, GC on midplane	midplane R
VBTORAV_MP	CM/SEC	FAST ION <Vtor>, GC on midplane	midplane R
BDIFBX_D	CM**2/SEC	D anom beam ion diffusivity
BVELBX_D	CM/SEC	D anom beam ion velocity
BDENS2_D	N/CM**3	D Beam ion density, GC
BEPRP2_D	eV	D Beam ion <Eperp>, GC
BEPLL2_D	eV	D Beam ion <Epll>, GC
BVTOR2_D	cm/sec	D Beam ion <Vtor>, GC
RSNBX_D_D	1/sec	D_0 cx sink by D beam ions
RSNBI_D_D	1/sec	D_0 ii sink by D beam ions
RMJSYM	CM	MAJOR RADII (DATA MAPPING)	major rad.
XIRSYM		FLUX LABEL (DATA MAPPING)	major rad.
RMAJM	CM	MIDPLANE-FLUX SURFACE RADII	midplane R
MCINDX		2d MC grid (x,th)	2d MC grid index
BMVOL	CM**3	2d MC grid zone volumes	2d MC grid index
ILIM		LIMITER CONTOUR INDEX	<LM. IND.>
RLIM	CM	LIMITER R PTS	<LM. IND.>
YLIM	CM	LIMITER Y PTS	<LM. IND.>
SURF	CM**2	FLUX SURFACE AREA	xb
DAREA	CM**2	ZONE CROSS SECTIONAL AREA	xc
DVOL	CM**3	ZONE VOLUME	xc
DRAV	CM	FLUX SURFACE AVG <DR>	xc
LPOL	CM	POLOIDAL PATH LENGTH	xb
GRI	CM**-1	<1/R> FLUX SURFACE VOL.AVG	xc
GR2I	CM**-2	<1/R**2> FLUX SURFACE VOL.AVG	xc
GX2R2I	CM**-4	<GRAD(XI)2/R2> FLX.SURF.AVG	xc
GXI2	CM**-2	<GRAD(XI)**2> FLUX SURF VOL.AVG	xc
GXI	CM**-1	<GRAD(XI)> FLUX SURF VOL.AVG	xc
DRAVFAC		<dr>*<1/dr>	xc
GR2	CM**2	<R**2> FLUX SURFACE VOL.AVG	xc
GR2X2		<R*2GRAD(XI)**2> FLX.SURF.AVG	xc
GRIXI		<1/(R*GRAD(XI))> FLX.SURF.AVG	xc
GAMNC	CM**-1	NC gamma, <n.grad(theta)>	xc
GX2B2I	1/T^2*CM^2	<grad(XI)2/B2>	xc
PSFM1	CM**-2	NC Pfirsch-Schluter 1 moment
PSFM2	CM**-2	NC Pfirsch-Schluter 2 moment
PSFM3	CM**-2	NC Pfirsch-Schluter 3 moment
PSFM4	CM**-2	NC Pfirsch-Schluter 4 moment
PSFM5	CM**-2	NC Pfirsch-Schluter 5 moment
PSFM6	CM**-2	NC Pfirsch-Schluter 6 moment
PSFM7	CM**-2	NC Pfirsch-Schluter 7 moment
PSFM8	CM**-2	NC Pfirsch-Schluter 8 moment
PSFM9	CM**-2	NC Pfirsch-Schluter 9 moment
PSFM10	CM**-2	NC Pfirsch-Schluter 10 moment
PSFM11	CM**-2	NC Pfirsch-Schluter 11 moment
PSFM12	CM**-2	NC Pfirsch-Schluter 12 moment
PSFM13	CM**-2	NC Pfirsch-Schluter 13 moment
PSFM14	CM**-2	NC Pfirsch-Schluter 14 moment
PSFM15	CM**-2	NC Pfirsch-Schluter 15 moment
PSFM16	CM**-2	NC Pfirsch-Schluter 16 moment
ELONG		Flux surface elongation
TRIANG		Flux surface triangularity
TRIANGU		Flux surf. upper triangularity
TRIANGL		Flux surf. lower triangularity
SQUARE_UO		Flux surf upper outer squareness
SQUARE_LO		Flux surf lower outer squareness
VBRC	VB INTENS	VB PROFILE (CALCULATED)	xc
YMPA	CM	MIDPLANE	xb
RMC00	CM	0TH ASYM R MOMENT	xb
YMC00	CM	0TH ASYM Y MOMENT	xb
RMC01	CM	1st ASYM R COS MOMENT
RMS01	CM	1st ASYM R SIN MOMENT
YMC01	CM	1st ASYM Y COS MOMENT
YMS01	CM	1st ASYM Y SIN MOMENT
RMC02	CM	2nd ASYM R COS MOMENT
RMS02	CM	2nd ASYM R SIN MOMENT
YMC02	CM	2nd ASYM Y COS MOMENT
YMS02	CM	2nd ASYM Y SIN MOMENT
RMC03	CM	3rd ASYM R COS MOMENT
RMS03	CM	3rd ASYM R SIN MOMENT
YMC03	CM	3rd ASYM Y COS MOMENT
YMS03	CM	3rd ASYM Y SIN MOMENT
RMC04	CM	4th ASYM R COS MOMENT
RMS04	CM	4th ASYM R SIN MOMENT
YMC04	CM	4th ASYM Y COS MOMENT
YMS04	CM	4th ASYM Y SIN MOMENT
RMC05	CM	5th ASYM R COS MOMENT
RMS05	CM	5th ASYM R SIN MOMENT
YMC05	CM	5th ASYM Y COS MOMENT
YMS05	CM	5th ASYM Y SIN MOMENT
RMC06	CM	6th ASYM R COS MOMENT
RMS06	CM	6th ASYM R SIN MOMENT
YMC06	CM	6th ASYM Y COS MOMENT
YMS06	CM	6th ASYM Y SIN MOMENT
RMC07	CM	7th ASYM R COS MOMENT
RMS07	CM	7th ASYM R SIN MOMENT
YMC07	CM	7th ASYM Y COS MOMENT
YMS07	CM	7th ASYM Y SIN MOMENT
RMC08	CM	8th ASYM R COS MOMENT
RMS08	CM	8th ASYM R SIN MOMENT
YMC08	CM	8th ASYM Y COS MOMENT
YMS08	CM	8th ASYM Y SIN MOMENT
RMC09	CM	9th ASYM R COS MOMENT
RMS09	CM	9th ASYM R SIN MOMENT
YMC09	CM	9th ASYM Y COS MOMENT
YMS09	CM	9th ASYM Y SIN MOMENT
RMC10	CM	10th ASYM R COS MOMENT
RMS10	CM	10th ASYM R SIN MOMENT
YMC10	CM	10th ASYM Y COS MOMENT
YMS10	CM	10th ASYM Y SIN MOMENT
RMC11	CM	11th ASYM R COS MOMENT
RMS11	CM	11th ASYM R SIN MOMENT
YMC11	CM	11th ASYM Y COS MOMENT
YMS11	CM	11th ASYM Y SIN MOMENT
RMC12	CM	12th ASYM R COS MOMENT
RMS12	CM	12th ASYM R SIN MOMENT
YMC12	CM	12th ASYM Y COS MOMENT
YMS12	CM	12th ASYM Y SIN MOMENT
RMC13	CM	13th ASYM R COS MOMENT
RMS13	CM	13th ASYM R SIN MOMENT
YMC13	CM	13th ASYM Y COS MOMENT
YMS13	CM	13th ASYM Y SIN MOMENT
RMC14	CM	14th ASYM R COS MOMENT
RMS14	CM	14th ASYM R SIN MOMENT
YMC14	CM	14th ASYM Y COS MOMENT
YMS14	CM	14th ASYM Y SIN MOMENT
RMC15	CM	15th ASYM R COS MOMENT
RMS15	CM	15th ASYM R SIN MOMENT
YMC15	CM	15th ASYM Y COS MOMENT
YMS15	CM	15th ASYM Y SIN MOMENT
RMC16	CM	16th ASYM R COS MOMENT
RMS16	CM	16th ASYM R SIN MOMENT
YMC16	CM	16th ASYM Y COS MOMENT
YMS16	CM	16th ASYM Y SIN MOMENT
GMAG	JLES/CM3	GMAG (RT) PRESSURE PROFILE	xc
AMAG		BZ2/BPOL2 PROFILE	xc
SERUN	N/CM3/SEC	RUNAWAY ELEC SOURCE RATE	xc
BPOL	TESLA	POLOIDAL FIELD	xb
CUR	AMPS/CM2	TOTAL PLASMA CURRENT	xc
CUROH	AMPS/CM2	OHMIC PLASMA CURRENT	xc
CURXT	AMPS/CM2	DRIVEN PLASMA CURRENT (SMOOTHED)	xc
CURXTU	AMPS/CM2	DRIVEN PLASMA CURRENT (UNSMOOTHED)	xc
CONPLJB	TESLA	Approximate <J.B>/Jtor	xc
PLJB	AMP*TESLA/CM2	<J.B> FLUX SURFACE VOL.AVG	xc
PLJBXT	AMP*TESLA/CM2	<J.B> DRIVEN (SMOOTHED, USED)	xc
PLJBXTU	AMP*TESLA/CM2	<J.B> DRIVEN (UNSMOOTHED)	xc
PLJBXTR	AMP*TESLA/CM2	<J.B> DRIVEN, FROM RESISTIVITY	xc
PLJBOH	AMP*TESLA/CM2	<J.B> OHMIC	xc
PLJBSNC	AMP*TESLA/CM2	<J.B> NCLASS Bootstrap	xc
PLJBSNEO	AMP*TESLA/CM2	<J.B> NEO-gk Bootstrap	xc
PLEB	VOLT*TESLA/CM	<E.B> FLUX SURFACE VOL.AVG	xc
CURGP	AMPS/CM2	GRAD(P) TOROIDAL CUR	xc
PLCURPLL	AMPS	POLOIDAL CUR (J PLL)	xb
PLCURPRP	AMPS	POLOIDAL CUR (J PERP)	xb
PLCURTOT	AMPS	TOTAL POLOIDAL CUR TO WALL	xb
QCHK		MHD EQUILIBRIUM Q CHECK	xb
Q		Q PROFILE	xb
SHAT		Magnetic shear (r/q)*(dq/dr)	xc
HLFLX	Wb/rad	M,N=1 HELICAL FLUX	xb
ARAT		ASPECT RATIO	xb
V	VOLTS	VOLTAGE	xc
VCHEK	VOLTS	VOLTAGE CHECK	xc
VPOH	VOLTS	VOLTAGE for POH calculation	xc
POH	WATTS/CM3	OHMIC HEATING POWER	xc
UDEXB	WATTS/CM3	E CROSS B POWER	xc
UBTDT	WATTS/CM3	D/DT(FIELD ENERGY)	xc
UBPDT	WATTS/CM3	D/DT(POLOIDAL FIELD ENERGY)	xc
UBCMP	WATTS/CM3	B(POL) COMPRESSION	xc
UMGBA	WATTS/CM3	MAGDIF ENERGY BALANCE	xc
UBPOL	JLES/CM3	POLOIDAL FIELD ENERGY	xc
UBTOR	JLES/CM3	TOROIDAL FIELD ENERGY	xc
PLFLX	Wb/rad	POLOIDAL FLUX	xb
PLFLX2PI	WEBERS	TOTAL POLOIDAL FLUX	xb
TRFLX	WEBERS	TOROIDAL FLUX	xb
TRFCK	WEBERS	MHD TOROIDAL FLUX CHECK	xb
ETA_USE	OHM*CM	RESISTIVITY USED OR INFERRED	xc
ETA_NC	OHM*CM	NC RESISTIVITY (old fit)	xc
ETA_SP	OHM*CM	SPITZER RESISTIVITY	xc
ETA_SPS	OHM*CM	SPITZER RESISTIVITY (Sauter)	xc
ZEFMD		MAGDIF ZEFF PROFILE	xc
ZEFFP		PLASMA COMPOSITION ZEFF PROFILE	xc
ZEFFI		ZEFF DATA (UNCONSTRAINED)	xc
ZEFFPRO		ZEFF PROFILE FROM ZF2 DATA FILE	xc
CURBS	AMPS/CM2	BOOTSTRAP CURRENT	xc
CURBSNEO	AMPS/CM2	NEO-gk Bootstrap Current	xc
CURBSHAG	AMPS/CM2	SAUTER HAGER Bootstrap Current	xc
CURBSWNC	AMPS/CM2	NCLASS Bootstrap Current	xc
CURBSEPS	AMPS/CM2	Aspect Ratio Bootstrap Current	xc
CURBSSAU	AMPS/CM2	Sauter Bootstrap Current as Used	xc
CURBSSAU0	AMPS/CM2	Sauter Bootstrap Current Original Form	xc
CURBSSAU1	AMPS/CM2	Sauter Bootstrap Current CS Chang Form	xc
CURBSNE	AMPS/CM2	Ne contrib Sauter Bootstrap Cur	xc
CURBSTE	AMPS/CM2	Te contrib Sauter Bootstrap Cur	xc
CURBSNI	AMPS/CM2	Ni contrib Sauter Bootstrap Cur	xc
CURBSTI	AMPS/CM2	Ti contrib Sauter Bootstrap Cur	xc
ETA_WNC	OHM*CM	NCLASS Resistivity	xc
ETA_TSC	OHM*CM	TSC Neoclassical Resistivity	xc
ETA_SNC	OHM*CM	Sauter Neoclassical Resistivity	xc
FMCK_WNC		NCLASS Fm convergence check	xc
CONDIWNC	CM**2/SEC	NCLASS ion heat diffusivity	xb
CONDWNCE	CM**2/SEC	NCLASS e- heat diffusivity	xb
CONDWNCX	CM**2/SEC	NCLASS Imp heat diffusivity	xb
CONDNC_TOK	CM**2/SEC	NCLASS TOK Imp heat diffusivity
GFLNC_TOK	N/CM3/SEC	div(NC ptcl flux) TOK imp
QFLNC_TOK	WATTS/CM3	div(NC heat flux) TOK imp
QFLNCC_TOK	WATTS/CM3	div(NC class heat flux) TOK imp
CONDICWNC	CM**2/SEC	NCLASS ion class heat diffus	xb
GFLNC_E	N/CM3/SEC	div(NC ptcl flux) electrons	xc
QFLNC_E	WATTS/CM3	div(NC heat flux) electrons	xc
QFLNCC_E	WATTS/CM3	div(NC class heat flux) electr	xc
GFLNC_X	N/CM3/SEC	div(NC ptcl flux) impurity	xc
QFLNC_X	WATTS/CM3	div(NC heat flux) impurity	xc
QFLNCC_X	WATTS/CM3	div(NC class heat flux) impurity	xc
GFLNC_I	N/CM3/SEC	div(NC ptcl flux) thermal ions	xc
QFLNC_I	WATTS/CM3	div(NC heat flux) thermal ions	xc
QFLNCC_I	WATTS/CM3	div(NC class heat flux) thermals	xc
BBNTX_DD	N/CM3/SEC	DD BEAM-BEAM NEUTRONS	xc
BBNT2_DD	N/CM3/SEC	DD BEAM-BEAM NEUTRONS	2d MC grid index
BTNTR_DD	CM3/SEC	SIGV DD BEAM-TARGET NEUTRONS	xc
BTNTX_DD	N/CM3/SEC	DD BEAM-TARGET NEUTRONS	xc
BTNT2_DD	N/CM3/SEC	DD BEAM-TARGET NEUTRONS	2d MC grid index
BTNTX	N/CM3/SEC	BEAM-TARGET NEUTRONS	xc
BBNTX	N/CM3/SEC	BEAM-BEAM NEUTRONS	xc
POHB	WATTS/CM3	POWER: OH CIRCUIT TO FAST IONS	xc
PCPRB	WATTS/CM3	POWER: COMPRESSION OF FAST IONS	xc
PBEPHI	WATTS/CM3	Electrostatic field -> fast ions	xc
BTRAP0_D		D beam full E dep banana frac.	xc
BTRAP_D		D beam ions banana fraction	xc
NB_F1_D	N/CM**3	density: full energy D beam	xc
NB_F2_D	N/CM**3	density: half energy D beam	xc
NB_F3_D	N/CM**3	density: 1/3 energy D beam	xc
PBE_F1_D	WATTS/CM3	Pbe: full energy D beam	xc
PBE_F2_D	WATTS/CM3	Pbe: half energy D beam	xc
PBE_F3_D	WATTS/CM3	Pbe: 1/3 energy D beam	xc
PBI_F1_D	WATTS/CM3	Pbi: full energy D beam	xc
PBI_F2_D	WATTS/CM3	Pbi: half energy D beam	xc
PBI_F3_D	WATTS/CM3	Pbi: 1/3 energy D beam	xc
VPB_F1_D	T*(cm/sec)	Vpll.B: full energy D beam	xc
VPB_F2_D	T*(cm/sec)	Vpll.B: half energy D beam	xc
VPB_F3_D	T*(cm/sec)	Vpll.B: 1/3 energy D beam	xc
SNCX_D	N/CM3/SEC	CX sink rate beam D	xc
SNCXMC_D	N/CM3/SEC	MC CX sink rate beam D,orbit	xc
BDENS	N/CM**3	BEAM ION DENSITY	xc
BBETA		BEAM BETA POLOIDAL	xc
BTBE		BEAM BETA TOROIDAL	xc
BBPLL		BEAM BETA PLL (POLOIDAL)	xc
BBPRP		BEAM BETA PERP (POLOIDAL)	xc
CURB	AMPS/CM2	BEAM DRIVEN CURRENT	xc
PBI	WATTS/CM3	BEAM HEATING OF IONS	xc
PBE	WATTS/CM3	BEAM HEATING OF ELECTRONS	xc
OMEGB	RAD/SEC	BEAM ION AVG ANG.VELOCITY	xc
UCURB	AMPS/CM2	UNSHIELDED BEAM CURRENT	xc
UJBCO	AMPS/CM2	UNSHIELDED BEAM CUR (CO BEAMS)	xc
UJBCR	AMPS/CM2	UNSHIELDED BEAM CUR (CTR BEAMS)	xc
SDBBI	N/CM3/SEC	BEAM DEPOSITION: BEAM-BEAM II	xc
SDBBX	N/CM3/SEC	BEAM DEPOSITION: BEAM-BEAM CX	xc
SDB_II	N/CM3/SEC	BEAM DEP: ioniz. on therm. ions	xc
SDB_IE	N/CM3/SEC	BEAM DEP: ioniz. on electrons	xc
SDB_IZ	N/CM3/SEC	BEAM DEP: ioniz. on impurities	xc
PBTH	WATTS/CM3	FAST ION THERMALIZATION POWER	xc
SBE	N/CM3/SEC	ELECTRON SCE FAST ION DEPOSITION	xc
SBTH	N/CM3/SEC	FAST ION THERMALIZATION SOURCE	xc
PBCX	WATTS/CM3	THERMAL ION LOSS, FAST ION CX	xc
SBCX0	N/CM3/SEC	FAST ION CX: NEUTRALS BORN	xc
SBXR_II	N/CM3/SEC	FAST ION RECAPTURE on th.ions	xc
SBXR_IE	N/CM3/SEC	FAST ION RECAPTURE on electrons	xc
SBXR_IZ	N/CM3/SEC	FAST ION RECAPTURE on impurities	xc
SBXRB	N/CM3/SEC	FAST ION CX: BEAM-BEAM RECAPTURE	xc
EXCS_D_1		FULL E D: DEPO EXCIT. FACTOR	xc
EXCS_D_2		HALF E D: DEPO EXCIT. FACTOR	xc
EXCS_D_3		1/3 E D: DEPO EXCIT. FACTOR	xc
EXCS_D_X		CX D: RECAP EXCIT. FACTOR	xc
BDENS_D	N/CM**3	D BEAM ION DENSITY	xc
EBEAM_D	EV	AVG D BEAM ION ENERGY	xc
MCDENS_D	N/CM**3	D BEAM ION DENSITY (MC LIST)	xc
MCDEPS_D	N/CM**3	NEW D BEAM IONS (MC DEP)	xc
NMC_D	N	Beam D No. of MC Ions	xc
WNMC_D	#ptcls	Beam D No. of MC Ions	xc
DNBDT_D	N/CM3/SEC	D/DT(D BEAM ION DENS)	xc
OMEGB_D	RAD/SEC	D BEAM ION AVG ANG.VELOCITY	xc
PBI_D	WATTS/CM3	D B->TH ION HEATING	xc
PBCX_D	WATTS/CM3	THERMAL ION LOSS, CX W/ D BEAM	xc
PBTH_D	WATTS/CM3	D BEAM THERMALIZATION POWER	xc
PBE_D	WATTS/CM3	D BEAM->ELECTRON HEATING	xc
SBE_D	N/CM3/SEC	ELECTRON SCE D BEAM DEPOSITION	xc
SBTH_D	N/CM3/SEC	D BEAM THERMALIZATION SOURCE	xc
IBRORB_D	AMPS	D BEAM ION RADIAL CUR (ORBIT)	xb
BDEP_D	N/CM3/SEC	D BEAM DEPOSITION (TOTAL)	xc
SDEP_D	N/CM3/SEC	D BEAM ORBIT AV DEP (TOTAL)	xc
BDEPE_D1	N/CM3/SEC	FULL E D BEAM DEP (TOTAL)	xc
BDEPE_D2	N/CM3/SEC	HALF E D BEAM DEP (TOTAL)	xc
BDEPE_D3	N/CM3/SEC	1/3 E D BEAM DEP (TOTAL)	xc
SDBBI_D	N/CM3/SEC	D BEAM DEPOSITION: BEAM-BEAM II	xc
SDBBX_D	N/CM3/SEC	D BEAM DEPOSITION: BEAM-BEAM CX	xc
SDBII_D	N/CM3/SEC	D BEAM DEP: IONIZ. on therm.ions	xc
SDBIE_D	N/CM3/SEC	D BEAM DEP: IONIZ. on electrons	xc
SDBIZ_D	N/CM3/SEC	D BEAM DEP: IONIZ. on impurities	xc
SDBBI_D1	N/CM3/SEC	Full E D BEAM DEP: BEAM-BEAM II	xc
SDBBX_D1	N/CM3/SEC	Full E D BEAM DEP: BEAM-BEAM CX	xc
SDBII_D1	N/CM3/SEC	Full E D BEAM DEP: II on th.ions	xc
SDBIE_D1	N/CM3/SEC	Full E D BEAM DEP: II on (e-)	xc
SDBIZ_D1	N/CM3/SEC	Full E D BEAM DEP: IONIZ. on imp	xc
SDBBI_D2	N/CM3/SEC	Half E D BEAM DEP: BEAM-BEAM II	xc
SDBBX_D2	N/CM3/SEC	Half E D BEAM DEP: BEAM-BEAM CX	xc
SDBII_D2	N/CM3/SEC	Half E D BEAM DEP: II on th.ions	xc
SDBIE_D2	N/CM3/SEC	Half E D BEAM DEP: II on (e-)	xc
SDBIZ_D2	N/CM3/SEC	Half E D BEAM DEP: IONIZ. on imp	xc
SDBBI_D3	N/CM3/SEC	1/3 E D BEAM DEP: BEAM-BEAM II	xc
SDBBX_D3	N/CM3/SEC	1/3 E D BEAM DEP: BEAM-BEAM CX	xc
SDBII_D3	N/CM3/SEC	1/3 E D BEAM DEP: II on th.ions	xc
SDBIE_D3	N/CM3/SEC	1/3 E D BEAM DEP: II on (e-)	xc
SDBIZ_D3	N/CM3/SEC	1/3 E D BEAM DEP: IONIZ. on imp	xc
SBCX0_D	N/CM3/SEC	D BEAM CX: NEUTRALS BORN	xc
SBXR_I_D	N/CM3/SEC	D B RECAP by ioniz: th.ions	xc
SBXR_E_D	N/CM3/SEC	D B RECAP by ioniz: electrons	xc
SBXR_Z_D	N/CM3/SEC	D B RECAP by ioniz: impurities	xc
SBXRB_D	N/CM3/SEC	D BEAM CX: RECAPTURE: BEAM-BEAM	xc
FPBX_D		D BEAM DRAG >IMPURITIES	xc
FPAX_D		D BEAM SCATTERING >IMPURITIES	xc
TSL1A_D	SECONDS	D FULL E TAU(SLOWING DOWN,CO)	xc
TSL2A_D	SECONDS	D HALF E TAU(SLOWING DOWN,CO)	xc
TSL3A_D	SECONDS	D 1/3 E TAU(SLOWING DOWN,CO)	xc
TSL1B_D	SECONDS	D FULL E TAU(SLOWING DOWN,CTR)	xc
TSL2B_D	SECONDS	D HALF E TAU(SLOWING DOWN,CTR)	xc
TSL3B_D	SECONDS	D 1/3 E TAU(SLOWING DOWN,CTR)	xc
TPA1A_D	SECONDS	D FULL E TAU(SCATTERING,CO)	xc
TPA2A_D	SECONDS	D HALF E TAU(SCATTERING,CO)	xc
TPA3A_D	SECONDS	D 1/3 E TAU(SCATTERING,CO)	xc
TPA1B_D	SECONDS	D FULL E TAU(SCATTERING,CTR)	xc
TPA2B_D	SECONDS	D HALF E TAU(SCATTERING,CTR)	xc
TPA3B_D	SECONDS	D 1/3 E TAU(SCATTERING,CTR)	xc
FBTH1	N/CM**3	FI DIST 0.< R/A <.2	theta
FBTH2	N/CM**3	FI DIST .2< R/A <.4	theta
FBTH3	N/CM**3	FI DIST .4< R/A <.6	theta
FBTH4	N/CM**3	FI DIST .6< R/A <.8	theta
FBTH5	N/CM**3	FI DIST .8< R/A <1.	theta
N0BCXD0	N/CM**3	CX FAST NEUTRAL DENSITY (D0)	xc
N0BD0	N/CM**3	1.GEN FAST NEUTRAL DENSITY (D0)	xc
SBHD	N/CM3/SEC	D+ ION SCE DUE TO BEAM	xc
SB0XD	N/CM3/SEC	D0 NEUTRAL SINK BEAM CX	xc
SB0ID	N/CM3/SEC	D0 NEUTRAL SINK BEAM II	xc
SDCXD	N/CM3/SEC	BEAM DEPOSITION: CX W/D+ IONS	xc
SBXRD	N/CM3/SEC	BEAM CX: RECAPTURE BY CX W/D+	xc
SDCXD_D	N/CM3/SEC	D BEAM DEPOSITION: CX W/D+ IONS	xc
SBXRD_D	N/CM3/SEC	D BEAM CX: RECAPTURE BY CX W/D+	xc
SDCXD_D1	N/CM3/SEC	Full E D BEAM DEP: CX W/D+ IONS	xc
SDCXD_D2	N/CM3/SEC	Half E D BEAM DEP: CX W/D+ IONS	xc
SDCXD_D3	N/CM3/SEC	1/3 E D BEAM DEP: CX W/D+ IONS	xc
TQBE	Nt-M/CM3	BEAM TORQUE TO ELECTRONS	xc
TQBI	Nt-M/CM3	BEAM TORQUE TO IONS	xc
TQBCO	Nt-M/CM3	BEAM COLLISIONAL TORQUE	xc
TQRPL	Nt-M/CM3	BEAM RPL JXB TORQUE	xc
TQBTH	Nt-M/CM3	BEAM THERMALIZATION TORQUE	xc
TQJXB	Nt-M/CM3	BEAM JXB TORQUE	xc
TQBCX	Nt-M/CM3	BEAM CX ANTI-TORQUE	xc
RQBE	WATTS/CM3	BEAM WORK -> ELECTRON ROTATION	xc
RQBI	WATTS/CM3	BEAM WORK -> ION ROTATION	xc
RQBCO	WATTS/CM3	BEAM WORK -> ROTATION (COL.)	xc
RQBTH	WATTS/CM3	BEAM WORK -> ROTATION (THRMALIZ)	xc
PBTHA	WATTS/CM3	BEAM WORK -> ROTATION (TH-ASSYM)	xc
RQJXB	WATTS/CM3	BEAM WORK -> ROTATION (JXB)	xc
RQRPL	WATTS/CM3	BEAM WORK -> ROTATION RPL (JXB)	xc
TQOHB	Nt-M/CM3	TORQUE OH CIRCUIT --> BEAM	xc
TQXFR		FRACTION OF TQBCO -> IMPURITIES	xc
RQOHB	WATTS/CM3	WORK: OH->BEAM, ROTATION	xc
TQBCO_D	Nt-M/CM3	D BEAM COLLISIONAL TORQUE	xc
TQJXB_D	Nt-M/CM3	D BEAM JXB TORQUE	xc
TQRPL_D	Nt-M/CM3	D BEAM RPL JXB TORQUE	xc
CURBRORB	AMPS	FAST ION RADIAL CURRENT (ORBIT)	xb
CURBRABD	AMPS	FAST ION RAD.CUR (ANOM DIFFUS or AEP)	xb
CURBRFSH	AMPS	FAST ION RAD.CUR (FISHBONES)	xb
CURBRRIP	AMPS	FAST ION RAD.CUR (RIPPLE LOSS)	xb
BN0T1	N/CM**3	N0(BEAM):1.GEN 1/1*EB	xc
BN0T2	N/CM**3	N0(BEAM):1.GEN 1/2*EB	xc
BN0T3	N/CM**3	N0(BEAM):1.GEN 1/3*EB	xc
SCEAL	N/CM3/SEC	FUSION ALPHA SOURCE	xc
PALE	WATTS/CM3	ALPHA ELECTRON HEATING	xc
PALI	WATTS/CM3	ALPHA ION HEATING	xc
BTAL		ALPHA TOROIDAL BETA	xc
UALPHPP	JLES/CM3	ALPHA ION PERP ENERGY DENSITY	xc
UALPHPA	JLES/CM3	ALPHA ION PLL ENERGY DENSITY	xc
TAUSAL	SECONDS	ALPHA SLOWING DOWN TIME	xc
NALPHA	N/CM**3	ALPHA ION DENSITY	xc
EPOTNC	VOLTS	ER POTENTIAL: NC ANALYSIS	xb
VTORE_NC	CM/SEC	NC electron toroidal velocity	midplane R
VTORX_NC	CM/SEC	NC impurity toroidal velocity	midplane R
OMGX	rad/sec	NC impurity angular velocity	xc
VPOLE_NC	CM/SEC	NC electron poloidal velocity	midplane R
VPOLX_NC	CM/SEC	NC impurity poloidal velocity	midplane R
VTOR_AVG	CM/SEC	momentum balance avg velocity	midplane R
SQZE_NC		NC electron orbit squeezing	xc
SQZX_NC		NC impurity orbit squeezing	xc
VPOL_AVG	CM/SEC	NC avg poloidal velocity	midplane R
VNDNC_E	CM/SEC	NCLASS e- radial particle convection velocity	xb
DFENC	CM**2/SEC	NCLASS e- particle diffusivity	xb
ERTOT	V/CM	NC radial E Field	midplane R
ERPRESS	V/CM	NC radial E field, Pressure term	midplane R
ERVPOL	V/CM	NC radial E field, Vpol term	midplane R
ERVTOR	V/CM	NC radial E field, Vtor term	midplane R
SREXB_NC	RAD/SEC	ExB shear rate from nclass	midplane R
SREXB_NCL	RAD/SEC	ExB shear rate (nclass,R>R_axis)
JBFAC		Species avg Jb shielding	xc
JBFACZ1		Z=1 Jb shielding	xc
DFINC_TOK	CM**2/SEC	Nclass particle diffusivity for TOK
PTDFI_TOK	CM**2/SEC	Predictive Particle Diffusivity for TOK
VNDNC_TOK	CM/SEC	Nclass avg radial particle convection velocity forTOK
VTORNC_TOK	CM/SEC	NC TOK imp toroidal velocity
VPOLNC_TOK	CM/SEC	NC TOK imp poloidal velocity
OMG_D	rad/sec	NC D angular velocity
VTORD_NC	CM/SEC	NC D+ toroidal velocity	midplane R
VPOLD_NC	CM/SEC	NC D+ poloidal velocity	midplane R
SQZD_NC		NC D+ orbit squeezing	xc
VNDNC_D	CM/SEC	Nclass D+ avg radial particle convection velocity	xb
DFINC_D	CM**2/SEC	Nclass D+ particle diffusivity	xb
DFINS_D	CM**2/SEC	Predictive D+ particle diffusivity	xb
VTORX	CM/SEC	impurity toroidal velocity data	midplane R
NE	N/CM**3	ELECTRON DENSITY	xc
NETW	N/CM**3	NE(R) ASSYMMETRY	xc
TE	EV	ELECTRON TEMPERATURE	xc
PMASS	GRAMS/CM3	PLASMA MASS DENSITY	xc
OMEGA	RAD/SEC	TOROIDAL ANGULAR VELOCITY	xc
OMEGA_NC	RAD/SEC	N.C. TOROIDAL ANGULAR VELOCITY	xc
OMEGDATA	RAD/SEC	Toroidal Ang.Velocity Data	xc
UPHI	JLES/CM3	THERMAL PLASMA ROTATIONAL ENERGY	xc
PPHI	NtM-S/CM3	ANGULAR MOMENTUM DENSITY	xc
VRPOT	VOLTS	RADIAL ELECTRICAL POTENTIAL	xb
EPOTRO	VOLTS	RADIAL POTENTIAL due to ROTATION	xb
AMOI	NtMS2/CM3	Total Therm Ang Inertia Dens	xc
MOIG_D	NtMS2/CM3	D Therm Ang Inertia Dens
MOIG_X	NtMS2/CM3	Impurity Therm Ang Inertia Dens	xc
MOIS_TOK	NtMS2/CM3	TOK Therm Ang Inertia Dens
PPHIN	NtM-S/CM3	NCLASS Ang Mom Dens	xc
PPHIGN_D	NtM-S/CM3	D NCLASS Ang Mom Dens
PPHIGN_X	NtM-S/CM3	Impurity NCLASS Ang Mom Dens	xc
PION	WATTS/CM3	NEUTRAL IONIZATION WORK	xc
PRAD	WATTS/CM3	NET RADIATED POWER USED	xc
PRADC	WATTS/CM3	NET RADIATED POWER (THEORY)	xc
PRAD_BR	WATTS/CM3	BREMSSTRAHLUNG RADIATION	xc
PRAD_LI	WATTS/CM3	LINE RADIATION	xc
PRAD_CY	WATTS/CM3	CYCLOTRON RADIATION	xc
PRADS_TOK	WATTS/CM3	TOK Impurity Radiation
PRLS_TOK	WATTS/CM3	TOK Impurity Line Radiation
PRBS_TOK	WATTS/CM3	TOK Impurity Brem Radiation
PRX_SINGL	WATTS/CM3	SINGL Impurity Radiation
PRLX_SINGL	WATTS/CM3	SINGL Impurity Line Radiation
PRBX_SINGL	WATTS/CM3	SINGL Impurity Brem Radiation
PRAD0	WATTS/CM3	RADIATION: BOLO DATA	xc
PRAD_ADJ	WATTS/CM3	RADIATION: BOLO DATA ADJUSTED	xc
PCNVE	WATTS/CM3	ELECTRON CONVECTION LOSS	xc
CONDE	CM**2/SEC	ELECTRON HEAT DIFFUSIVITY	xb
CONDEPR	CM**2/SEC	chi(e) predictive model	xb
CONDEF	CM**2/SEC	1 FLUID "EFFECTIVE" CHI	xb
VELE	CM/SEC	ELECTRON RADIAL VELOCITY	xb
PLABD	N/CM**3	PELLET ABLATION (DATA)	xc
VMO_PBAL	CM/SEC	Momentum v_rad from ptcl-bal	xb
VMO_DATA	CM/SEC	Momentum v_rad input data	xb
VMO_PINCH	CM/SEC	Momentum v_rad pinch term	xb
VMO_THMOD	CM/SEC	Momentum v_rad, transport model	xb
VMO_NET	CM/SEC	Momentum v_rad used in run	xb
DIFB	CM**2/SEC	ANOMOLOUS FAST ION DIFFUSIVITY	xb
VELB	CM/SEC	ANOMOLOUS FAST ION VELOCITY	xb
CLOGE		ELECTRON COULOMB LOG	xc
GAINE	WATTS/CM3	ELECTRON GAIN	xc
PCMPE	WATTS/CM3	ELECTRON COMPRESSION	xc
PCNDE	WATTS/CM3	ELECTRON CONDUCTION LOSS	xc
KETOT	CM**2/SEC	CHI(E) "COUNTING" CONVECTION	xb
DNEDT	N/CM3/SEC	D/DT(ELECTRON DENSITY)	xc
DIVFE	N/CM3/SEC	DIV(ELECTRON FLUX)	xc
VELWE	CM/SEC	ELECTRON WARE VELOCITY	xb
SCEW	N/CM3/SEC	ELECTRON SCE (WALL NEUTRALS)	xc
SCEV	N/CM3/SEC	ELECTRON SCE (VOL. NEUTRALS)	xc
SCEZ	N/CM3/SEC	ELECTRON SCE (Impurity Ioniz.)	xc
EPTR_MOD	N/CM3/SEC	Div(electron flux) (model)	xc
EPTR_OBS	N/CM3/SEC	Div(electron flux) (observed)	xc
EETR_MOD	WATTS/CM3	Div(elec energy flux) (model)	xc
EETR_OBS	WATTS/CM3	Div(elec energy flux) (observed)	xc
RESPROFPE		ELECTRON PARTICLE EQN. RES	xc
RESPROFPI		THERMAL PARTICLE EQN. RES	xc
RESPROFPX		IMPURITY PARTICLE EQN. RES	xc
RESPROFTE		ELECTRON ENERGY EQN. RES	xc
RESPROFTI		ION ENERGY EQN. RES	xc
RESPROFOMG		ANG. MOMENTUM EQN. RES	xc
BTE		ELECTRON BETA TOROIDAL	xc
TAUPE	SECONDS	ELECTRON PTCL CONFINEMNT	xb
TAPWE	SECONDS	ELECTRON TAU(P) WARE CORRECTION	xb
DIFFE	CM**2/SEC	ELEC PTCL DIFFUSIVITY	xb
DIFFNE	CM**2/SEC	TOTAL ELEC PTCL DIFFUSIVITY	xb
DIFWE	CM**2/SEC	ELEC PTCL DIFFUSIVITY (WARE)	xb
TEE	SECONDS	ELECTRON ENERGY CONFINEMENT	xb
TEEST	SECONDS	ELECTRON ENERGY CONFINEMENT (*)	xb
DEINT	CM**2/SEC	INTOR ELECTRON DIFFUSIVITY	xb
ETAE		D(LN(TE))/D(LN(NE))	xb
XETE0	CM**2/SEC	CHI:E(ETA(E)) GUZDAR	xb
VETAE		ETA(E) VALIDITY CHK	xb
XETAE	CM**2/SEC	CHI:E(ETA(E)) ACTIVE	xb
THNTX	N/CM3/SEC	THERMONUCLEAR NEUTRONS	xc
TTNTX	N/CM3/SEC	TOTAL NEUTRONS	xc
FTOTDT	N/CM3/SEC	TOTAL D-T FUSION	xc
FTOTDDN	N/CM3/SEC	TOTAL D(D,N)HE3 FUSION	xc
FTOT2TT	N/CM3/SEC	TOTAL T(T,2N)HE4 FUSION	xc
FTOTDDP	N/CM3/SEC	TOTAL D(D,P)T FUSION	xc
BTFR_DDP	CM3/SEC	SIGV D(D,P)T BEAM-TARGET FUSION	xc
BTFX_DDP	N/CM3/SEC	D(D,P)T BEAM-TARGET FUSION	xc
BTF2_DDP	N/CM3/SEC	D(D,P)T BEAM-TARGET FUSION	2d MC grid index
BBFX_DDP	N/CM3/SEC	D(D,P)T BEAM-BEAM PROTONS	xc
BBF2_DDP	N/CM3/SEC	D(D,P)T BEAM-BEAM PROTONS	2d MC grid index
THNTX_DD	N/CM3/SEC	DD THERMONUCLEAR NEUTRONS	xc
NI	N/CM**3	TOTAL ION DENSITY	xc
ND	N/CM**3	DEUTERIUM ION DENSITY	xc
NEDATA	N/CM**3	ne (experimental data)	xc
TIPRO	EV	MEASURED TI PROFILE	xc
TI	EV	ION TEMPERATURE	xc
CLOGI		ION COULOMB LOG	xc
XKFAC		CHI(I) MULTIPLIER	xb
FKJUL	CM**2/SEC	CHI(I) NC RUTHERFORD-JULICH: TRANSP	xb
FKHZH	CM**2/SEC	CHI(I) NC HAZELTINE-HINTON: TRANSP	xb
FKBOL	CM**2/SEC	CHI(I) NC BOLTON: TRANSP	xb
FKCHH	CM**2/SEC	CHI(I) NC CHANG-HINTON ORIGINAL: TRANSP	xb
FKCH2	CM**2/SEC	CHI(I) NC CHANG-HINTON VSN 2: TRANSP	xb
FKCHZ	CM**2/SEC	CHI(I) NC CHANG-HINTON Z-CORR: TRANSP	xb
FKJUL_K1	CM**2/SEC	CHI(I) NC RUTHERFORD-JULICH: KAPISN_1	xb
FKHZH_K1	CM**2/SEC	CHI(I) NC HAZELTINE-HINTON: KAPISN_1	xb
FKBOL_K1	CM**2/SEC	CHI(I) NC BOLTON: KAPISN_1	xb
FKCHH_K1	CM**2/SEC	CHI(I) NC CHANG-HINTON ORIGINAL: KAPISN_1	xb
FKCH2_K1	CM**2/SEC	CHI(I) NC CHANG-HINTON VSN 2: KAPISN_1	xb
FKCHZ_K1	CM**2/SEC	CHI(I) NC CHANG-HINTON Z-CORR: KAPISN_1	xb
FKJUL_K0	CM**2/SEC	CHI(I) NC RUTHERFORD-JULICH: KAPISN_0	xb
FKHZH_K0	CM**2/SEC	CHI(I) NC HAZELTINE-HINTON: KAPISN_0	xb
FKBOL_K0	CM**2/SEC	CHI(I) NC BOLTON: KAPISN_0	xb
FKCHH_K0	CM**2/SEC	CHI(I) NC CHANG-HINTON ORIGINAL: KAPISN_0	xb
FKCH2_K0	CM**2/SEC	CHI(I) NC CHANG-HINTON VSN 2: KAPISN_0	xb
FKCHZ_K0	CM**2/SEC	CHI(I) NC CHANG-HINTON Z-CORR: KAPISN_0	xb
NCFTMINUS		NC trapping fraction lower limit
NCFTPLUS		NC trapping fraction upper limit
NCFT		NC trapping fraction (net)
BMAX	Tesla	Bmax on flux surface
BMIN	Tesla	Bmin on flux surface
GBR2	Tesla*cm2	<BR*2> flux surface average	xc
GB1	Tesla	<B> flux surface average	xc
GB2	Tesla**2	<B**2> flux surface average	xc
GB2I	Tesla**-2	<B**-2> flux surface average	xc
ETAI		D(LN(TI))/D(LN("NI"))	xb
ETAIE		D(LN(TI))/D(LN(NE))	xb
XETI0	CM**2/SEC	CHI(ETA(I)) RAW	xb
VETAI		ETA(I) VALIDITY CHECK	xb
GAINI	WATTS/CM3	ION GAIN	xc
PCMPI	WATTS/CM3	ION COMPRESSION	xc
PCOND	WATTS/CM3	ION CONDUCTION LOSS	xc
PCX	WATTS/CM3	CHARGE EXCHANGE LOSS	xc
PNI	WATTS/CM3	NEUTRAL IONIZATION SOURCE	xc
QIE	WATTS/CM3	ION-ELECTRON COUPLING	xc
QIESLVTX	WATTS/CM3	ION-ELECTRON COUPLING(SLVTX)	xc
P0NET	WATTS/CM3	NET CHARGE EXCHANGE LOSS	xc
PCONV	WATTS/CM3	ION CONVECTION LOSS	xc
CONDI	CM**2/SEC	ION HEAT DIFFUSIVITY	xb
CONDIPR	CM**2/SEC	chi(i) predictive model	xb
XKINC	CM**2/SEC	NEOCLASSICAL CHI(I)	xb
XKEPALEO	CM**2/SEC	PALEOCLASSICAL CHI(E)	xb
VPEPALEO	CM/SEC	PALEOCLASSICAL THERMAL PINCH	xb
XKAPIGKF	CM**2/SEC	IFS-PPPL GYROFLUID MODEL CHI(I)	xb
XKAPEGKF	CM**2/SEC	IFS-PPPL GYROFLUID MODEL CHI(E)	xb
RLTCRGKF		R/LTi: critical ITG main br.	xb
RLTCRGKZ		R/LTi: critical ITG Carbon br.	xb
RLTI		R/LTi: actual ITG:R*Grad(Ti)/Ti	xb
XKIGLF23	CM**2/SEC	GLF23 MODEL CHI(I)	xb
XKEGLF23	CM**2/SEC	GLF23 MODEL CHI(E)	xb
DIFFIGLF	CM**2/SEC	GLF23 ION DIFFUSIVITY	xb
ETPHIGLF	CM**2/SEC	GLF23 MOM (TOR) DIFFUSIVITY	xb
XKINEO	CM**2/SEC	NEO MODEL CHI(I)	xb
XKENEO	CM**2/SEC	NEO MODEL CHI(E)	xb
DIFFINEO	CM**2/SEC	NEO ION DIFFUSIVITY	xb
ETPHINEO	CM**2/SEC	NEO MOM (TOR) DIFFUSIVITY	xb
VTINEO	CM/SEC	NEO THERMAL CONVECT. VEL	xb
VTENEO	CM/SEC	NEO THERMAL CONVECT. VEL	xb
VNINEO	CM/SEC	NEO ION PARTICLE CONVECT. VEL.	xb
VPHINEO	CM/SEC	NEO TOR MOM CONVECT. VEL.	xb
OME1W19	RAD/SEC	WEILAND19 FREQUENCY MODE=1
OME2W19	RAD/SEC	WEILAND19 FREQUENCY MODE=2
GAM1W19	1/SEC	WEILAND19 GROWTH RATE MODE=1
GAM2W19	1/SEC	WEILAND19 GROWTH RATE MODE=2
SREXBMOD	RAD/SEC	ExB Shear Rate (transport model)	xb
SREXBA	RAD/SEC	ExB Shear Rate (selected)	xb
SREXBV1	RAD/SEC	ExB Shear Rate (exbshear.f90)	xb
SREXBV2	RAD/SEC	ExB Shear Rate (exbshear2.f90)	xb
SREXBPHI	RAD/SEC	ExB Shear Rate (V_tor)	xb
SREXBTHT	RAD/SEC	ExB Shear Rate (V_pol)	xb
SREXBGRP	RAD/SEC	ExB Shear Rate (dp/dr)	xb
XKIMMM07	CM**2/SEC	MMM07 MODEL CHI(I)	xb
XKEMMM07	CM**2/SEC	MMM07 MODEL CHI(E)	xb
XKZMMM07	CM**2/SEC	MMM07 MODEL CHI(Z)	xb
XPTMMM07	CM**2/SEC	MMM07 MODEL CHI(Phi)	xb
XPPMMM07	CM**2/SEC	MMM07 MODEL CHI(Theta)	xb
XKDMMM07	CM**2/SEC	MMM07 MODEL D(E)	xb
XKIW19	CM**2/SEC	WEILAND19 MODEL CHI(I)	xb
XKEW19	CM**2/SEC	WEILAND19 MODEL CHI(E)	xb
XKZW19	CM**2/SEC	WEILAND19 MODEL CHI(Z)	xb
XDIW19	CM**2/SEC	WEILAND19 MODEL D(I)	xb
XPTW19	CM**2/SEC	WEILAND19 MODEL CHI(Phi)	xb
XPPW19	CM**2/SEC	WEILAND19 MODEL CHI(Theta)	xb
XKIDRBM	CM**2/SEC	DRBM MODEL CHI(I)	xb
XKEDRBM	CM**2/SEC	DRBM MODEL CHI(E)	xb
XKHDRBM	CM**2/SEC	DRBM ION DIFFUSIVITY	xb
VKHDRBM	CM/SEC	DRBM ION CONVECTIVE VELOCITY	xb
GAMDRBM	1/SEC	DRBM GRTH RATE MODE=1	xb
OMGDRBM	RAD/SEC	DRBM FREQUENCY MODE=1	xb
KYRSDRBM	-	DRBM MODEL KY*RHOS AT MAX GROWTH RATE	xc
XKEMTM	CM**2/SEC	MTM MODEL CHI(E)	xb
XDBMTM	-	MTM MODEL DB/B	xc
GAMMAMTM	1/SEC	MTM MODEL GROWTH RATE	xc
OMEGAMTM	RAD/SEC	MTM MODEL FREQUENCY	xc
KYRSMTM	-	MTM MODEL KY*RHOS AT MAX GROWTH RATE	xc
XKEETG	CM**2/SEC	ETG MODEL CHI(E)	xb
GAMMAETG	1/SEC	ETG MODEL GROWTH RATE	xc
OMEGAETG	RAD/SEC	ETG MODEL FREQUENCY	xc
KYRSETG	-	ETG MODEL KY*RHOS AT MAX GROWTH RATE	xc
XKICDBM	CM**2/SEC	CDBM MODEL CHI(I)	xb
XKECDBM	CM**2/SEC	CDBM MODEL CHI(E)	xb
VPHIMMM07	CM/SEC	MMM07 TOR. CONV. VEL.	xb
MODOT	Nt-M/CM3	MOMENTUM GAIN	xc
M0NET	Nt-M/CM3	NET CX MOMENTUM LOSS	xc
MVISC	Nt-M/CM3	VISCOUS TRANSPORT	xc
MCONV	Nt-M/CM3	CONVECTIVE TRANSPORT	xc
RODOT	WATTS/CM3	ROTATIONAL ENERGY GAIN	xc
R0NET	WATTS/CM3	CX ROTATIONAL ENERGY LOSS	xc
RVISC	WATTS/CM3	VISCOUS ROT.ENERGY LOSS	xc
RCONV	WATTS/CM3	CONVECTIVE ROT.ENERGY LOSS	xc
RCMPR	WATTS/CM3	ROTATION COMPRESSION	xc
RSFRC	WATTS/CM3	ROTATION SOURCE FRICTION	xc
QROTF	WATTS/CM3	E(ROT)=>ION HEATING: FRICTION	xc
QROTC	WATTS/CM3	E(ROT)=>ION HEATING: CONVECTIVE	xc
QROT	WATTS/CM3	E(ROT)=> ION HEAT: CONV+FRICTION
TAUPHI	SECONDS	MOMENTUM CONFINEMENT	xb
CHPHI	CM**2/SEC	MOMENTUM DIFFUSIVITY	xb
CHPHM	CM**2/SEC	MOMENTUM CHI(PHI) MODEL	xb
CHPHDAT	CM**2/SEC	MOMENTUM CHI(PHI) DATA	xb
CHPHMNC	CM**2/SEC	MOMENTUM CHI(PHI) NEOCLASSICAL	xb
DNIDT	N/CM3/SEC	D/DT(TOTAL ION DENSITY)	xc
DIVFI	N/CM3/SEC	DIV(TOTAL ION FLUX)	xc
SBTOT	N/CM3/SEC	TOTAL ION SCE(BEAM + HALO)	xc
SWTOT	N/CM3/SEC	TOTAL ION SCE(WALL NEUTRALS)	xc
SBAL_ION	N/CM3/SEC	Total Ion Particle Balance	xc
IPTR_MOD	N/CM3/SEC	Div(total ion flux) (model)	xc
IPTR_OBS	N/CM3/SEC	Div(total ion flux) (observed)	xc
IETR_MOD	WATTS/CM3	Div(ion energy flux) (model)	xc
IETR_OBS	WATTS/CM3	Div(ion energy flux) (observed)	xc
AMTR_MOD	Nt-M/CM3	Div(ang. momentum flux) (model)	xc
AMTR_OBS	Nt-M/CM3	Div(ang. momentum flux) (obs.)	xc
UPWIND_TE		Electron Energy Balance UPWIND ADJUST	xb
UPWIND_TI		Ion Energy Balance UPWIND ADJUST	xb
UPWIND_MO		Angular Momentum Balance UPWIND ADJUST	xb
XZIMPJ		Zonal Avg Z of Impurity	xc
ZIMPS_TOK		TOK Avg. Mult. Impurity Z
AIMPJ		Zonal avg A of impurity	xc
VELIAV	CM/SEC	density averaged ion radial velocity	xb
VEL_TE	CM/SEC	electron energy radial velocity	xb
VEL_TI	CM/SEC	ion energy radial velocity	xb
DNIMP	N/CM3/SEC	D/DT(IMPURITY DENSITY)	xc
DFIMP	N/CM3/SEC	DIV(IMPURITY FLUX)	xc
DIFFX	CM**2/SEC	EFF. IMP ION DIFFUSIVITY	xb
SCIMP	N/CM3/SEC	IMPURITY SOURCE	xc
VELIM	CM/SEC	IMPURITY RADIAL VELOCITY	xb
DZIMP	N/CM3/SEC	D/DT(IMPURITY SPECIE)	xc
XPTR_MOD	N/CM3/SEC	Div(impurity flux) (model)	xc
XPTR_OBS	N/CM3/SEC	Div(impurity flux) (observed)	xc
DNDDT	N/CM3/SEC	D/DT(ION DENS D+)	xc
DIVFD	N/CM3/SEC	DIV(ION FLUX D+)	xc
DIFFD	CM**2/SEC	EFF. D+ ION DIFFUSIVITY
SVD	N/CM3/SEC	TOT ION SCE BEAM+HALO D+
SWD	N/CM3/SEC	TOT ION SCE WALL D+
SBAL_D	N/CM3/SEC	D PTCL BALANCE	xc
UPWIND_D		D ION UPWIND ADJUST ACTIVATION	xb
VELD	CM/SEC	ION VELOCITY (NET) D+
TAUPD	SECONDS	D+ ION PTCL CONFINEMENT
PTRD_MOD	N/CM3/SEC	Div(D ion flux) (model)	xc
PTRD_OBS	N/CM3/SEC	Div(D ion flux) (observed)	xc
GFLNC_D	N/CM3/SEC	div(NC ptcl flux) thermal D+	xc
QFLNC_D	WATTS/CM3	div(NC heat flux) thermal D+	xc
QFLNCC_D	WATTS/CM3	div(NC class heat flux) D+	xc
CONDWNCD	CM**2/SEC	NCLASS D+ heat diffusivity	xb
TEI	SECONDS	ION ENERGY CONFINEMENT	xb
TEIST	SECONDS	ION ENERGY CONFINEMENT (*)	xb
DIFFI	CM**2/SEC	ION DIFFUSIVITY FROM TOTAL FLUX	xb
DIFFI0	CM**2/SEC	INPUT ION DIFFUSIVITY (NMODEL=4)	xb
DFI_D	CM**2/SEC	D+ ION DIFFUSIVITY (NMODEL=4)	xb
VND_D	CM/SEC	D+ NON-DIFFUSIVE FLOW VELOCITY	xb
BTI		ION BETA TOROIDAL	xc
TAUPI	SECONDS	ION PTCL CONFINEMENT	xb
NIMP	N/CM**3	TOTAL IMPURITY DENSITY	xc
NIMP_SINGL	N/CM**3	SINGL Impurity Density
SIMDATA	N/CM**3	TOTAL MULT. IMPURITY INPUT	xc
NIMPS_TOK	N/CM**3	TOK Total Impurity Density
NIMPDATA	N/CM**3	IMPURITY DENSITY INPUT DATA	xc
TX	EV	IMPURITY TEMPERATURE	xc
TMJ	EV	H/HE MAJORITY TEMPERATURE	xc
TMJSM	EV	H/HE MAJORITY TEMP(SMOOTHED)	xc
TIAV	EV	TIavg=(nxTX+nmjTMJ)/(nx+nmj)	xc
DN0VD	N/CM**3	VOL NEUTRAL DENSITY G=D
DN0WD	N/CM**3	WALL NEUTRAL DENS G=D
T0VD	EV	VOL NEUTRAL TEMP G=D
T0WD	EV	WALL NEUTRAL TEMP G=D
OM0VD	RAD/SEC	VOL NEUTRAL ANG.VEL G=D
OM0WD	RAD/SEC	WALL NEUTRAL ANG.VEL G=D
S0V0D	N/CM3/SEC	RECOMB NEUTRAL SCE G=D
SIV0D	N/CM3/SEC	RECOMB RECAP ION SCE G=D
N0V0_D	N/CM**3	RECOMB neutral density G=D
T0V0_D	EV	RECOMB neutral temp G=D
OM0V0_D	RAD/SEC	RECOMB neutral ang. veloc. G=D
S0RECO	N/CM3/SEC	TOTAL RECOMB NEUTRAL SCE	xc
SERECO	N/CM3/SEC	TOTAL RECOMB RECAP ION SCE	xc
SFCXRECO	N/CM3/SEC	RECOMB NEUTRALS -> FAST ION CX	xc
FLX0_RECO	N/CM3/SEC	DIV(RECOMB NEUTRAL FLUX)	xc
BALN0_RECO	N/CM3/SEC	RECOMB NEUTRAL PTCL BALANCE	xc
P0RECO	WATTS/CM3	RECOMB NEUTRAL SCE POWER	xc
PCXRECO	WATTS/CM3	CX POWER TO RECOMB NEUTRALS	xc
PIRECO	WATTS/CM3	RECOMB NEUTRAL RECAPTURE POWER	xc
PFLX0RECO	WATTS/CM3	DIV(RECOMB NEUTRAL POWER FLUX)	xc
BALE0_RECO	WATTS/CM3	RECOMB NEUTRAL POWER BALANCE	xc
TQ0RECO	Nt-M/CM3	RECOMB NEUTRAL SCE TORQUE	xc
TQCXRECO	Nt-M/CM3	CX TORQUE TO RECOMB NEUTRALS	xc
TQIRECO	Nt-M/CM3	RECOMB NEUTRAL RECAPTURE TORQUE	xc
TQ0FLRECO	Nt-M/CM3	DIV(RECOMB NEUTRAL ANG.MO. FLUX)	xc
TQBA0_RECO	Nt-M/CM3	RECOMB NEUTRAL ANG.MO. BALANCE	xc
PSC_HALO	WATTS/CM3	beam halo source/sink power	xc
PCX_HALO	WATTS/CM3	beam halo driven cx power	xc
TQSC_HALO	Nt-M/CM3	beam halo source/sink torque	xc
TQCX_HALO	Nt-M/CM3	beam halo driven cx torque	xc
SBCXD	N/CM3/SEC	D_0 NEUTRAL SOURCE BEAM HALO
SIHALO_D	N/CM3/SEC	BEAM HALO RECAP ION SCE G=D
N0BH_D	N/CM**3	beam halo neutral density G=D
T0BH_D	EV	beam halo neutral temp G=D
OM0BH_D	RAD/SEC	beam halo n0 ang. veloc. G=D
S0HALO	N/CM3/SEC	TOTAL (e-) in HALO NEUTRAL SCE	xc
SEHALO	N/CM3/SEC	(e-) RECAP in HALO ION SCEs	xc
SFCXHALO	N/CM3/SEC	HALO NEUTRALS (e-)=> FAST ION CX	xc
FLX0_HALO	N/CM3/SEC	DIV(HALO (e-) NEUTRAL FLUX)	xc
BALN0_HALO	N/CM3/SEC	HALO (e-) NEUTRAL PTCL BALANCE	xc
P0HALO	WATTS/CM3	HALO NEUTRAL SCE POWER	xc
PCXHALO	WATTS/CM3	CX POWER TO HALO NEUTRALS	xc
PIHALO	WATTS/CM3	HALO NEUTRAL RECAPTURE POWER	xc
PFLX0HALO	WATTS/CM3	DIV(HALO NEUTRAL POWER FLUX)	xc
BALE0_HALO	WATTS/CM3	HALO NEUTRAL POWER BALANCE	xc
TQ0HALO	Nt-M/CM3	HALO NEUTRAL SCE TORQUE	xc
TQCXHALO	Nt-M/CM3	CX TORQUE TO HALO NEUTRALS	xc
TQIHALO	Nt-M/CM3	HALO NEUTRAL RECAPTURE TORQUE	xc
TQ0FLHALO	Nt-M/CM3	DIV(HALO NEUTRAL ANG.MO. FLUX)	xc
TQBA0_HALO	Nt-M/CM3	HALO NEUTRAL ANG.MO. BALANCE	xc
SISGF_D	N/CM3/SEC	gas flow ION SCE G=D
N0SGF_D	N/CM**3	gas flow neutral dens G=D
SESGF	N/CM3/SEC	gas flow electron source	xc
SFCXSGF	N/CM3/SEC	gas flow (e-)=> FAST ION CX	xc
FLX0_SGF	N/CM3/SEC	DIV(gas flow (e-) NEUTRAL FLUX)	xc
BALN0_SGF	N/CM3/SEC	gas flow (e-) NEUTRAL PTCL BAL.	xc
PCXSGF	WATTS/CM3	CX POWER to gas flow NEUTRALS	xc
PISGF	WATTS/CM3	gas fl neutral ionization POWER	xc
PFLX0SGF	WATTS/CM3	DIV(gas flow NEUTRAL POWER FLUX)	xc
BALE0_SGF	WATTS/CM3	gas flow NEUTRAL POWER BALANCE	xc
TQCXSGF	Nt-M/CM3	CX TORQUE TO gas flow NEUTRALS	xc
TQISGF	Nt-M/CM3	gas fl NEUTRAL ionization TORQUE	xc
TQ0FLSGF	Nt-M/CM3	DIV(gas fl NEUTRAL ANG.MO. FLUX)	xc
TQBA0_SGF	Nt-M/CM3	gas flow NEUTRAL ANG.MO. BALANCE	xc
T0CX_GFD	EV	CX NEUTRAL TEMP. gas flow D
OM0CX_GFD	RAD/SEC	CX ANG. VELOC. gas flow D
CFPCX_GFD	WATTS/CM3/EV	CX POWER COEFF. gas flow D
CFTCX_GFD	Nt-M/CM3/(RAD/S)	CX TORQUE COEFF. gas flow D
SEGF_D	N/CM3/SEC	D gas flow electron source
SFCXGF_D	N/CM3/SEC	D gas (e-)=> FAST ION CX
FLX0_GF_D	N/CM3/SEC	D DIV(gas (e-) NEUTRAL FLUX)
BALN0_GF_D	N/CM3/SEC	D gas (e-) NEUTRAL PTCL BAL.
PCXGF_D	WATTS/CM3	CX POWER to D gas NEUTRALS
PIGF_D	WATTS/CM3	D gas flow ionization POWER
PFLX0GF_D	WATTS/CM3	D DIV(gas flow POWER FLUX)
BALE0_GF_D	WATTS/CM3	D gas flow POWER BALANCE
TQCXGF_D	Nt-M/CM3	CX TORQUE TO D gas NEUTRALS
TQIGF_D	Nt-M/CM3	D gas flow ionization TORQUE
TQ0FLGF_D	Nt-M/CM3	D DIV(gas flow ANG.MO. FLUX)
TQBA0_GF_D	Nt-M/CM3	D gas flow ANG.MO. BALANCE
N0GF_D_D	N/CM**3	D n0 due to D gas flow
T0GF_D_D	EV	D T0 due to D gas flow
OM0GF_D_D	RAD/SEC	D omega0 due to D gas flow
SIGF_D_D	N/CM3/SEC	D ion sce from D gas flow
SISRC_D	N/CM3/SEC	recycling ION SCE G=D
N0SRC_D	N/CM**3	recycling neutral dens G=D
SESRC	N/CM3/SEC	recycling electron source	xc
SFCXSRC	N/CM3/SEC	recyling (e-)=> FAST ION CX	xc
FLX0_SRC	N/CM3/SEC	DIV(recyling (e-) NEUTRAL FLUX)	xc
BALN0_SRC	N/CM3/SEC	recyling (e-) NEUTRAL PTCL BAL.	xc
PCXSRC	WATTS/CM3	CX POWER to recyling NEUTRALS	xc
PISRC	WATTS/CM3	recyc neutral ionization POWER	xc
PFLX0SRC	WATTS/CM3	DIV(recyling NEUTRAL POWER FLUX)	xc
BALE0_SRC	WATTS/CM3	recyling NEUTRAL POWER BALANCE	xc
TQCXSRC	Nt-M/CM3	CX TORQUE TO recyling NEUTRALS	xc
TQISRC	Nt-M/CM3	recyc NEUTRAL ionization TORQUE	xc
TQ0FLSRC	Nt-M/CM3	DIV(recyc NEUTRAL ANG.MO. FLUX)	xc
TQBA0_SRC	Nt-M/CM3	recyling NEUTRAL ANG.MO. BALANCE	xc
T0CX_RCD	EV	CX NEUTRAL TEMP. recyc. D
OM0CX_RCD	RAD/SEC	CX ANG. VELOC. recyc. D
CFPCX_RCD	WATTS/CM3/EV	CX POWER COEFF. recyc. D
CFTCX_RCD	Nt-M/CM3/(RAD/S)	CX TORQUE COEFF. recyc. D
SERC_D	N/CM3/SEC	D recyc electron source
SFCXRC_D	N/CM3/SEC	D recyc (e-)=> FAST ION CX
FLX0_RC_D	N/CM3/SEC	D DIV(recyc (e-) NEUTRAL FLUX)
BALN0_RC_D	N/CM3/SEC	D recyc (e-) NEUTRAL PTCL BAL.
PCXRC_D	WATTS/CM3	CX POWER to D recyc NEUTRALS
PIRC_D	WATTS/CM3	D recyc ionization POWER
PFLX0RC_D	WATTS/CM3	D DIV(recyc POWER FLUX)
BALE0_RC_D	WATTS/CM3	D recyc POWER BALANCE
TQCXRC_D	Nt-M/CM3	CX TORQUE TO D recyc NEUTRALS
TQIRC_D	Nt-M/CM3	D recyc ionization TORQUE
TQ0FLRC_D	Nt-M/CM3	D DIV(recyc ANG.MO. FLUX)
TQBA0_RC_D	Nt-M/CM3	D recyc ANG.MO. BALANCE
N0RC_D_D	N/CM**3	D n0 due to D recyc
T0RC_D_D	EV	D T0 due to D recyc
OM0RC_D_D	RAD/SEC	D omega0 due to D recyc
SIRC_D_D	N/CM3/SEC	D ion sce from D recyc
BALN0	N/CM3/SEC	BALANCE CHECK	xc
S0VOL	N/CM3/SEC	TOTAL NEUTRAL VOL E-SCE	xc
FLX0I	N/CM3/SEC	DIV(NEUTRAL INFLUX)	xc
FLX0X	N/CM3/SEC	DIV(NEUTRAL OUTFLUX)	xc
SFETO	N/CM3/SEC	ELECTRONS -> FAST NEUTRALS	xc
SCEE	N/CM3/SEC	ELECTRON SOURCE (TH.NEUTRALS)	xc
BALE0	WATTS/CM3	NEUTRAL POWER BALANCE	xc
S0VLE	WATTS/CM3	TOTAL NEUTRAL VOL SCE	xc
FL0EI	WATTS/CM3	DIV(NEUTRAL E-INFLUX)	xc
FL0EX	WATTS/CM3	DIV(NEUTRAL E-OUTFLUX)	xc
TQBA0	Nt-M/CM3	NEUTRAL TORQUE BALANCE	xc
TQ0VL	Nt-M/CM3	NEUTRAL VOL SCE TORQUE	xc
TQ0FL	Nt-M/CM3	DIV(neutral ANG.MOMENTUM FLUX)	xc
TQCX	Nt-M/CM3	CHARGE EXCHANGE TORQUE	xc
TQIZ	Nt-M/CM3	IONIZATION TORQUE	xc
UE	JLES/CM3	ELECTRON ENERGY DENSITY	xc
UTOTL	JLES/CM3	TOTAL ENERGY DENSITY	xc
GFUN		G: PARA/DIAMAGNETISM	xb
GFUNC		G: GRAD-SHAF EQUILIBRIUM CHECK	xb
FBX		\|B\|/\|BT(EXTERNAL)\|	midplane R
FBTX		\|BT\|/\|BT(EXTERNAL)\|	midplane R
BTX	TESLA	\|BT(EXTERNAL)\|	midplane R
XILMP		TOROIDAL FLUX LABEL	midplane R
TRFMP	WEBERS	TOROIDAL FLUX	midplane R
PLFMP	Wb/rad	POLOIDAL FLUX	midplane R
QMP		ROTATIONAL TRANSFORM	midplane R
HLFMP	Wb/rad	HELICAL FLUX	midplane R
FBPBT		\|BP\|/\|BT\| COMPUTED	midplane R
JGPHR2I	AMPS/CM	<J.grad(phi)>/<1/R**2>	xc
PLJBBGPI	AMPS/CM	<J.B>/<B.grad(phi)>	xc
QDATA		Q profile (Ufile data)	xb
RGRID	cm	R axis for psi(R,Z)	R axis for psi(R,Z)
ZGRID	cm	Z axis for psi(R,Z)	Z axis for psi(R,Z)
PSIRZ	Wb/rad	psi(R,Z) on rectangular R,Z grid	psi(R,Z) as the grid axis
UBPRP	JLES/CM3	BEAM PERP ENERGY DENSITY	xc
UBPAR	JLES/CM3	BEAM PLL ENERGY DENSITY	xc
PTOWB	PASCALS	KINETIC MHD PRESSURE W/FAST IONS	xc
PCHK	PASCALS	P: Surf. Avg. Grad-Shaf Check	xc
PPLAS	PASCALS	PLASMA PRESSURE	xc
PMHD_IN	PASCALS	PRESSURE INPUT to MHD SOLVER	xc
PMHDT_IN	PASCALS	THERMAL PRESSURE to MHD SOLVER	xc
PMHDR_IN	PASCALS	ROTATION PRESSURE to MHD SOLVER	xc
PMHDF_IN	PASCALS	NONTHERMAL PRESS to MHD SOLVER	xc
UBPRP_D	JLES/CM3	D BEAM PERP ENERGY DENSITY	xc
UBPAR_D	JLES/CM3	D BEAM PLL ENERGY DENSITY	xc
BDC01	AMPS/CM2	nb: Beam#01(D),SHLD BEAM DRIVEN
UDC01	AMPS/CM2	nb: Beam#01(D),UNSHLD BEAM DRIVE
NB01_TOT	N/CM**3	nb: Beam#01(D), total density
NB01_E1	N/CM**3	nb: Beam#01(D), E-frac no.1
NB01_E2	N/CM**3	nb: Beam#01(D), E-frac no.2
NB01_E3	N/CM**3	nb: Beam#01(D), E-frac no.3
BDEP01_TOT	N/CM3/SEC	bdep: Beam#01(D),total depositio
BDEP01_E1	N/CM3/SEC	bdep: Beam#01(D), E-frac no.1
BDEP01_E2	N/CM3/SEC	bdep: Beam#01(D), E-frac no.2
BDEP01_E3	N/CM3/SEC	bdep: Beam#01(D), E-frac no.3
PBTOT01	WATTS/CM3	Beam#01(D), total power
PBE01_TOT	WATTS/CM3	Beam#01(D), electron heating
PBE01_E1	WATTS/CM3	Pbe: Beam#01(D), E-frac no.1
PBE01_E2	WATTS/CM3	Pbe: Beam#01(D), E-frac no.2
PBE01_E3	WATTS/CM3	Pbe: Beam#01(D), E-frac no.3
PBI01_TOT	WATTS/CM3	Beam#01(D), ion heating
PBI01_E1	WATTS/CM3	Pbi: Beam#01(D), E-frac no.1
PBI01_E2	WATTS/CM3	Pbi: Beam#01(D), E-frac no.2
PBI01_E3	WATTS/CM3	Pbi: Beam#01(D), E-frac no.3
PBTH01	WATTS/CM3	Beam#01(D), thermalization power
VPB01_E1	T*CM/SEC	Vpll*B: Beam no.01(D), E-frac#1
VPB01_E2	T*CM/SEC	Vpll*B: Beam no.01(D), E-frac#2
VPB01_E3	T*CM/SEC	Vpll*B: Beam no.01(D), E-frac#3
TQTOT01	Nt-M/CM3	Beam#01(D) total torque
TQCOL01	Nt-M/CM3	Beam#01(D) collisional torque
TQJB01	Nt-M/CM3	Beam#01(D) JxB torque
TQTH01	Nt-M/CM3	Beam#01(D) thermalization torque
TQJBD01	Nt-M/CM3	Beam#01(D) JxB torque
BDC02	AMPS/CM2	nb: Beam#02(D),SHLD BEAM DRIVEN
UDC02	AMPS/CM2	nb: Beam#02(D),UNSHLD BEAM DRIVE
NB02_TOT	N/CM**3	nb: Beam#02(D), total density
NB02_E1	N/CM**3	nb: Beam#02(D), E-frac no.1
NB02_E2	N/CM**3	nb: Beam#02(D), E-frac no.2
NB02_E3	N/CM**3	nb: Beam#02(D), E-frac no.3
BDEP02_TOT	N/CM3/SEC	bdep: Beam#02(D),total depositio
BDEP02_E1	N/CM3/SEC	bdep: Beam#02(D), E-frac no.1
BDEP02_E2	N/CM3/SEC	bdep: Beam#02(D), E-frac no.2
BDEP02_E3	N/CM3/SEC	bdep: Beam#02(D), E-frac no.3
PBTOT02	WATTS/CM3	Beam#02(D), total power
PBE02_TOT	WATTS/CM3	Beam#02(D), electron heating
PBE02_E1	WATTS/CM3	Pbe: Beam#02(D), E-frac no.1
PBE02_E2	WATTS/CM3	Pbe: Beam#02(D), E-frac no.2
PBE02_E3	WATTS/CM3	Pbe: Beam#02(D), E-frac no.3
PBI02_TOT	WATTS/CM3	Beam#02(D), ion heating
PBI02_E1	WATTS/CM3	Pbi: Beam#02(D), E-frac no.1
PBI02_E2	WATTS/CM3	Pbi: Beam#02(D), E-frac no.2
PBI02_E3	WATTS/CM3	Pbi: Beam#02(D), E-frac no.3
PBTH02	WATTS/CM3	Beam#02(D), thermalization power
VPB02_E1	T*CM/SEC	Vpll*B: Beam no.02(D), E-frac#1
VPB02_E2	T*CM/SEC	Vpll*B: Beam no.02(D), E-frac#2
VPB02_E3	T*CM/SEC	Vpll*B: Beam no.02(D), E-frac#3
TQTOT02	Nt-M/CM3	Beam#02(D) total torque
TQCOL02	Nt-M/CM3	Beam#02(D) collisional torque
TQJB02	Nt-M/CM3	Beam#02(D) JxB torque
TQTH02	Nt-M/CM3	Beam#02(D) thermalization torque
TQJBD02	Nt-M/CM3	Beam#02(D) JxB torque
BDC03	AMPS/CM2	nb: Beam#03(D),SHLD BEAM DRIVEN
UDC03	AMPS/CM2	nb: Beam#03(D),UNSHLD BEAM DRIVE
NB03_TOT	N/CM**3	nb: Beam#03(D), total density
NB03_E1	N/CM**3	nb: Beam#03(D), E-frac no.1
NB03_E2	N/CM**3	nb: Beam#03(D), E-frac no.2
NB03_E3	N/CM**3	nb: Beam#03(D), E-frac no.3
BDEP03_TOT	N/CM3/SEC	bdep: Beam#03(D),total depositio
BDEP03_E1	N/CM3/SEC	bdep: Beam#03(D), E-frac no.1
BDEP03_E2	N/CM3/SEC	bdep: Beam#03(D), E-frac no.2
BDEP03_E3	N/CM3/SEC	bdep: Beam#03(D), E-frac no.3
PBTOT03	WATTS/CM3	Beam#03(D), total power
PBE03_TOT	WATTS/CM3	Beam#03(D), electron heating
PBE03_E1	WATTS/CM3	Pbe: Beam#03(D), E-frac no.1
PBE03_E2	WATTS/CM3	Pbe: Beam#03(D), E-frac no.2
PBE03_E3	WATTS/CM3	Pbe: Beam#03(D), E-frac no.3
PBI03_TOT	WATTS/CM3	Beam#03(D), ion heating
PBI03_E1	WATTS/CM3	Pbi: Beam#03(D), E-frac no.1
PBI03_E2	WATTS/CM3	Pbi: Beam#03(D), E-frac no.2
PBI03_E3	WATTS/CM3	Pbi: Beam#03(D), E-frac no.3
PBTH03	WATTS/CM3	Beam#03(D), thermalization power
VPB03_E1	T*CM/SEC	Vpll*B: Beam no.03(D), E-frac#1
VPB03_E2	T*CM/SEC	Vpll*B: Beam no.03(D), E-frac#2
VPB03_E3	T*CM/SEC	Vpll*B: Beam no.03(D), E-frac#3
TQTOT03	Nt-M/CM3	Beam#03(D) total torque
TQCOL03	Nt-M/CM3	Beam#03(D) collisional torque
TQJB03	Nt-M/CM3	Beam#03(D) JxB torque
TQTH03	Nt-M/CM3	Beam#03(D) thermalization torque
TQJBD03	Nt-M/CM3	Beam#03(D) JxB torque
BDC04	AMPS/CM2	nb: Beam#04(D),SHLD BEAM DRIVEN
UDC04	AMPS/CM2	nb: Beam#04(D),UNSHLD BEAM DRIVE
NB04_TOT	N/CM**3	nb: Beam#04(D), total density
NB04_E1	N/CM**3	nb: Beam#04(D), E-frac no.1
NB04_E2	N/CM**3	nb: Beam#04(D), E-frac no.2
NB04_E3	N/CM**3	nb: Beam#04(D), E-frac no.3
BDEP04_TOT	N/CM3/SEC	bdep: Beam#04(D),total depositio
BDEP04_E1	N/CM3/SEC	bdep: Beam#04(D), E-frac no.1
BDEP04_E2	N/CM3/SEC	bdep: Beam#04(D), E-frac no.2
BDEP04_E3	N/CM3/SEC	bdep: Beam#04(D), E-frac no.3
PBTOT04	WATTS/CM3	Beam#04(D), total power
PBE04_TOT	WATTS/CM3	Beam#04(D), electron heating
PBE04_E1	WATTS/CM3	Pbe: Beam#04(D), E-frac no.1
PBE04_E2	WATTS/CM3	Pbe: Beam#04(D), E-frac no.2
PBE04_E3	WATTS/CM3	Pbe: Beam#04(D), E-frac no.3
PBI04_TOT	WATTS/CM3	Beam#04(D), ion heating
PBI04_E1	WATTS/CM3	Pbi: Beam#04(D), E-frac no.1
PBI04_E2	WATTS/CM3	Pbi: Beam#04(D), E-frac no.2
PBI04_E3	WATTS/CM3	Pbi: Beam#04(D), E-frac no.3
PBTH04	WATTS/CM3	Beam#04(D), thermalization power
VPB04_E1	T*CM/SEC	Vpll*B: Beam no.04(D), E-frac#1
VPB04_E2	T*CM/SEC	Vpll*B: Beam no.04(D), E-frac#2
VPB04_E3	T*CM/SEC	Vpll*B: Beam no.04(D), E-frac#3
TQTOT04	Nt-M/CM3	Beam#04(D) total torque
TQCOL04	Nt-M/CM3	Beam#04(D) collisional torque
TQJB04	Nt-M/CM3	Beam#04(D) JxB torque
TQTH04	Nt-M/CM3	Beam#04(D) thermalization torque
TQJBD04	Nt-M/CM3	Beam#04(D) JxB torque
BDC05	AMPS/CM2	nb: Beam#05(D),SHLD BEAM DRIVEN
UDC05	AMPS/CM2	nb: Beam#05(D),UNSHLD BEAM DRIVE
NB05_TOT	N/CM**3	nb: Beam#05(D), total density
NB05_E1	N/CM**3	nb: Beam#05(D), E-frac no.1
NB05_E2	N/CM**3	nb: Beam#05(D), E-frac no.2
NB05_E3	N/CM**3	nb: Beam#05(D), E-frac no.3
BDEP05_TOT	N/CM3/SEC	bdep: Beam#05(D),total depositio
BDEP05_E1	N/CM3/SEC	bdep: Beam#05(D), E-frac no.1
BDEP05_E2	N/CM3/SEC	bdep: Beam#05(D), E-frac no.2
BDEP05_E3	N/CM3/SEC	bdep: Beam#05(D), E-frac no.3
PBTOT05	WATTS/CM3	Beam#05(D), total power
PBE05_TOT	WATTS/CM3	Beam#05(D), electron heating
PBE05_E1	WATTS/CM3	Pbe: Beam#05(D), E-frac no.1
PBE05_E2	WATTS/CM3	Pbe: Beam#05(D), E-frac no.2
PBE05_E3	WATTS/CM3	Pbe: Beam#05(D), E-frac no.3
PBI05_TOT	WATTS/CM3	Beam#05(D), ion heating
PBI05_E1	WATTS/CM3	Pbi: Beam#05(D), E-frac no.1
PBI05_E2	WATTS/CM3	Pbi: Beam#05(D), E-frac no.2
PBI05_E3	WATTS/CM3	Pbi: Beam#05(D), E-frac no.3
PBTH05	WATTS/CM3	Beam#05(D), thermalization power
VPB05_E1	T*CM/SEC	Vpll*B: Beam no.05(D), E-frac#1
VPB05_E2	T*CM/SEC	Vpll*B: Beam no.05(D), E-frac#2
VPB05_E3	T*CM/SEC	Vpll*B: Beam no.05(D), E-frac#3
TQTOT05	Nt-M/CM3	Beam#05(D) total torque
TQCOL05	Nt-M/CM3	Beam#05(D) collisional torque
TQJB05	Nt-M/CM3	Beam#05(D) JxB torque
TQTH05	Nt-M/CM3	Beam#05(D) thermalization torque
TQJBD05	Nt-M/CM3	Beam#05(D) JxB torque
BDC06	AMPS/CM2	nb: Beam#06(D),SHLD BEAM DRIVEN
UDC06	AMPS/CM2	nb: Beam#06(D),UNSHLD BEAM DRIVE
NB06_TOT	N/CM**3	nb: Beam#06(D), total density
NB06_E1	N/CM**3	nb: Beam#06(D), E-frac no.1
NB06_E2	N/CM**3	nb: Beam#06(D), E-frac no.2
NB06_E3	N/CM**3	nb: Beam#06(D), E-frac no.3
BDEP06_TOT	N/CM3/SEC	bdep: Beam#06(D),total depositio
BDEP06_E1	N/CM3/SEC	bdep: Beam#06(D), E-frac no.1
BDEP06_E2	N/CM3/SEC	bdep: Beam#06(D), E-frac no.2
BDEP06_E3	N/CM3/SEC	bdep: Beam#06(D), E-frac no.3
PBTOT06	WATTS/CM3	Beam#06(D), total power
PBE06_TOT	WATTS/CM3	Beam#06(D), electron heating
PBE06_E1	WATTS/CM3	Pbe: Beam#06(D), E-frac no.1
PBE06_E2	WATTS/CM3	Pbe: Beam#06(D), E-frac no.2
PBE06_E3	WATTS/CM3	Pbe: Beam#06(D), E-frac no.3
PBI06_TOT	WATTS/CM3	Beam#06(D), ion heating
PBI06_E1	WATTS/CM3	Pbi: Beam#06(D), E-frac no.1
PBI06_E2	WATTS/CM3	Pbi: Beam#06(D), E-frac no.2
PBI06_E3	WATTS/CM3	Pbi: Beam#06(D), E-frac no.3
PBTH06	WATTS/CM3	Beam#06(D), thermalization power
VPB06_E1	T*CM/SEC	Vpll*B: Beam no.06(D), E-frac#1
VPB06_E2	T*CM/SEC	Vpll*B: Beam no.06(D), E-frac#2
VPB06_E3	T*CM/SEC	Vpll*B: Beam no.06(D), E-frac#3
TQTOT06	Nt-M/CM3	Beam#06(D) total torque
TQCOL06	Nt-M/CM3	Beam#06(D) collisional torque
TQJB06	Nt-M/CM3	Beam#06(D) JxB torque
TQTH06	Nt-M/CM3	Beam#06(D) thermalization torque
TQJBD06	Nt-M/CM3	Beam#06(D) JxB torque
BDC07	AMPS/CM2	nb: Beam#07(D),SHLD BEAM DRIVEN
UDC07	AMPS/CM2	nb: Beam#07(D),UNSHLD BEAM DRIVE
NB07_TOT	N/CM**3	nb: Beam#07(D), total density
NB07_E1	N/CM**3	nb: Beam#07(D), E-frac no.1
NB07_E2	N/CM**3	nb: Beam#07(D), E-frac no.2
NB07_E3	N/CM**3	nb: Beam#07(D), E-frac no.3
BDEP07_TOT	N/CM3/SEC	bdep: Beam#07(D),total depositio
BDEP07_E1	N/CM3/SEC	bdep: Beam#07(D), E-frac no.1
BDEP07_E2	N/CM3/SEC	bdep: Beam#07(D), E-frac no.2
BDEP07_E3	N/CM3/SEC	bdep: Beam#07(D), E-frac no.3
PBTOT07	WATTS/CM3	Beam#07(D), total power
PBE07_TOT	WATTS/CM3	Beam#07(D), electron heating
PBE07_E1	WATTS/CM3	Pbe: Beam#07(D), E-frac no.1
PBE07_E2	WATTS/CM3	Pbe: Beam#07(D), E-frac no.2
PBE07_E3	WATTS/CM3	Pbe: Beam#07(D), E-frac no.3
PBI07_TOT	WATTS/CM3	Beam#07(D), ion heating
PBI07_E1	WATTS/CM3	Pbi: Beam#07(D), E-frac no.1
PBI07_E2	WATTS/CM3	Pbi: Beam#07(D), E-frac no.2
PBI07_E3	WATTS/CM3	Pbi: Beam#07(D), E-frac no.3
PBTH07	WATTS/CM3	Beam#07(D), thermalization power
VPB07_E1	T*CM/SEC	Vpll*B: Beam no.07(D), E-frac#1
VPB07_E2	T*CM/SEC	Vpll*B: Beam no.07(D), E-frac#2
VPB07_E3	T*CM/SEC	Vpll*B: Beam no.07(D), E-frac#3
TQTOT07	Nt-M/CM3	Beam#07(D) total torque
TQCOL07	Nt-M/CM3	Beam#07(D) collisional torque
TQJB07	Nt-M/CM3	Beam#07(D) JxB torque
TQTH07	Nt-M/CM3	Beam#07(D) thermalization torque
TQJBD07	Nt-M/CM3	Beam#07(D) JxB torque
BDC08	AMPS/CM2	nb: Beam#08(D),SHLD BEAM DRIVEN
UDC08	AMPS/CM2	nb: Beam#08(D),UNSHLD BEAM DRIVE
NB08_TOT	N/CM**3	nb: Beam#08(D), total density
NB08_E1	N/CM**3	nb: Beam#08(D), E-frac no.1
NB08_E2	N/CM**3	nb: Beam#08(D), E-frac no.2
NB08_E3	N/CM**3	nb: Beam#08(D), E-frac no.3
BDEP08_TOT	N/CM3/SEC	bdep: Beam#08(D),total depositio
BDEP08_E1	N/CM3/SEC	bdep: Beam#08(D), E-frac no.1
BDEP08_E2	N/CM3/SEC	bdep: Beam#08(D), E-frac no.2
BDEP08_E3	N/CM3/SEC	bdep: Beam#08(D), E-frac no.3
PBTOT08	WATTS/CM3	Beam#08(D), total power
PBE08_TOT	WATTS/CM3	Beam#08(D), electron heating
PBE08_E1	WATTS/CM3	Pbe: Beam#08(D), E-frac no.1
PBE08_E2	WATTS/CM3	Pbe: Beam#08(D), E-frac no.2
PBE08_E3	WATTS/CM3	Pbe: Beam#08(D), E-frac no.3
PBI08_TOT	WATTS/CM3	Beam#08(D), ion heating
PBI08_E1	WATTS/CM3	Pbi: Beam#08(D), E-frac no.1
PBI08_E2	WATTS/CM3	Pbi: Beam#08(D), E-frac no.2
PBI08_E3	WATTS/CM3	Pbi: Beam#08(D), E-frac no.3
PBTH08	WATTS/CM3	Beam#08(D), thermalization power
VPB08_E1	T*CM/SEC	Vpll*B: Beam no.08(D), E-frac#1
VPB08_E2	T*CM/SEC	Vpll*B: Beam no.08(D), E-frac#2
VPB08_E3	T*CM/SEC	Vpll*B: Beam no.08(D), E-frac#3
TQTOT08	Nt-M/CM3	Beam#08(D) total torque
TQCOL08	Nt-M/CM3	Beam#08(D) collisional torque
TQJB08	Nt-M/CM3	Beam#08(D) JxB torque
TQTH08	Nt-M/CM3	Beam#08(D) thermalization torque
TQJBD08	Nt-M/CM3	Beam#08(D) JxB torque
BDC09	AMPS/CM2	nb: Beam#09(D),SHLD BEAM DRIVEN
UDC09	AMPS/CM2	nb: Beam#09(D),UNSHLD BEAM DRIVE
NB09_TOT	N/CM**3	nb: Beam#09(D), total density
NB09_E1	N/CM**3	nb: Beam#09(D), E-frac no.1
NB09_E2	N/CM**3	nb: Beam#09(D), E-frac no.2
NB09_E3	N/CM**3	nb: Beam#09(D), E-frac no.3
BDEP09_TOT	N/CM3/SEC	bdep: Beam#09(D),total depositio
BDEP09_E1	N/CM3/SEC	bdep: Beam#09(D), E-frac no.1
BDEP09_E2	N/CM3/SEC	bdep: Beam#09(D), E-frac no.2
BDEP09_E3	N/CM3/SEC	bdep: Beam#09(D), E-frac no.3
PBTOT09	WATTS/CM3	Beam#09(D), total power
PBE09_TOT	WATTS/CM3	Beam#09(D), electron heating
PBE09_E1	WATTS/CM3	Pbe: Beam#09(D), E-frac no.1
PBE09_E2	WATTS/CM3	Pbe: Beam#09(D), E-frac no.2
PBE09_E3	WATTS/CM3	Pbe: Beam#09(D), E-frac no.3
PBI09_TOT	WATTS/CM3	Beam#09(D), ion heating
PBI09_E1	WATTS/CM3	Pbi: Beam#09(D), E-frac no.1
PBI09_E2	WATTS/CM3	Pbi: Beam#09(D), E-frac no.2
PBI09_E3	WATTS/CM3	Pbi: Beam#09(D), E-frac no.3
PBTH09	WATTS/CM3	Beam#09(D), thermalization power
VPB09_E1	T*CM/SEC	Vpll*B: Beam no.09(D), E-frac#1
VPB09_E2	T*CM/SEC	Vpll*B: Beam no.09(D), E-frac#2
VPB09_E3	T*CM/SEC	Vpll*B: Beam no.09(D), E-frac#3
TQTOT09	Nt-M/CM3	Beam#09(D) total torque
TQCOL09	Nt-M/CM3	Beam#09(D) collisional torque
TQJB09	Nt-M/CM3	Beam#09(D) JxB torque
TQTH09	Nt-M/CM3	Beam#09(D) thermalization torque
TQJBD09	Nt-M/CM3	Beam#09(D) JxB torque
BDC10	AMPS/CM2	nb: Beam#10(D),SHLD BEAM DRIVEN
UDC10	AMPS/CM2	nb: Beam#10(D),UNSHLD BEAM DRIVE
NB10_TOT	N/CM**3	nb: Beam#10(D), total density
NB10_E1	N/CM**3	nb: Beam#10(D), E-frac no.1
NB10_E2	N/CM**3	nb: Beam#10(D), E-frac no.2
NB10_E3	N/CM**3	nb: Beam#10(D), E-frac no.3
BDEP10_TOT	N/CM3/SEC	bdep: Beam#10(D),total depositio
BDEP10_E1	N/CM3/SEC	bdep: Beam#10(D), E-frac no.1
BDEP10_E2	N/CM3/SEC	bdep: Beam#10(D), E-frac no.2
BDEP10_E3	N/CM3/SEC	bdep: Beam#10(D), E-frac no.3
PBTOT10	WATTS/CM3	Beam#10(D), total power
PBE10_TOT	WATTS/CM3	Beam#10(D), electron heating
PBE10_E1	WATTS/CM3	Pbe: Beam#10(D), E-frac no.1
PBE10_E2	WATTS/CM3	Pbe: Beam#10(D), E-frac no.2
PBE10_E3	WATTS/CM3	Pbe: Beam#10(D), E-frac no.3
PBI10_TOT	WATTS/CM3	Beam#10(D), ion heating
PBI10_E1	WATTS/CM3	Pbi: Beam#10(D), E-frac no.1
PBI10_E2	WATTS/CM3	Pbi: Beam#10(D), E-frac no.2
PBI10_E3	WATTS/CM3	Pbi: Beam#10(D), E-frac no.3
PBTH10	WATTS/CM3	Beam#10(D), thermalization power
VPB10_E1	T*CM/SEC	Vpll*B: Beam no.10(D), E-frac#1
VPB10_E2	T*CM/SEC	Vpll*B: Beam no.10(D), E-frac#2
VPB10_E3	T*CM/SEC	Vpll*B: Beam no.10(D), E-frac#3
TQTOT10	Nt-M/CM3	Beam#10(D) total torque
TQCOL10	Nt-M/CM3	Beam#10(D) collisional torque
TQJB10	Nt-M/CM3	Beam#10(D) JxB torque
TQTH10	Nt-M/CM3	Beam#10(D) thermalization torque
TQJBD10	Nt-M/CM3	Beam#10(D) JxB torque
BDC11	AMPS/CM2	nb: Beam#11(D),SHLD BEAM DRIVEN
UDC11	AMPS/CM2	nb: Beam#11(D),UNSHLD BEAM DRIVE
NB11_TOT	N/CM**3	nb: Beam#11(D), total density
NB11_E1	N/CM**3	nb: Beam#11(D), E-frac no.1
NB11_E2	N/CM**3	nb: Beam#11(D), E-frac no.2
NB11_E3	N/CM**3	nb: Beam#11(D), E-frac no.3
BDEP11_TOT	N/CM3/SEC	bdep: Beam#11(D),total depositio
BDEP11_E1	N/CM3/SEC	bdep: Beam#11(D), E-frac no.1
BDEP11_E2	N/CM3/SEC	bdep: Beam#11(D), E-frac no.2
BDEP11_E3	N/CM3/SEC	bdep: Beam#11(D), E-frac no.3
PBTOT11	WATTS/CM3	Beam#11(D), total power
PBE11_TOT	WATTS/CM3	Beam#11(D), electron heating
PBE11_E1	WATTS/CM3	Pbe: Beam#11(D), E-frac no.1
PBE11_E2	WATTS/CM3	Pbe: Beam#11(D), E-frac no.2
PBE11_E3	WATTS/CM3	Pbe: Beam#11(D), E-frac no.3
PBI11_TOT	WATTS/CM3	Beam#11(D), ion heating
PBI11_E1	WATTS/CM3	Pbi: Beam#11(D), E-frac no.1
PBI11_E2	WATTS/CM3	Pbi: Beam#11(D), E-frac no.2
PBI11_E3	WATTS/CM3	Pbi: Beam#11(D), E-frac no.3
PBTH11	WATTS/CM3	Beam#11(D), thermalization power
VPB11_E1	T*CM/SEC	Vpll*B: Beam no.11(D), E-frac#1
VPB11_E2	T*CM/SEC	Vpll*B: Beam no.11(D), E-frac#2
VPB11_E3	T*CM/SEC	Vpll*B: Beam no.11(D), E-frac#3
TQTOT11	Nt-M/CM3	Beam#11(D) total torque
TQCOL11	Nt-M/CM3	Beam#11(D) collisional torque
TQJB11	Nt-M/CM3	Beam#11(D) JxB torque
TQTH11	Nt-M/CM3	Beam#11(D) thermalization torque
TQJBD11	Nt-M/CM3	Beam#11(D) JxB torque
BDC12	AMPS/CM2	nb: Beam#12(D),SHLD BEAM DRIVEN
UDC12	AMPS/CM2	nb: Beam#12(D),UNSHLD BEAM DRIVE
NB12_TOT	N/CM**3	nb: Beam#12(D), total density
NB12_E1	N/CM**3	nb: Beam#12(D), E-frac no.1
NB12_E2	N/CM**3	nb: Beam#12(D), E-frac no.2
NB12_E3	N/CM**3	nb: Beam#12(D), E-frac no.3
BDEP12_TOT	N/CM3/SEC	bdep: Beam#12(D),total depositio
BDEP12_E1	N/CM3/SEC	bdep: Beam#12(D), E-frac no.1
BDEP12_E2	N/CM3/SEC	bdep: Beam#12(D), E-frac no.2
BDEP12_E3	N/CM3/SEC	bdep: Beam#12(D), E-frac no.3
PBTOT12	WATTS/CM3	Beam#12(D), total power
PBE12_TOT	WATTS/CM3	Beam#12(D), electron heating
PBE12_E1	WATTS/CM3	Pbe: Beam#12(D), E-frac no.1
PBE12_E2	WATTS/CM3	Pbe: Beam#12(D), E-frac no.2
PBE12_E3	WATTS/CM3	Pbe: Beam#12(D), E-frac no.3
PBI12_TOT	WATTS/CM3	Beam#12(D), ion heating
PBI12_E1	WATTS/CM3	Pbi: Beam#12(D), E-frac no.1
PBI12_E2	WATTS/CM3	Pbi: Beam#12(D), E-frac no.2
PBI12_E3	WATTS/CM3	Pbi: Beam#12(D), E-frac no.3
PBTH12	WATTS/CM3	Beam#12(D), thermalization power
VPB12_E1	T*CM/SEC	Vpll*B: Beam no.12(D), E-frac#1
VPB12_E2	T*CM/SEC	Vpll*B: Beam no.12(D), E-frac#2
VPB12_E3	T*CM/SEC	Vpll*B: Beam no.12(D), E-frac#3
TQTOT12	Nt-M/CM3	Beam#12(D) total torque
TQCOL12	Nt-M/CM3	Beam#12(D) collisional torque
TQJB12	Nt-M/CM3	Beam#12(D) JxB torque
TQTH12	Nt-M/CM3	Beam#12(D) thermalization torque
TQJBD12	Nt-M/CM3	Beam#12(D) JxB torque
BDC13	AMPS/CM2	nb: Beam#13(D),SHLD BEAM DRIVEN
UDC13	AMPS/CM2	nb: Beam#13(D),UNSHLD BEAM DRIVE
NB13_TOT	N/CM**3	nb: Beam#13(D), total density
NB13_E1	N/CM**3	nb: Beam#13(D), E-frac no.1
NB13_E2	N/CM**3	nb: Beam#13(D), E-frac no.2
NB13_E3	N/CM**3	nb: Beam#13(D), E-frac no.3
BDEP13_TOT	N/CM3/SEC	bdep: Beam#13(D),total depositio
BDEP13_E1	N/CM3/SEC	bdep: Beam#13(D), E-frac no.1
BDEP13_E2	N/CM3/SEC	bdep: Beam#13(D), E-frac no.2
BDEP13_E3	N/CM3/SEC	bdep: Beam#13(D), E-frac no.3
PBTOT13	WATTS/CM3	Beam#13(D), total power
PBE13_TOT	WATTS/CM3	Beam#13(D), electron heating
PBE13_E1	WATTS/CM3	Pbe: Beam#13(D), E-frac no.1
PBE13_E2	WATTS/CM3	Pbe: Beam#13(D), E-frac no.2
PBE13_E3	WATTS/CM3	Pbe: Beam#13(D), E-frac no.3
PBI13_TOT	WATTS/CM3	Beam#13(D), ion heating
PBI13_E1	WATTS/CM3	Pbi: Beam#13(D), E-frac no.1
PBI13_E2	WATTS/CM3	Pbi: Beam#13(D), E-frac no.2
PBI13_E3	WATTS/CM3	Pbi: Beam#13(D), E-frac no.3
PBTH13	WATTS/CM3	Beam#13(D), thermalization power
VPB13_E1	T*CM/SEC	Vpll*B: Beam no.13(D), E-frac#1
VPB13_E2	T*CM/SEC	Vpll*B: Beam no.13(D), E-frac#2
VPB13_E3	T*CM/SEC	Vpll*B: Beam no.13(D), E-frac#3
TQTOT13	Nt-M/CM3	Beam#13(D) total torque
TQCOL13	Nt-M/CM3	Beam#13(D) collisional torque
TQJB13	Nt-M/CM3	Beam#13(D) JxB torque
TQTH13	Nt-M/CM3	Beam#13(D) thermalization torque
TQJBD13	Nt-M/CM3	Beam#13(D) JxB torque
BDC14	AMPS/CM2	nb: Beam#14(D),SHLD BEAM DRIVEN
UDC14	AMPS/CM2	nb: Beam#14(D),UNSHLD BEAM DRIVE
NB14_TOT	N/CM**3	nb: Beam#14(D), total density
NB14_E1	N/CM**3	nb: Beam#14(D), E-frac no.1
NB14_E2	N/CM**3	nb: Beam#14(D), E-frac no.2
NB14_E3	N/CM**3	nb: Beam#14(D), E-frac no.3
BDEP14_TOT	N/CM3/SEC	bdep: Beam#14(D),total depositio
BDEP14_E1	N/CM3/SEC	bdep: Beam#14(D), E-frac no.1
BDEP14_E2	N/CM3/SEC	bdep: Beam#14(D), E-frac no.2
BDEP14_E3	N/CM3/SEC	bdep: Beam#14(D), E-frac no.3
PBTOT14	WATTS/CM3	Beam#14(D), total power
PBE14_TOT	WATTS/CM3	Beam#14(D), electron heating
PBE14_E1	WATTS/CM3	Pbe: Beam#14(D), E-frac no.1
PBE14_E2	WATTS/CM3	Pbe: Beam#14(D), E-frac no.2
PBE14_E3	WATTS/CM3	Pbe: Beam#14(D), E-frac no.3
PBI14_TOT	WATTS/CM3	Beam#14(D), ion heating
PBI14_E1	WATTS/CM3	Pbi: Beam#14(D), E-frac no.1
PBI14_E2	WATTS/CM3	Pbi: Beam#14(D), E-frac no.2
PBI14_E3	WATTS/CM3	Pbi: Beam#14(D), E-frac no.3
PBTH14	WATTS/CM3	Beam#14(D), thermalization power
VPB14_E1	T*CM/SEC	Vpll*B: Beam no.14(D), E-frac#1
VPB14_E2	T*CM/SEC	Vpll*B: Beam no.14(D), E-frac#2
VPB14_E3	T*CM/SEC	Vpll*B: Beam no.14(D), E-frac#3
TQTOT14	Nt-M/CM3	Beam#14(D) total torque
TQCOL14	Nt-M/CM3	Beam#14(D) collisional torque
TQJB14	Nt-M/CM3	Beam#14(D) JxB torque
TQTH14	Nt-M/CM3	Beam#14(D) thermalization torque
TQJBD14	Nt-M/CM3	Beam#14(D) JxB torque
TQJXBT	Nt-M/CM3	BEAM JXB TORQUE	xc
TQJBD	Nt-M/CM3	BEAM DEP. JXB TORQUE	xc
SSHAF	CM	SHAFRANOV SHIFT	xb
SSHAFDA	CM	SHAFRANOV SHIFT (MHD DATA)	xb
UI	JLES/CM3	ION ENERGY DENSITY	xc
UTHRM	JLES/CM3	THERMAL ENERGY DENSITY	xc
UFASTPP	JLES/CM3	FAST ION PERP ENERGY DENSITY
UFASTPA	JLES/CM3	FAST ION PLL ENERGY DENSITY
NUSTI		ION COLLISIONALITY	xc
NUSTE		ELECTRON COLLISIONALITY	xc
TAUES	SECONDS	PLASMA ENERGY CONFINEMENT (*)	xb
TAUE	SECONDS	PLASMA ENERGY CONFINEMENT	xb
BTPL		PLASMA BETA TOROIDAL	xc
BTTOT		TOTAL BETA TOROIDAL	xc
BTROT		ROTATION BETA TOROIDAL	xc
BOL_USE	W/cm**3	BOL data as used
BOL_IN	W/cm**3	BOL data as input
NER_USE	n/cm**3	NER data as used
NER_IN	n/cm**3	NER data as input
NIM_USE	n/cm**3	NIM data as used
NIM_IN	n/cm**3	NIM data as input
OMG_USE	rad/sec	OMG data as used
OMG_IN	rad/sec	OMG data as input
QPR_USE		QPR data as used
QPR_IN		QPR data as input
TER_USE	eV	TER data as used
TER_IN	eV	TER data as input
TI2_USE	eV	TI2 data as used
TI2_IN	eV	TI2 data as input
ZF2_USE		ZF2 data as used
ZF2_IN		ZF2 data as input
IHEAT	WATTS/CM3	TOTAL ION HEATING	xc
TIBAL	WATTS/CM3	ION POWER BALANCE	xc
BOGUSI	WATTS/CM3	BOGUS HEATING TO KEEP TI > 0	xc
EHEAT	WATTS/CM3	TOTAL ELECTRON HEATING	xc
TEBAL	WATTS/CM3	ELECTRON POWER BALANCE	xc
BOGUSE	WATTS/CM3	BOGUS HEATING TO KEEP TE > 0	xc
TQIN	Nt-M/CM3	TOTAL INPUT TORQUE	xc
PHBAL	Nt-M/CM3	ANGULAR MOMENTUM BALANCE	xc
TQNTV	Nt-M/CM3	torque due to NTV neoclassical toroidal viscosity	xc
RQNTV	WATTS/CM3	NTV torque work	xc
UPHIN	WATTS/CM3	TOTAL ROTATIONAL ENERGY INPUT	xc
UPBAL	WATTS/CM3	ROTATIONAL ENERGY BALANCE	xc
IRAEPT	AMPS	FAST ION RAD.CUR DUE TO AEP (MHD) ACTIVITY	xb
PBAEPB_D	WATTS/CM3	AEP POWER D beam
IRAEPB_D	AMPS	D BEAM ION RAD.CUR (AEP, MHD activity)
PBAEPMD_1	WATTS/CM3	AEP POWER D beam by mode1
PBAEPMD_2	WATTS/CM3	AEP POWER D beam by mode2
PBAEPMD_3	WATTS/CM3	AEP POWER D beam by mode3
PBAEPMD_4	WATTS/CM3	AEP POWER D beam by mode4
PBAEPMD_5	WATTS/CM3	AEP POWER D beam by mode5
PBAEPMD_6	WATTS/CM3	AEP POWER D beam by mode6
PBAEPMD_7	WATTS/CM3	AEP POWER D beam by mode7
PBAEPMD_8	WATTS/CM3	AEP POWER D beam by mode8
PBAEPMD_9	WATTS/CM3	AEP POWER D beam by mode9
PBAEPMD_10	WATTS/CM3	AEP POWER D beam by mode10
TR_YEAR		DOI 10.11578/dc.20180627.4
TR_MAJV		Major version number
TR_MINV		Minor version number
PBINJ_D	WATTS	DBEAM MC IONS POWER INJECTED
PBDEPMC_D	WATTS	DBEAM MC IONS POWER DEPOSITED
PBSHINE_D	WATTS	DBEAM SHINE-THRU POWER
PBDEPBA_D	WATTS	DBEAM POWER, BALANCE CHECK
BPHINJS_D	NT-M	DBEAM MOMENTUM INJECTED
BPHSHIN_D	NT-M	DBEAM SH_THRU MOMENTUM
BPHDEP0_D	NT-M	DBEAM DEPOSITED MOMENTUM, ION point
BPHDEPGC_D	NT-M	DBEAM DEPOSITED MOMENTUM, at GC
BPHDPBA_D	NT-M	DBEAM MOMENTUM, BALANCE CHECK
GSERROR		REL.EQUIL.GRAD-SHAFRANOV ERROR
RZITER		RZSOLVER iterations
UL2PB		LI/2+BETA(POLOIDAL) UFILE
VISBC	VB UNITS	CHORDAL VB LIGHT (CALCULATED)
MNEUT	N/SEC	MEASURED NEUTRONS
UBDIA		UFILE BETA(DIAMAGNETIC)
BZ	TESLA	BZ @R=RMAJOR OUTSIDE PLASMA
BZXR	TESLA*CM	VACUUM FIELD "BZ*R"
TFLUX	WEBERS	ENCLOSED TOROIDAL FLUX
PLFLXA	Wb/rad	ENCLOSED POLOIDAL FLUX
PSI0_TR	Wb/rad	Psi_poloidal(axis) in simulation
PSI0_DATA	Wb/rad	Psi_poloidal(axis) input data
DFLXM	WEBERS	MEASURED DIAMAGNETIC FLUX
DFLUX	WEBERS	COMPUTED DIAMAGNETIC FLUX
ELDOT	1/SEC	ELDOT: GRID MOTION
SEEDG	N/SEC	ELECTRONS VIA BDY
PEEDG	WATTS	ELECTRON ENERGY VIA BDY
PIEDG	WATTS	ION ENERGY VIA BDY
PCUR	AMPS	MEASURED PLASMA CURRENT
PCUREQ	AMPS	EQ PLASMA CURRENT
PCURC	AMPS	CALCULATED PLASMA CURRENT
VSUR0	VOLTS	SURFACE VOLTAGE
ZEFFM		AXIAL MAGDIF. ZEFF
ZEFFC		AXIAL PLASMA COMPOSITION ZEFF
ZEFFI0		INPUT AXIAL ZEFF (UNCONSTRAINED)
VSUR	VOLTS	MEAS.AVG. SURFACE VOLTAGE
VSURC	VOLTS	CALC.AVG. SURFACE VOLTAGE
FLSTA	0=NORMAL	FALSI ERROR CODE
PVOL	CM**3	PLASMA VOLUME
PAREA	CM**2	PLASMA CROSS SECTION AREA
PVOLB	CM**3	PLASMA VOLUME FROM BOUNDARY
PVOLF	CM**3	PLASMA VOLUME FROM FLUX SURF
RMAJDIFF	CM	MAX DIFF BOUND AND FLUX MIDPLANE
RMAJBLIM	CM	RMAJ EXTENT OF THE BOUNDARY
RMAJDFRAC		MAX DIFF BOUND/MIDPLANE WIDTH
YMPBDY	CM	MIDPLANE
RMCB0	CM	0TH ASYM R BOUND MOMENT
YMCB0	CM	0TH ASYM Y BOUND MOMENT
RMCB1	CM	1st ASYM R COS BOUND MOMENT
RMSB1	CM	1st ASYM R SIN BOUND MOMENT
YMCB1	CM	1st ASYM Y COS BOUND MOMENT
YMSB1	CM	1st ASYM Y SIN BOUND MOMENT
RMCB2	CM	2nd ASYM R COS BOUND MOMENT
RMSB2	CM	2nd ASYM R SIN BOUND MOMENT
YMCB2	CM	2nd ASYM Y COS BOUND MOMENT
YMSB2	CM	2nd ASYM Y SIN BOUND MOMENT
RMCB3	CM	3rd ASYM R COS BOUND MOMENT
RMSB3	CM	3rd ASYM R SIN BOUND MOMENT
YMCB3	CM	3rd ASYM Y COS BOUND MOMENT
YMSB3	CM	3rd ASYM Y SIN BOUND MOMENT
RMCB4	CM	4th ASYM R COS BOUND MOMENT
RMSB4	CM	4th ASYM R SIN BOUND MOMENT
YMCB4	CM	4th ASYM Y COS BOUND MOMENT
YMSB4	CM	4th ASYM Y SIN BOUND MOMENT
RMCB5	CM	5th ASYM R COS BOUND MOMENT
RMSB5	CM	5th ASYM R SIN BOUND MOMENT
YMCB5	CM	5th ASYM Y COS BOUND MOMENT
YMSB5	CM	5th ASYM Y SIN BOUND MOMENT
RMCB6	CM	6th ASYM R COS BOUND MOMENT
RMSB6	CM	6th ASYM R SIN BOUND MOMENT
YMCB6	CM	6th ASYM Y COS BOUND MOMENT
YMSB6	CM	6th ASYM Y SIN BOUND MOMENT
RMCB7	CM	7th ASYM R COS BOUND MOMENT
RMSB7	CM	7th ASYM R SIN BOUND MOMENT
YMCB7	CM	7th ASYM Y COS BOUND MOMENT
YMSB7	CM	7th ASYM Y SIN BOUND MOMENT
RMCB8	CM	8th ASYM R COS BOUND MOMENT
RMSB8	CM	8th ASYM R SIN BOUND MOMENT
YMCB8	CM	8th ASYM Y COS BOUND MOMENT
YMSB8	CM	8th ASYM Y SIN BOUND MOMENT
RMCB9	CM	9th ASYM R COS BOUND MOMENT
RMSB9	CM	9th ASYM R SIN BOUND MOMENT
YMCB9	CM	9th ASYM Y COS BOUND MOMENT
YMSB9	CM	9th ASYM Y SIN BOUND MOMENT
RMCB10	CM	10th ASYM R COS BOUND MOMENT
RMSB10	CM	10th ASYM R SIN BOUND MOMENT
YMCB10	CM	10th ASYM Y COS BOUND MOMENT
YMSB10	CM	10th ASYM Y SIN BOUND MOMENT
RMCB11	CM	11th ASYM R COS BOUND MOMENT
RMSB11	CM	11th ASYM R SIN BOUND MOMENT
YMCB11	CM	11th ASYM Y COS BOUND MOMENT
YMSB11	CM	11th ASYM Y SIN BOUND MOMENT
RMCB12	CM	12th ASYM R COS BOUND MOMENT
RMSB12	CM	12th ASYM R SIN BOUND MOMENT
YMCB12	CM	12th ASYM Y COS BOUND MOMENT
YMSB12	CM	12th ASYM Y SIN BOUND MOMENT
RMCB13	CM	13th ASYM R COS BOUND MOMENT
RMSB13	CM	13th ASYM R SIN BOUND MOMENT
YMCB13	CM	13th ASYM Y COS BOUND MOMENT
YMSB13	CM	13th ASYM Y SIN BOUND MOMENT
RMCB14	CM	14th ASYM R COS BOUND MOMENT
RMSB14	CM	14th ASYM R SIN BOUND MOMENT
YMCB14	CM	14th ASYM Y COS BOUND MOMENT
YMSB14	CM	14th ASYM Y SIN BOUND MOMENT
RMCB15	CM	15th ASYM R COS BOUND MOMENT
RMSB15	CM	15th ASYM R SIN BOUND MOMENT
YMCB15	CM	15th ASYM Y COS BOUND MOMENT
YMSB15	CM	15th ASYM Y SIN BOUND MOMENT
RMCB16	CM	16th ASYM R COS BOUND MOMENT
RMSB16	CM	16th ASYM R SIN BOUND MOMENT
YMCB16	CM	16th ASYM Y COS BOUND MOMENT
YMSB16	CM	16th ASYM Y SIN BOUND MOMENT
RAXIS	CM	MAJOR RADIUS OF MAG. AXIS
YAXIS	CM	ASYMMETRIC GEO: Y OF MAG. AXIS
LIO2		INDUCTANCE (LI/2)
HIO2		INDUCTANCE (HI/2)
POHT	WATTS	OHMIC INPUT POWER
IPXVS	WATTS	PCUR * VSUR
CPTIM	HOURS	CPU TIME USED SO FAR
WALLTIME	HOURS	Elapsed wall clock time
CPPTRANSP	HOURS	CPU(WALL) TIME USED IN PTRANSP
PT_CPTIME	HOURS	CPU TIME USED (PT_SOLVER)
PT_WTIME	HOURS	WALL TIME USED (PT_SOLVER)
VOLTSEC0	V*s	Axial flux consumption
VOLTSECBM	V*s	Boundary flux consumption based on meas. data
VOLTSECA	V*s	Poynting Average flux consumption
LI_1		Inductance definition Li_1
LI_3		Inductance definition Li_3
LI_VDIFF		Inductance: TRANSP V-diff norm.
RLI_3	CM	Bdy R = (Rmin+Rmax)/2 for Li_3
DT	SECONDS	ENERGY BALANCE TIMESTEP
DTG	SECONDS	TIMESTEP FOR GEOMETRY
DTSCE	SECONDS	TIMESTEP FOR SOURCES
DTPROFIL	SECONDS	TIME SPACING FOR PROFILE OUTPUT
DTSCALAR	SECONDS	TIME SPACING FOR SCALAR OUTPUT
DTMAXG	SECONDS	MAXIMUM TIMESTEP FOR GEOMETRY
CPOUT	HOURS	CPU TIME: OUTPUT SYSTEM
CPTRK	HOURS	CPU TIME: STRAIGHT LINE TRACKER
CPLH	HOURS	CPU TIME: JET LOWER HYBRID
CPGEOM	HOURS	CPU TIME: FLUX SURFACE GEOMETRY
CPMHDQ	HOURS	CPU TIME: MHD EQUILIBRIUM
CPGEOCAL	HOURS	CPU TIME: Flux Surf. Averages
LIO2M		LI/2 (MAGNETICS DATA ESTIMATE)
LIO2C		LI/2 (COMPUTED FROM J PROFILE)
ALPC		MAG:ALPHA, CALCULATED
RTPC	CM	MAG:RT, CALCULATED
MUIM		MAGNETICS EST. MU(DIA)
MUIC		TRANSP EST. MU(DIA) MHD EQ
LAMDM		MAGNETICS EST. LAMDA
LAMDC		KINETIC+J EST. LAMDA
BPDM		MAGNETICS EST. BETA(DIA)
BPDC		KINETIC BETA(DIA)
SHFSM		MAGNETICS EST. S1+S2
SHFSC		CALCULATED S1+S2
Q0		Q ON AXIS
Q95		Q at 0.95 poloidal flux
XIQ1		xi of Q=1 surface
XIQ2		xi of Q=2 surface
XIQ3		xi of Q=3 surface
XIQ3_2		xi of Q=3/2 surface
BBNTS_DD	N/SEC	DD BEAM-BEAM NEUTRONS
BTNTS_DD	N/SEC	DD BEAM-TARGET NEUTRONS
BPHTO	WATTS	TOTAL FAST ION HEATING
BPTI	WATTS	BEAM POWER TO IONS
BPTE	WATTS	BEAM POWER TO ELECTRONS
BBPER		BEAM BETA(POLOIDAL) PERP
BBPAR		BEAM BETA(POLOIDAL) PLL
BTNTS	N/SEC	BEAM-TARGET NEUTRONS
BBNTS	N/SEC	BEAM-BEAM NEUTRONS
EINJ	EV	MAX INITIAL BEAM ENERGY
SINJ	N/SEC	FAST NEUTRALS INJECTED
COFRC		BEAM FRACTION "CO"
BPSHI	WATTS	FAST ION SHINE-THRU POWER
BPCAP	WATTS	BEAM POWER CAPTURED
SFDEP	N/SEC	FAST ION SCE: DEPOSITION
SFRCAP	N/SEC	FAST ION CX RECAPTURE
PINJ	WATTS	BEAM POWER INJECTED
CPMCFI	HOURS	CPU: MONTE CARLO FAST ION CODE
CPBDEP	HOURS	CPU: FAST ION DEPOSITION
CPBMCINI	HOURS	CPU: FAST ION MC TABLE SETUP
CPXPGL	HOURS	CPU: xplasma load
CPBORB	HOURS	CPU: FAST ION ORBIT + COLLISIONS
CPBOUT	HOURS	CPU: FAST ION OUTPUT RENORM
CPBMAX	HOURS	MAX THREAD CPU TIME: NUBEAM
CPBMIN	HOURS	MIN THREAD CPU TIME: NUBEAM
CPBROOT	HOURS	ROOT THREAD CPU TIME: NUBEAM
WC_NUBEAM	HOURS	WALL CLOCK TIME: NUBEAM
BPLIM	WATTS	FAST ION ORBIT LOSS
BPCXI	WATTS	FAST ION POWER TO CX (INT)
BPCXX	WATTS	FAST ION POWER TO CX (EXT)
BPCI0	WATTS	FAST ION CX SCE POWER (INT)
BPCX0	WATTS	FAST ION CX SCE POWER (EXT)
BPCRI	WATTS	FAST ION CX RECAPTURE (INT)
BPCRX	WATTS	FAST ION CX RECAPTURE (EXT)
BPCXE	WATTS	FAST ION CX TRACKER ERROR
BPTH	WATTS	FAST ION POWER THERMALIZED
BPST	WATTS	FAST ION POWER STORED
BPOH	WATTS	POWER: OH CIRCUIT TO FAST IONS
BPCPR	WATTS	POWER: COMPRESSION OF FAST IONS
BPEPHI	WATTS	Electrostatic field -> fast ions
BPBAL	WATTS	FAST ION POWER BALANCE
BPERR	WATTS	FAST ION ORBIT POWER ERROR
BSTH	N/SEC	FAST ION THERMALIZATIONS
BSORB	N/SEC	FAST ION ORBIT LOSSES
BSORBPR		total prompt loss fraction of injected beam ions
BSNXI	N/SEC	FAST ION CX SINK (INT)
BSNXO	N/SEC	FAST ION CX SINK (EXT)
BSBAL	N/SEC	FAST ION PTCL BALANCE
BDNDT	N/SEC	D/DT(FAST ION POPULATION)
BDNDTX	N/SEC	D/DT(FAST IONS OUTSIDE PLASMA)
EINJAV_D	EV	D: avg full injection energy
TRAPB0_D		D beam full E dep banana frac.
TRAPB_D		D beam ions banana fraction
BPLIM_D	WATTS	D BEAM ORBIT LOSS
BPSHI_D	WATTS	D BEAM SHINE-THRU POWER
BPCXI_D	WATTS	D BEAM POWER TO CX (INT)
BPCXX_D	WATTS	D BEAM POWER TO CX (EXT)
BPCI0_D	WATTS	D BEAM CX SCE POWER (INT)
BPCX0_D	WATTS	D BEAM CX SCE POWER (EXT)
BPCRI_D	WATTS	D BEAM CX RECAPTURE (INT)
BPCRX_D	WATTS	D BEAM CX RECAPTURE (EXT)
BPCXE_D	WATTS	D BEAM CX TRACKER ERROR
BPTH_D	WATTS	D BEAM POWER THERMALIZED
BPST_D	WATTS	D BEAM POWER STORED
BPOH_D	WATTS	POWER: OH CIRCUIT TO D BEAM
BPEPHI_D	WATTS	ELECTROSTATIC ACCEL.: D BEAM
PRFB_D	WATTS	RF POWER -> D BEAM IONS
BPCPR_D	WATTS	POWER: COMPRESSION OF D BEAM
BPTI_D	WATTS	D BEAM POWER TO IONS
BPTE_D	WATTS	D BEAM POWER TO ELECTRONS
BPBAL_D	WATTS	D BEAM POWER BALANCE
BPERR_D	WATTS	D BEAM ORBIT POWER ERROR
PINJ_D	WATTS	TOTAL INJECTED D BEAM POWER
SINJ_D	N/SEC	FAST D BEAM NEUTRALS INJECTED
SINJEA_D	N/SEC	D DEP E.CONSERVATION ADJUST
COFRC_D		D BEAM FRACTION "CO"
BDNDT_D	N/SEC	D/DT(D BEAM ION POPULATION)
BDNDTX_D	N/SEC	D/DT(D BEAM IONS OUTSIDE PLASMA)
BSTH_D	N/SEC	D BEAM THERMALIZATIONS
BSORB_D	N/SEC	D BEAM ORBIT LOSSES
BSORBPR_D		FRACTION OF D BEAM ORBIT PROMPT LOSSES
BSNXI_D	N/SEC	D BEAM CX SINK (INT)
BSNXO_D	N/SEC	D BEAM CX SINK (EXT)
BSBAL_D	N/SEC	D BEAM PTCL BALANCE
SBSHINE_D	N/SEC	D BEAM SHINE-THROUGH
SBDEPRR_D	N/SEC	D BEAM DEP "RUSSIAN ROULETTE"
SBDEPMC_D	N/SEC	D BEAM MC IONS DEPOSITED
SBDEPBA_D	N/SEC	D BEAM DEP PTCL BALANCE
SBDEPSC_D	N/SEC	D BEAM TOTAL DEPOSITION SCE
SBDEPIZ_D	N/SEC	D BEAM DEP: TH.IONIZATION
SBDEPCX_D	N/SEC	D BEAM DEP: CX W/THERMAL IONS
SBDBBIZ_D	N/SEC	D BEAM DEP: BEAM-BEAM IONIZ.
SBDBBCX_D	N/SEC	D BEAM DEP: BEAM-BEAM CX
SBCX0MC_D	N/SEC	D BEAM CX NEUTRALS LAUNCHED
SBCXESC_D	N/SEC	D BEAM CX NEUTRALS ESCAPED
SBCXRR_D	N/SEC	D BEAM CX NEUTRALS "R.R."
SBCXRMC_D	N/SEC	D BEAM CX MC IONS RECAPTURED
SBCXBAL_D	N/SEC	D BEAM CX NEUTRAL PTCL BAL
SBORBRR_D	N/SEC	D BEAM ORBIT CODE "R.R."
SBDTBMC_D	N/SEC	D BEAM MC RATE OF CHANGE
SBORBAL_D	N/SEC	D BEAM ORBIT PTCL BALANCE
SBXRCSC_D	N/SEC	D BEAM TOTAL RECAPTURE SCE
SBXRCIZ_D	N/SEC	D BEAM RECAP: TH.IONIZATION
SBXRCCX_D	N/SEC	D BEAM RECAP: TH.CX
SBRBBIZ_D	N/SEC	D BEAM RECAP: BEAM-BEAM IONIZ.
SBRBBCX_D	N/SEC	D BEAM RECAP: BEAM-BEAM CX
SNBXTOT_D	N/SEC	TOTAL D BEAM ION CX SINK
SNBXW0_D	N/SEC	D BEAM ION CX SINK: WALL NEUTS
SNBXV0_D	N/SEC	D BEAM ION CX SINK: HALO NEUTS
SNBXBB0_D	N/SEC	D BEAM ION CX W/ BEAM NEUTS
SNBXBB1_D	N/SEC	D BEAM ION CX W/ FAST CX NEUTS
SBCXX	N/SEC	CX FAST ION LOSS
NMCTOT_D	N	Beam D Total MC Ions
NAEPTOT_D	N	Beam D Tot MC Ions evolved by AEP
NMCLOSS_D	N	Beam D MC Prompt Loss
WNMCTOT_D	#ptcls	Beam D Total MC Ions
NNEW_D	N	Beam D MC Deposited
NCX0_D	N	# CX events D orbiting
SDEPUC_D	N/SEC	Beam D orbit averaged UNCONFINED
SBCXX_D	N/SEC	CX D BEAM ION LOSS
BPTHA	WATTS	NB PWR: ASSYM.THERMALIZATION
BPTHS	WATTS	NB PWR: TH.SCE.FRICTION
BPTHR	WATTS	NB PWR: THERMALIZATION>ROTATION
BPJXB	WATTS	NB PWR: JXB TORQUE
BPCOL	WATTS	NB PWR: COLLISIONAL TORQUE
BPTHA_D	WATTS	D BEAM PWR: ASSYM.THERMALIZATION
BPTHS_D	WATTS	D BEAM PWR: TH.SCE.FRICTION
BPTHR_D	WATTS	D BEAM PWR: THERMALIZ>ROTATION
BPJXB_D	WATTS	D BEAM PWR: JXB TORQUE
BPTDFB_D	WATTS	D BEAM PWR: ANOM.DIFF TORQUE
BPCOL_D	WATTS	D BEAM PWR: COLLISIONAL TORQUE
BPHI	NT-M-SEC	FAST ION ANGULAR MOMENTUM
BPHST	NT-M	FI ROT. ANGULAR MOMENTUM GAIN
BPHCK	NT-M	FI ROT. BALANCE CHECK
BPHER	NT-M	FI ORBIT TORQUE ERROR
BPHDP	NT-M	FI ROT. DEPOSITION
BPHOH	NT-M	FI ROT. FROM OH
BPHW0	NT-M	FI ROT. NEUTRAL ESCAPE
BPHTH	NT-M	FI ROT. THERMALIZATION
BPHOR	NT-M	FI ROT. ORBIT LOSS
BPHXB	NT-M	FI ROT. JXB TORQUE
BPHCL	NT-M	FI ROT. COLLISIONAL TORQUE
BPHCX	NT-M	FI ROT. CX LOSS
BPHRC	NT-M	FI ROT. CX RECAPTURE
BPHI_D	NT-M-SEC	D BEAM ION ANGULAR MOMENTUM
BPHST_D	NT-M	D BEAM: ANGULAR MOMENTUM GAIN
BPHCK_D	NT-M	D BEAM: BALANCE CHECK
BPHER_D	NT-M	D BEAM ORBIT TORQUE ERROR
BPHDP_D	NT-M	D BEAM: DEPOSITION, ION point
BPHOH_D	NT-M	D BEAM: FROM OH
BPHW0_D	NT-M	D BEAM: NEUTRAL ESCAPE
BPHTH_D	NT-M	D BEAM: THERMALIZATION
BPHOR_D	NT-M	D BEAM: ORBIT LOSS
BPHXB_D	NT-M	D BEAM: JXB TORQUE
BPHDFB_D	NT-M	D BEAM: ANOM.DIFF. TORQUE
BPHCL_D	NT-M	D BEAM: COLLISIONAL TORQUE
BPHCX_D	NT-M	D BEAM: CX LOSS
BPHRC_D	NT-M	D BEAM: CX RECAPTURE
BPALPHPP		ALPHA FAST ION BETA PERP (POL)
BPALPHPA		ALPHA FAST ION BETA PLL (POL)
TEPED	eV	ELECTRON PEDESTAL TEMPERATURE
TIPED	eV	ION PEDESTAL TEMPERATURE
NEPED	N/CM**3	ELECTRON PEDESTAL DENSITY
TEPEDW		ELECTRON PEDESTAL WIDTH: TE
TIPEDW		ION PEDESTAL WIDTH
NEPEDW		ELECTRON PEDESTAL WIDTH: NE
LHMODE		H-Mode indicator
SC_TEPED		TE PEDESTAL HEIGHT SCALE FACTOR
SC_TIPED		TI PEDESTAL HEIGHT SCALE FACTOR
SC_NEPED		NE PEDESTAL HEIGHT SCALE FACTOR
PL2HREQ	WATTS	L-H transition power
PL2HTOT	WATTS	Total heating power
SX_TE		Te solver range [0:x]
SX_TI		Ti solver range [0:x]
SX_OMEGA		Ang. velocity solver range [0:x]
SX_NE		ne solver range [0:x]
BETAE		ELECTRON BETA (POLOIDAL)
BETAR		ROTATION BETA (POLOIDAL)
TAUEE	SECONDS	ELECTRON ENERGY CONFINEMENT
TE0	EV	ELECTRON TEMPERATURE ON AXIS
TEEDG	EV	ELECTRON TEMPERATURE AT/BEYOND BDY
NEEDG	N/CM**3	ELECTRON DENSITY AT/BEYOND BDY
TEPHA	EV	SIMULATED PHA TE
ECEGAP	CM	ECE B(R) monotonicity gap
RESL2PE		ELECTRON PARTICLE EQN. L2-RES
RESL2PI		THERMAL PARTICLE EQN. L2-RES
RESL2PX		IMPURITY PARTICLE EQN. L2-RES
RESL2TE		ELECTRON ENERGY EQN. L2-RES
RESL2TI		ION ENERGY EQN. L2-RES
RESL2OMG		ANG. MOMENTUM EQN. L2-RES
NPTRITER		Number Newton Iterations in PT_SOLVER
TAUE98Y	SECONDS	TauE98y confinement scaling
TAUE98YE	SECONDS	TauE98y,e confinement scaling
TAUE98Y1	SECONDS	TauE98y,1 confinement scaling
TAUE98Y1E	SECONDS	TauE98y,1e confinement scaling
TAUE98Y2	SECONDS	TauE98y,2 confinement scaling
TAUE98Y2E	SECONDS	TauE98y,2e confinement scaling
H98Y		TauE98y confinement Hfactor
H98YE		TauE98y,e confinement Hfactor
H98Y1		TauE98y,1 confinement Hfactor
H98Y1E		TauE98y,1e confinement Hfactor
H98Y2		TauE98y,2 confinement Hfactor
H98Y2E		TauE98y,2e confinement Hfactor
TAUE89P	SECONDS	TauE89P confinement scaling
TAUE89PE	SECONDS	TauE89P,e confinement scaling
H89P		TauE89P confinement Hfactor
H89PE		TauE89P,e confinement Hfactor
TAUE97LG	SECONDS	TauE97L,g confinement scaling
TAUE97LTH	SECONDS	TauE97L,th confinement scaling
H97LG		TauE97L,g confinement Hfactor
H97LTH		TauE97L,th confinement Hfactor
HST06		TauE ST06 confinement Hfactor
HST06E		TauE,e ST06 confinement Hfactor
TAUEST06	SECONDS	TauE ST06 confinement scaling
TAUEST06E	SECONDS	TauE,e ST06 confinement scaling
TI0	EV	ION TEMPERATURE ON AXIS
TIEDG	EV	ION TEMPERATURE AT/BEYOND BDY
OMEDG	RAD/SEC	ANGULAR VELOCITY AT/BEYOND BDY
NEUTX	N/SEC	THERMONUCLEAR NEUTRONS
NEUTT	N/SEC	TOTAL NEUTRONS
BETAI		THERMAL ION BETA POLOIDAL
TOTDT	N/SEC	TOTAL D-T FUSION
TOTDDN	N/SEC	TOTAL D(D,N)HE3 FUSION
TOT2TT	N/SEC	TOTAL T(T,2N)HE4 FUSION
TOTDDP	N/SEC	TOTAL D(D,P)T FUSION
BTFS_DDP	N/SEC	D(D,P)T FUSION
BBFS_DDP	N/SEC	D(D,P)T BEAM-BEAM PROTONS
NEUTX_DD	N/SEC	DD THERMONUCLEAR NEUTRONS
XNEUTDT	N/SEC	TOTAL DT NEUTRON EMISSION, NUBEAM
XNEUTDD	N/SEC	TOTAL DD NEUTRON EMISSION, NUBEAM
XNEUTTT	N/SEC	TOTAL TT NEUTRON EMISSION, NUBEAM
XPROTD3	N/SEC	TOTAL D HE3 PROTON EMISSION, NUBEAM
FIEFAC		Ti <-> Te switching factor
GIEFAC		Ti/Te ratio when Te used for Ti
XZIMP		Avg Z of Impurity
XZIMPD		Avg Z of Impurity Data
AIMP		Avg A of impurity
USERSC1		User Scalar #1
KATX	EV	COMPUTED K(ALPHA) T(IMPURITY)
KAINT	ARB.UNITS	K(ALPHA) LINE INTENSITY
RTXUV	CM	UV DOPPLER TI RADIUS
TXUV	EV	UV DOPPLER T(IMPURITY)
XKFA1		ION CHI(I) MULTIPLIER
XKFA2		Q<1 ION NC CHI(I) MULTIPLIER
TIDAT	EV	TI DATA (FOR COMPARISON)
T0RECYC	EV	RECYCLING GAS TEMPERATURE (AVG)
T0GASFL	EV	GAS FLOW TEMPERATURE (AVG)
OM0RECYC	RAD/SEC	RECYCLING GAS Ang. Veloc. (AVG)
OM0GASFL	RAD/SEC	GAS FLOW Ang. Veloc. (AVG)
GASD	N/SEC	D0 GAS FLOW SOURCE
RCYD	N/SEC	D0 RECYCLING SOURCE
E0INR	EV	T0 (RECYCLING) @EDGE
P0FIN	WATTS	NEUTRAL INFLUX POWER
P0RFL	WATTS	NEUTRAL POWER REFLECTED IN
P0CXT	WATTS	TOTAL CX POWER
P0INZ	WATTS	NEUTRAL POWER IONIZED
P0ESC	WATTS	NEUTRAL POWER ESCAPED
P0BAL	WATTS	NEUTRAL POWER BALANCE CHECK
CPSC0	HOURS	CPU: NEUTRAL TRANSPORT MODEL
ASHAF	CM	SHAFRANOV AXIS SHIFT
ASHAFDA	CM	SHAFRANOV AXIS SHIFT (MHD DATA)
TAUEA	SECONDS	ENERGY CONFINEMENT (THERMAL)
TAUA1	SECONDS	ENERGY CONFINEMENT (TOTAL)
BETAT		TOTAL BETA(POLOIDAL)
LI2PB		LI/2 + BETA(POLOIDAL)
BPEQ		EQUILIBRIUM BETA(POLOIDAL)
BPDIA		DIAMAGNETIC BETA(POLOIDAL)
BTEQ		EQUILIBRIUM BETA(TOROIDAL)
BTDIA		DIAMAGNETIC BETA(TOROIDAL)
BPEQ1		1D EQUILIBRIUM BETA(POLOIDAL)
BPDA1		1D DIAMAGNETIC BETA(POLOIDAL)
LIO21		1D DEFINITION OF LI/2
L2PB1		1D DEFINITION LI/2+BETA
BPFASTPP		TOTAL FAST ION BETA(POL) PERP
BPFASTPA		TOTAL FAST ION BETA(POL) PLL
NBEQ		0 limited, -1 lower, 1 upper Div as used
NBGUESS		0 limited, -1 lower, 1 upper Div as guessed from boundary
EINJ01_E1	eV	Einj: beam#01(D), E-frac#1
EINJ01_E2	eV	Einj: beam#01(D), E-frac#2
EINJ01_E3	eV	Einj: beam#01(D), E-frac#3
PINJ01	WATTS	Beam#01(D) injected power
BPSH01_E1	WATTS	Beam#01(D) shine-thru power, E-f
BPSH01_E2	WATTS	Beam#01(D) shine-thru power, E-f
BPSH01_E3	WATTS	Beam#01(D) shine-thru power, E-f
DINJ01_E1	eV	Einj RMS Var.: beam#01(D), E#1
DINJ01_E2	eV	Einj RMS Var.: beam#01(D), E#2
DINJ01_E3	eV	Einj RMS Var.: beam#01(D), E#3
EINJ02_E1	eV	Einj: beam#02(D), E-frac#1
EINJ02_E2	eV	Einj: beam#02(D), E-frac#2
EINJ02_E3	eV	Einj: beam#02(D), E-frac#3
PINJ02	WATTS	Beam#02(D) injected power
BPSH02_E1	WATTS	Beam#02(D) shine-thru power, E-f
BPSH02_E2	WATTS	Beam#02(D) shine-thru power, E-f
BPSH02_E3	WATTS	Beam#02(D) shine-thru power, E-f
DINJ02_E1	eV	Einj RMS Var.: beam#02(D), E#1
DINJ02_E2	eV	Einj RMS Var.: beam#02(D), E#2
DINJ02_E3	eV	Einj RMS Var.: beam#02(D), E#3
EINJ03_E1	eV	Einj: beam#03(D), E-frac#1
EINJ03_E2	eV	Einj: beam#03(D), E-frac#2
EINJ03_E3	eV	Einj: beam#03(D), E-frac#3
PINJ03	WATTS	Beam#03(D) injected power
BPSH03_E1	WATTS	Beam#03(D) shine-thru power, E-f
BPSH03_E2	WATTS	Beam#03(D) shine-thru power, E-f
BPSH03_E3	WATTS	Beam#03(D) shine-thru power, E-f
DINJ03_E1	eV	Einj RMS Var.: beam#03(D), E#1
DINJ03_E2	eV	Einj RMS Var.: beam#03(D), E#2
DINJ03_E3	eV	Einj RMS Var.: beam#03(D), E#3
EINJ04_E1	eV	Einj: beam#04(D), E-frac#1
EINJ04_E2	eV	Einj: beam#04(D), E-frac#2
EINJ04_E3	eV	Einj: beam#04(D), E-frac#3
PINJ04	WATTS	Beam#04(D) injected power
BPSH04_E1	WATTS	Beam#04(D) shine-thru power, E-f
BPSH04_E2	WATTS	Beam#04(D) shine-thru power, E-f
BPSH04_E3	WATTS	Beam#04(D) shine-thru power, E-f
DINJ04_E1	eV	Einj RMS Var.: beam#04(D), E#1
DINJ04_E2	eV	Einj RMS Var.: beam#04(D), E#2
DINJ04_E3	eV	Einj RMS Var.: beam#04(D), E#3
EINJ05_E1	eV	Einj: beam#05(D), E-frac#1
EINJ05_E2	eV	Einj: beam#05(D), E-frac#2
EINJ05_E3	eV	Einj: beam#05(D), E-frac#3
PINJ05	WATTS	Beam#05(D) injected power
BPSH05_E1	WATTS	Beam#05(D) shine-thru power, E-f
BPSH05_E2	WATTS	Beam#05(D) shine-thru power, E-f
BPSH05_E3	WATTS	Beam#05(D) shine-thru power, E-f
DINJ05_E1	eV	Einj RMS Var.: beam#05(D), E#1
DINJ05_E2	eV	Einj RMS Var.: beam#05(D), E#2
DINJ05_E3	eV	Einj RMS Var.: beam#05(D), E#3
EINJ06_E1	eV	Einj: beam#06(D), E-frac#1
EINJ06_E2	eV	Einj: beam#06(D), E-frac#2
EINJ06_E3	eV	Einj: beam#06(D), E-frac#3
PINJ06	WATTS	Beam#06(D) injected power
BPSH06_E1	WATTS	Beam#06(D) shine-thru power, E-f
BPSH06_E2	WATTS	Beam#06(D) shine-thru power, E-f
BPSH06_E3	WATTS	Beam#06(D) shine-thru power, E-f
DINJ06_E1	eV	Einj RMS Var.: beam#06(D), E#1
DINJ06_E2	eV	Einj RMS Var.: beam#06(D), E#2
DINJ06_E3	eV	Einj RMS Var.: beam#06(D), E#3
EINJ07_E1	eV	Einj: beam#07(D), E-frac#1
EINJ07_E2	eV	Einj: beam#07(D), E-frac#2
EINJ07_E3	eV	Einj: beam#07(D), E-frac#3
PINJ07	WATTS	Beam#07(D) injected power
BPSH07_E1	WATTS	Beam#07(D) shine-thru power, E-f
BPSH07_E2	WATTS	Beam#07(D) shine-thru power, E-f
BPSH07_E3	WATTS	Beam#07(D) shine-thru power, E-f
DINJ07_E1	eV	Einj RMS Var.: beam#07(D), E#1
DINJ07_E2	eV	Einj RMS Var.: beam#07(D), E#2
DINJ07_E3	eV	Einj RMS Var.: beam#07(D), E#3
EINJ08_E1	eV	Einj: beam#08(D), E-frac#1
EINJ08_E2	eV	Einj: beam#08(D), E-frac#2
EINJ08_E3	eV	Einj: beam#08(D), E-frac#3
PINJ08	WATTS	Beam#08(D) injected power
BPSH08_E1	WATTS	Beam#08(D) shine-thru power, E-f
BPSH08_E2	WATTS	Beam#08(D) shine-thru power, E-f
BPSH08_E3	WATTS	Beam#08(D) shine-thru power, E-f
DINJ08_E1	eV	Einj RMS Var.: beam#08(D), E#1
DINJ08_E2	eV	Einj RMS Var.: beam#08(D), E#2
DINJ08_E3	eV	Einj RMS Var.: beam#08(D), E#3
EINJ09_E1	eV	Einj: beam#09(D), E-frac#1
EINJ09_E2	eV	Einj: beam#09(D), E-frac#2
EINJ09_E3	eV	Einj: beam#09(D), E-frac#3
PINJ09	WATTS	Beam#09(D) injected power
BPSH09_E1	WATTS	Beam#09(D) shine-thru power, E-f
BPSH09_E2	WATTS	Beam#09(D) shine-thru power, E-f
BPSH09_E3	WATTS	Beam#09(D) shine-thru power, E-f
DINJ09_E1	eV	Einj RMS Var.: beam#09(D), E#1
DINJ09_E2	eV	Einj RMS Var.: beam#09(D), E#2
DINJ09_E3	eV	Einj RMS Var.: beam#09(D), E#3
EINJ10_E1	eV	Einj: beam#10(D), E-frac#1
EINJ10_E2	eV	Einj: beam#10(D), E-frac#2
EINJ10_E3	eV	Einj: beam#10(D), E-frac#3
PINJ10	WATTS	Beam#10(D) injected power
BPSH10_E1	WATTS	Beam#10(D) shine-thru power, E-f
BPSH10_E2	WATTS	Beam#10(D) shine-thru power, E-f
BPSH10_E3	WATTS	Beam#10(D) shine-thru power, E-f
DINJ10_E1	eV	Einj RMS Var.: beam#10(D), E#1
DINJ10_E2	eV	Einj RMS Var.: beam#10(D), E#2
DINJ10_E3	eV	Einj RMS Var.: beam#10(D), E#3
EINJ11_E1	eV	Einj: beam#11(D), E-frac#1
EINJ11_E2	eV	Einj: beam#11(D), E-frac#2
EINJ11_E3	eV	Einj: beam#11(D), E-frac#3
PINJ11	WATTS	Beam#11(D) injected power
BPSH11_E1	WATTS	Beam#11(D) shine-thru power, E-f
BPSH11_E2	WATTS	Beam#11(D) shine-thru power, E-f
BPSH11_E3	WATTS	Beam#11(D) shine-thru power, E-f
DINJ11_E1	eV	Einj RMS Var.: beam#11(D), E#1
DINJ11_E2	eV	Einj RMS Var.: beam#11(D), E#2
DINJ11_E3	eV	Einj RMS Var.: beam#11(D), E#3
EINJ12_E1	eV	Einj: beam#12(D), E-frac#1
EINJ12_E2	eV	Einj: beam#12(D), E-frac#2
EINJ12_E3	eV	Einj: beam#12(D), E-frac#3
PINJ12	WATTS	Beam#12(D) injected power
BPSH12_E1	WATTS	Beam#12(D) shine-thru power, E-f
BPSH12_E2	WATTS	Beam#12(D) shine-thru power, E-f
BPSH12_E3	WATTS	Beam#12(D) shine-thru power, E-f
DINJ12_E1	eV	Einj RMS Var.: beam#12(D), E#1
DINJ12_E2	eV	Einj RMS Var.: beam#12(D), E#2
DINJ12_E3	eV	Einj RMS Var.: beam#12(D), E#3
EINJ13_E1	eV	Einj: beam#13(D), E-frac#1
EINJ13_E2	eV	Einj: beam#13(D), E-frac#2
EINJ13_E3	eV	Einj: beam#13(D), E-frac#3
PINJ13	WATTS	Beam#13(D) injected power
BPSH13_E1	WATTS	Beam#13(D) shine-thru power, E-f
BPSH13_E2	WATTS	Beam#13(D) shine-thru power, E-f
BPSH13_E3	WATTS	Beam#13(D) shine-thru power, E-f
DINJ13_E1	eV	Einj RMS Var.: beam#13(D), E#1
DINJ13_E2	eV	Einj RMS Var.: beam#13(D), E#2
DINJ13_E3	eV	Einj RMS Var.: beam#13(D), E#3
EINJ14_E1	eV	Einj: beam#14(D), E-frac#1
EINJ14_E2	eV	Einj: beam#14(D), E-frac#2
EINJ14_E3	eV	Einj: beam#14(D), E-frac#3
PINJ14	WATTS	Beam#14(D) injected power
BPSH14_E1	WATTS	Beam#14(D) shine-thru power, E-f
BPSH14_E2	WATTS	Beam#14(D) shine-thru power, E-f
BPSH14_E3	WATTS	Beam#14(D) shine-thru power, E-f
DINJ14_E1	eV	Einj RMS Var.: beam#14(D), E#1
DINJ14_E2	eV	Einj RMS Var.: beam#14(D), E#2
DINJ14_E3	eV	Einj RMS Var.: beam#14(D), E#3
XBFAC		MHD BETA ADJUSTMENT FACTOR
PBAEPT	WATTS	FAST ION POWER DUE TO AEP (MHD) ACTIVITY
NTBMD_1	N	# of time steps in MHD transport for D beam by mode1
NTBMD_2	N	# of time steps in MHD transport for D beam by mode2
NTBMD_3	N	# of time steps in MHD transport for D beam by mode3
NTBMD_4	N	# of time steps in MHD transport for D beam by mode4
NTBMD_5	N	# of time steps in MHD transport for D beam by mode5
NTBMD_6	N	# of time steps in MHD transport for D beam by mode6
NTBMD_7	N	# of time steps in MHD transport for D beam by mode7
NTBMD_8	N	# of time steps in MHD transport for D beam by mode8
NTBMD_9	N	# of time steps in MHD transport for D beam by mode9
NTBMD_10	N	# of time steps in MHD transport for D beam by mode10
DIFBX	CM**2/SEC	Fast ion anomalous diffusivity
VELBX	CM/SEC	Fast ion anomalous velocity
PBDEPB_D	WATTS	the total D-beam injected power
BPHDEPB_D	NT-M	the total D-beam injected momentum
BDENSMP	#/CM**3	Fast ion density, GC on midplane
EBAPLMP	eV	FAST ION <Epll> , GC on midplane
EBAPPMP	eV	FAST ION <Eperp>, GC on midplane
VBTORMP	CM/SEC	FAST ION <Vtor>, GC on midplane
BDENS2D	N/CM**3	beam ion density at GC 2d grid
BEPRP2D	eV	beam ion <Eperp> at GC 2d grid
BEPLL2D	eV	beam ion <Epll> at GC 2d grid
BVTOR2D	cm/sec	beam ion <Vtor> at GC 2d grid
TIEFAC		Ti <-> Te switching factors
PTEMP	EV	PLASMA TEMPERATURES
ITEMP	EV	ION TEMPERATURES
TMJS	EV	MAJORITY TEMPERATURES
PTEMP_NC	EV	NCLASS PLASMA TEMPERATURES
PTI_NC	EV	TI & NCLASS SMOOTHED TI
PTMJ_NC	EV	TMJ & NCLASS SMOOTHED TMJ
PTX_NC	EV	TX & NCLASS SMOOTHED TX
PDENS	N/CM**3	PLASMA DENSITIES
XDENS	N/CM**3	IMPURITY DENSITY
XIM_SINGL	N/CM**3	Impurity Density for SINGL
XIMS_TOK	N/CM**3	Impurity Density for TOK
PDENS_NC	N/CM**3	NCLASS PLASMA DENSITIES
PND_NC	N/CM**3	ND & NCLASS SMOOTHED ND
PNX_NC	N/CM**3	NX & NCLASS SMOOTHED NX
BDENSS	N/CM**3	BEAM ION DENSITIES
NMC	N	Monte Carlo Ion Count Profiles
NMCTOT	N	Total No. of Monte Carlo Ions
NMCLOSS	N	No. of prompt loss MC Ions
WNMC	#ptcls	Monte Carlo Weight Profiles
WNMCTOT	#ptcls	Total Monte Carlo Weight
NAEPTOT	N	Tot No.of MC Ions evolved by AEP
NNEW	N	# Monte Carlo Deposited
NCXORB	N	# CX events during orbiting
SDEPOAUC	N/SEC	orbit av. deposition,UNCONFINED
OMEGS	RAD/SEC	PLASMA ANGULAR VELOCITIES
OMEGSFI	RAD/SEC	Avg Fast ion Angular Velocities
DENS0	N/CM**3	THERMAL NEUTRAL DENSITIES
DENS0RECO	N/CM**3	Recomb. source neutral densities
T0RECO	EV	Recomb. source neutral temps
OM0RECO	RAD/SEC	Recomb. source ang. velocities
DENS0HALO	N/CM**3	Beam halo neutral densities
T0HALO	EV	Beam halo neutral temps
OM0HALO	RAD/SEC	Beam halo ang. velocities
DENS0SGF	N/CM**3	summed gas flow neutral dens.
DENS0SRC	N/CM**3	summed recycling neutral dens.
DENS0AGF	N/CM**3	all gas flow densities
T0AGF	EV	all gas flow temperatures
OMEG0AGF	RAD/SEC	all gas flow ang. velocities
SI_AGF	N/CM3/SEC	all gas flow ion sources
DENS0ARC	N/CM**3	all recyc densities
T0ARC	EV	all recyc temperatures
OMEG0ARC	RAD/SEC	all recyc ang. velocities
SI_ARC	N/CM3/SEC	all recyc ion sources
N0BAL_RECO	N/CM3/SEC	Recomb. neutral ptcl balance
E0BAL_RECO	WATTS/CM3	Recomb. neutral power balance
TQ0BA_RECO	Nt-M/CM3	Recomb. neutral ang momentum bal
N0BAL_HALO	N/CM3/SEC	Beam Halo neutral ptcl balance
E0BAL_HALO	WATTS/CM3	Beam Halo neutral power balance
TQ0BA_HALO	Nt-M/CM3	Beam Halo neutral ang mo. bal
N0BAL_SGF	N/CM3/SEC	gas flow neutral ptcl bal sum
E0BAL_SGF	WATTS/CM3	gas flow neutral power bal sum
TQ0BA_SGF	Nt-M/CM3	gas flow neutral ang mo. bal sum
N0BAL_AGF	N/CM3/SEC	gas flow neutral ptcl bal all
E0BAL_AGF	WATTS/CM3	gas flow neutral power bal all
TQ0BA_AGF	Nt-M/CM3	gas flow neutral ang mo. bal all
N0BAL_SRC	N/CM3/SEC	recyc neutral ptcl bal sum
E0BAL_SRC	WATTS/CM3	recyc neutral power bal sum
TQ0BA_SRC	Nt-M/CM3	recyc neutral ang mo. bal sum
N0BAL_ARC	N/CM3/SEC	recyc neutral ptcl bal all
E0BAL_ARC	WATTS/CM3	recyc neutral power bal all
TQ0BA_ARC	Nt-M/CM3	recyc neutral ang mo. bal all
T0CX	EV	CX neutral temperatures
OMEG0CX	RAD/SEC	CX angular velocities
PCX_COEFF	WATTS/CM3/EV	CX Power Coefficients
TCX_COEFF	Nt-M/CM3/(RAD/S)	CX Torque Coefficients
P0VOLSC	WATTS/CM3	Power in volume neutral sources
TQ0VOLSC	Nt-M/CM3	Torque in volume neutral sources
DNSB0	N/CM**3	BEAM NEUTRAL DENSITIES
SINBN0	N/CM3/SEC	FAST ION THERMAL NEUTRAL SINKS
RSNBX	1/sec	CX rates with beam ions
RSNBI	1/sec	II rates with beam ions
T0	EV	THERMAL NEUTRAL TEMPERATURES
OMEG0	RAD/SEC	THERMAL NEUTRAL ANG.VELOCITIES
IEBAL	WATTS/CM3	ION POWER BALANCE
IEHEAT	WATTS/CM3	ION HEATING
CQIE	WATTS/CM3	ION-ELECTRON COUPLING
IEBALR	WATTS/CM3	IEBAL: ROTATION TERMS
EEBAL	WATTS/CM3	ELECTRON POWER BALANCE
EEHEAT	WATTS/CM3	ELECTRON HEATING
ROBAL	WATTS/CM3	ROTATION POWER BALANCE
ROBALI	WATTS/CM3	ROTATIONAL ENERGY INPUTS
BTQJXBS	Nt-M/CM3	FAST ION TORQUES (JXB)
BTQRPLS	Nt-M/CM3	FAST ION RPL TORQUES (JXB)
BTQCOLS	Nt-M/CM3	FAST ION COLLISIONAL TORQUES
MOBAL	Nt-M/CM3	ANGULAR MOMENTUM BALANCE
MOI	NtMS2/CM3	ANGULAR INERTIA DENSITY
MOI_IMP	NtMS2/CM3	IMPURITY ANGULAR INERTIA DENSITY
AMOM	NtM-S/CM3	ANGULAR MOMENTUM DENSITY
AMOM_IMP	NtM-S/CM3	IMP ANGULAR MOMENTUM DENSITY
MOBALI	Nt-M/CM3	INPUT TORQUES
TQJXBD	Nt-M/CM3	BEAM TOT. JXB TORQUE
IPBAL	N/CM3/SEC	ION PTCL BALANCE
EPBAL	N/CM3/SEC	ELECTRON PTCL BALANCE
IMBAL	N/CM3/SEC	IMPURITY PTCL BALANCE
GDBAL	N/CM3/SEC	PTCL BALANCE ION (D+)
IPTR	N/CM3/SEC	ION PTCL TRANSPORT
EPTR	N/CM3/SEC	ELECTRON PTCL TRANSPORT
XPTR	N/CM3/SEC	IMPURITY PTCL TRANSPORT
PTR_D	N/CM3/SEC	D+ Ion Transport
IETR	WATTS/CM3	ION ENERGY TRANSPORT
EETR	WATTS/CM3	ELECTRON ENERGY TRANSPORT
AMTR	Nt-M/CM3	ANGULAR MOMENTUM TRANSPORT
RESPROF		TRANSPORT EQUATION RESIDUAL PROFS
RESL2		TRANSPORT EQUATION L2-NORM RESIDUAL
UPWIND		UPWIND ADJUSTMENT PARAMETERS
PRVEL	CM/SEC	PTCL RADIAL VELOCITIES
TRVEL	CM/SEC	Generalized transport velocities
VMO	CM/SEC	Momentum Advection Velocities
TAUH	SECONDS	TauE98y1,2 confinement scalings
HH		TauE98y1,2 confinement ratio H factors
TAUH89	SECONDS	TauE89P confinement scalings
HH89		TauE89P confinement ratio H factors
TAUL	SECONDS	TauE97L confinement scalings
HL		TauE97L confinement ratio H factors
TAUSCAL	SECONDS	TauE98y & TauE97L scalings
HFAC		TauE98y & TaeE97L H factors
UDENS	JLES/CM3	ENERGY DENSITY
UDENSPP	JLES/CM3	FAST ION PERP ENERGY DENSITY
UDENSPA	JLES/CM3	FAST ION PLL ENERGY DENSITY
BUDENS	JLES/CM3	BEAM ION ENERGY DENSITIES
BPHIS	NT-M-SEC	BEAM & FAST ION ANGULAR MOMENTA
PRESS	PASCALS	PLASMA PRESSURE
MPMHD	PASCALS	PLASMA PRESSURE to MHD SOLVER
ECON	SECONDS	ENERGY CONFINEMENT
ECONST	SECONDS	ENERGY CONFINEMENT ("*" VSNS)
PDIFF	CM**2/SEC	PTCL DIFFUSIVITIES
VNDIFF	CM/SEC	ION NON-DIFFUSIVE FLOW VELOCITY
PDIFFI	CM**2/SEC	INPUT DIFFUSIVITIES
PTDIFF	CM**2/SEC	PTCL PREDICTIVE DIFFUSIVITIES
PCON	SECONDS	PTCL CONFINEMENT
KAPA	CM**2/SEC	THERMAL DIFFUSIVITY 1
KAPA6	CM**2/SEC	THERMAL DIFFUSIVITY 6
KAPAN	CM**2/SEC	THERMAL DIFFUSIVITY ANALYSIS
CHIS	CM**2/SEC	DIFFUSIVITIES
CONDS	CM**2/SEC	DIFFUSIVITIES
CONDWNCS	CM**2/SEC	NCLASS DIFFUSIVITIES
CNDWNCIMP	CM**2/SEC	NCLASS HEAT DIFFUSIVITIES FOR IMP
ETATH		ETA(THERMAL)S
CHIPH	CM**2/SEC	MODEL VS EXP CHI(PHI)
CHIPHA	CM**2/SEC	ANALYSIS vs. PREDICTIVE MODEL Chi(Phi)
TCONS	SECONDS	CONFINEMENT TIMES
NCFKI	CM**2/SEC	FITS TO NEOCLASSICAL KAPA(I)
NCFKI_KAP	CM**2/SEC	NC KAPA(I) KAPISN FITS (istringer=1)
NCFKI_RJ	CM**2/SEC	NC KAPA(I) RUTHERFORD-JULICH FITS
NCFKI_HH	CM**2/SEC	NC KAPA(I) Hazeltine-Hinton FITS
NCFKI_B	CM**2/SEC	NC KAPA(I) BOLTON FITS
NCFKI_CH	CM**2/SEC	NC KAPA(I) Chang-Hinton FITS
NCFKI_CH2	CM**2/SEC	NC KAPA(I) Chang-Hinton FITS v2
NCFKI_CHZ	CM**2/SEC	NC KAPA(I) Chang-Hinton FITS Z-corr
NCFTS		Neoclassical trapping fractions
BMINMAX	Tesla	Bmin & Bmax on flux surfaces
CHI_GKF	CM**2/SEC	IFS-PPPL GYROFLUID CHIS
CHI_GLF	CM**2/SEC	GLF23 CHIS
CHI_NEO	CM**2/SEC	NEO CHIS
V_NEO	CM/SEC	NEO VELOCITIES
CHI_CDBM	CM**2/SEC	CDBM CHIS
MMM_GR	1/SEC	MMM GROWTH RATES (MODE 1 & 2)
MMM_FR	RAD/SEC	MMM FREQUENCY (MODE 1 & 2)
DRBM_GR	1/SEC	DRBM GROWTH RATES (MODE 1, 2, 3)
DRBM_FR	RAD/SEC	DRBM FREQUENCY (MODE 1, 2, 3)
ITG		ION TEMPERATURE GRADIENT DATA
BETOR		BETA TOROIDALS
N0BAL	N/CM3/SEC	NEUTRAL PTCL BALANCE (E-)
E0BAL	WATTS/CM3	PLASMA FRAME NEUTRAL POWER BAL
TQ0BA	Nt-M/CM3	NEUTRAL TORQUE BALANCE
SRECO	N/CM3/SEC	RECOMBINATION SCE/SINK
SHALO	N/CM3/SEC	BEAM HALO SCE/SINK
SSGF	N/CM3/SEC	SUMMED GAS FLOW ION SCES
SSRC	N/CM3/SEC	SUMMED RECYCLING ION SCES
SREXB	RAD/SEC	ExB Shearing Rates
SREXB_T	RAD/SEC	ExB Shearing Rate Terms
PCURNC	AMPS/CM2	NC Bootstrap Cur Comparison
GFL_NC	N/CM3/SEC	NC Ptcl Transport
QFL_NC	WATTS/CM3	NC Heat Transport
QFL_NCC	WATTS/CM3	NC class Heat Transport
QFL_NCD	WATTS/CM3	NC Heat Transport D+
SBDYD	N/SEC	D0 BOUNDARY SOURCES
T0EDGE	EV	EDGE GAS TEMPERATURE
OM0EDGE	RAD/SEC	EDGE GAS ANGULAR VELOCITY
BDEP0	N/CM3/SEC	BEAM DEPOSITION
BDEP0_D	N/CM3/SEC	BEAM DEPOSITION (D)
BDEN_D	N/CM**3	BEAM D DENSITY PROFILES
BDEP0_D1	N/CM3/SEC	Full Energy Beam Depo. (D)
BDEP0_D2	N/CM3/SEC	Half Energy Beam Depo. (D)
BDEP0_D3	N/CM3/SEC	1/3 Energy Beam Depo. (D)
BDEPS	N/CM3/SEC	BEAM DEPOSITION TOTAL SOURCE
BDEPS_D	N/CM3/SEC	D BEAM DEP FULL/HALF/THIRD SCES
EXFS_D		approx excit. enhancmnt of D dep
BRCAP	N/CM3/SEC	FAST ION RECAPTURE
BRCAP_D	N/CM3/SEC	BEAM RECAPTURE (D)
FBTH	N/CM**3	FAST ION DENSITIES
IRBCMP	AMPS	fast ion rad. cur (2 methods)
IRB	AMPS	fast ion radial currents
IRB_D	AMPS	beam ion radial currents (D)
FPBX		FRACTIONAL BEAM DRAG->IMPURITIES
FPAX		FRAC. BEAM SCATTERING>IMPURITIES
PCURFEQ	AMPS/CM2	FEQ PLASMA CURRENTS
PCURS	AMPS/CM2	PLASMA CURRENTS
CURNB	AMPS/CM2	SH BEAM DRIVEN CURRENT
PCURSAU	AMPS/CM2	SAUTER BOOTSTRAP CURRENTS
SUMCUR	AMPS	Summed toroidal currents
PLJBS	AMP*TESLA/CM2	<J.B> PROFILES
PLJBXTS	AMP*TESLA/CM2	<J.B>ext sum & from resistivity
PLCUR	AMPS	POLOIDAL CURRENT TO BOUNDARY
ZEFF		Z-EFFECTIVE PROFILES
TECOM	eV	TE DATA INPUT
NECOM	n/cm**3	NE DATA INPUT
TICOM	eV	TI DATA INPUT
PBOLO	WATTS/CM3	PRAD USED AND BOLOMETER DATA
CPBOLO	WATTS/CM3	PRAD READ AND CALCULATED
PBOLOS	WATTS/CM3	PRAD CALCULATED BY SPECIES
PBX_SINGL	WATTS/CM3	PRAD CALCULATED FOR SINGL
PBS_TOK	WATTS/CM3	PRAD CALCULATED FOR TOK
PBSLI_TOK	WATTS/CM3	PRAD LINE RAD FOR TOK
PBSBR_TOK	WATTS/CM3	PRAD BREM RAD FOR TOK
P0BLC	WATTS	LAB FRAME NEUTRAL POWER BALANCE
ZEFF0		RESIS. & COMPOSITION ZEFF @AXIS
LAMDA		LAMDA COMPARISON
ALPHA		MAGNETIC ALPHA COMPARISON
RTCOM	CM	MAGNETIC RT COMPARISON
L2COM		MAGNETIC LI/2 COMPARISON
MUCOM		MAGNETIC MUDIA COMPARISON
SHCOM		MAGNETIC S1+S2 COMPARISON
DFLX	WEBERS	PARA/DIAMAGNETIC FLUX
TFLUXCMP	WEBERS	TOROIDAL FLUX COMPARISON
PLFLXCMP	Wb/rad	POLOIDAL FLUX COMPARISON
PSI0	Wb/rad	Poloidal flux on axis
ETAS	OHM*CM	RESISTIVITIES
FBPOL		TRANSP POLOIDAL BETAS
FBPOLPP		FAST ION PERP BETA(POLOIDAL)S
FBPOLPA		FAST ION PLL BETA(POLOIDAL)S
LBPOL		POLOIDAL BETAS, LI/2+BETA
LINORM		VARIOUS NORMALIZED INDUCTANCES
MBPOL		EQ. + DIA. BETA(POLOIDAL)
MBTOR		EQ. + DIA. BETA(TOROIDAL)
XKFMG		ION NEOCLASSICAL MULTIPLIERS
VSCMP	VOLTS	SURFACE VOLTAGE COMPARISON
IPCMP	AMPS	PLASMA CURRENT COMPARISON
BZXRCMP	TESLA*CM	BZXR COMPARISON
NEUTTH	N/SEC	THERMONUCLEAR NEUTRON EMISSION
PNTNS	N/CM3/SEC	NEUTRON EMISSIVITIES
XFUSN	N/SEC	FUSION REACTION RATES
PFUSN	N/CM3/SEC	FUSION REACTION RATE PROFILES
XFUSN_DD	N/SEC	DD REACTION RATES
XFUSN_P	N/SEC	PROTONS FUSION REACTION RATES
XFUSN_DT	N/SEC	DT REACTION RATES
XFUSN_TT	N/SEC	TT REACTION RATES
XNEUT	N/SEC	NEUTRON EMISSION
XNEUT_DD	N/SEC	DD NEUTRON EMISSION
PNTNS_DD	N/CM3/SEC	DD NEUTRON EMISSIVITIES
PNTN2_DD	N/CM3/SEC	DD NEUTRON EMISSIVITIES
XNEUT_DT	N/SEC	DT NEUTRON EMISSION
XPROT	N/CM3/SEC	PROTON EMISSION
XNEUT_TT	N/SEC	TT NEUTRON EMISSION
PFUSN_DD	N/CM3/SEC	DD REACTION RATE PROFILES
PFUSN_DT	N/CM3/SEC	DT REACTION RATE PROFILES
PFUSN_TT	N/CM3/SEC	TT REACTION RATE PROFILES
SBBAL	N/SEC	FAST ION PTCL BALANCE
SBBAL_D	N/SEC	BEAM PTCL BALANCE (D)
SBDEPB_D	N/SEC	BEAM DEPOSITION PTCL BAL (D)
SBDEPS_D	N/SEC	BEAM DEPOSITION SOURCES (D)
SBCX0B_D	N/SEC	BEAM CX NEUTRAL PTCL BAL (D)
SBORBA_D	N/SEC	BEAM ORBIT PTCL BAL (D)
SBRCAP_D	N/SEC	BEAM CX RECAPTURE (D)
SBCXSN_D	N/SEC	BEAM ION CX SINKS (D)
PBLOS	WATTS	FAST ION POWER LOSSES
PBLOS_D	WATTS	BEAM POWER LOSSES (D)
PBROT	WATTS	FAST ION POWER TO ROTATION
PBROT_D	WATTS	BEAM POWER TO ROTATION (D)
PBCXB	WATTS	FAST ION CX POWER TERMS
PBCXB_D	WATTS	BEAM CX POWER TERMS (D)
BPHBX	NT-M	FAST ION CX MOMENTUM BALANCE
BPHBX_D	NT-M	BEAM CX MOMENTUM BALANCE (D)
PBBAL	WATTS	FAST ION POWER BALANCE
PBBAL_D	WATTS	BEAM POWER BALANCE (D)
BHEAT	WATTS	HEATING BY FAST IONS
BHEAT_D	WATTS	BEAM HEATING (D BEAMS)
ABTRAP_D		D beam ion banana fractions
FBTRAP_D		D beam ion banana fractions
BMHTG	WATTS/CM3	FAST ION HEATING PROFILES
PHALO	WATTS/CM3	BEAM HALO POWERS
TQHALO	Nt-M/CM3	BEAM HALO TORQUES
PEFIS	WATTS/CM3	ELEC HEATING BY FAST ION SPECIES
PIFIS	WATTS/CM3	ION HEATING BY FAST ION SPECIES
PTHFIS	WATTS/CM3	P(THERM) BY FAST ION SPECIES
SEFIS	N/CM3/SEC	ELEC SOURCES BY FAST ION SPECIES
STHFIS	N/CM3/SEC	THERMALIZATION BY F.I. SPECIES
BPHBA	NT-M	FAST ION MOMENTUM BALANCE
BPHBA_D	NT-M	BEAM MOMENTUM BALANCE (D)
UBCUR	AMPS/CM2	UNSHIELDED BEAM CURRENTS
PHEAT_IN	WATTS	INPUT HEATING POWERS
PHEAT	WATTS	HEATING POWERS
PFI0	WATTS	FAST ION SOURCE POWERS
CPDIS	HOURS	CPU TIME DISTRIBUTION
BMCPU	HOURS	CPU TIME USE: BEAM CODE
BMPLL	HOURS	CPU TIME (MPI RUN): BEAM CODE
CPGEO	HOURS	CPU TIME USE: MHD GEOMETRY
CPWALL	HOURS	WALL CLOCK & CPU TIME
PT_TIME	HOURS	WALL CLOCK & CPU TIME USE : PT_SOLVER
LIHI2		INDUCTANCE
POHC	WATTS	OHMIC HEATING, IP*VS
PEDGE	WATTS	EXPANSION/SCRAPEOFF POWER
NETWD	N/CM**3	NE DATA PROFILE ASYMMETRY
TSHF0	CM	SHAFRANOV & DATA SHIFT ON AXIS
TSHAF	CM	SHAFRANOV SHIFT: CODE & DATA
QP		Q PROFILES
XIQ		xi of Q surfaces
GCHK		G PARA/DIAMAGNETIC CHECK
JMHD	AMPS/CM	FLUX SURFACE AVGS INVOLVING J
VCHK	VOLTS	VOLTAGE CHECK
TCHK	WEBERS	TOROIDAL FLUX CHECK
UBDOT	WATTS/CM3	FIELD ENERGY GAIN
MGBAL	WATTS/CM3	MAGDIF ENERGY BALANCE
MFLUX	WEBERS	MAGNETIC FLUXES
PCMPR	WATTS/CM3	COMPRESSION POWERS
PLABL	N/CM**3	PELLET ABLATION
FB		B FIELD FACTORS
FBP		\|BP\|/\|BT\| COMPARISON
VISBR	VB UNITS	SINGLE CHORD VB LIGHT
VISBP	VB INTENS	PROFILE VB LIGHT
TESAW	EV	SAWTOOTH DATA: TE
PL2H	WATTS	L-H power condition
PED_WID		pedestal model widths
PED_THGT	eV	temperature pedestal heights
PED_NHGT	N/CM**3	density pedestal height
PED_SCAL		pedestal scale factors
SX_RANGE		solver ranges [0:x]
TBSL_D	SECONDS	D BEAM SLOWING DOWN TIMES
TBPA_D	SECONDS	D BEAM PITCH ANGLE SCATTERING
TAUSL	SECONDS	FAST ION SLOWING DOWN TIMES
TAUPA	SECONDS	FAST ION P.A. SCATTERING TIMES
PRFFI	WATTS	ICRF POWER to FAST IONS
UBDC01	AMPS/CM2	Beam#01(D) UNSHLD BEAM DR CUR
SBDC01	AMPS/CM2	Beam#01(D) SHLD BEAM DR CUR
NB01	N/CM**3	Beam#01(D) densities
BDEP01	N/CM3/SEC	Beam#01(D) deposition
TQJXBD01	Nt-M/CM3	Beam#01(D) JxB torque
PBE01	WATTS/CM3	Beam#01(D) electon heating
PBI01	WATTS/CM3	Beam#01(D) ion heating
PBL01	WATTS/CM3	Beam#01(D) heating power el+i+th
TQB01	Nt-M/CM3	Beam#01(D) torque
VPB01	T*CM/SEC	Beam#01(D) vpll.B profiles
EINJ01	eV	Beam#01(D) Injected Energies
BPSH01	WATTS	Beam#01(D) shine-thru power by e
UBDC02	AMPS/CM2	Beam#02(D) UNSHLD BEAM DR CUR
SBDC02	AMPS/CM2	Beam#02(D) SHLD BEAM DR CUR
NB02	N/CM**3	Beam#02(D) densities
BDEP02	N/CM3/SEC	Beam#02(D) deposition
TQJXBD02	Nt-M/CM3	Beam#02(D) JxB torque
PBE02	WATTS/CM3	Beam#02(D) electon heating
PBI02	WATTS/CM3	Beam#02(D) ion heating
PBL02	WATTS/CM3	Beam#02(D) heating power el+i+th
TQB02	Nt-M/CM3	Beam#02(D) torque
VPB02	T*CM/SEC	Beam#02(D) vpll.B profiles
EINJ02	eV	Beam#02(D) Injected Energies
BPSH02	WATTS	Beam#02(D) shine-thru power by e
UBDC03	AMPS/CM2	Beam#03(D) UNSHLD BEAM DR CUR
SBDC03	AMPS/CM2	Beam#03(D) SHLD BEAM DR CUR
NB03	N/CM**3	Beam#03(D) densities
BDEP03	N/CM3/SEC	Beam#03(D) deposition
TQJXBD03	Nt-M/CM3	Beam#03(D) JxB torque
PBE03	WATTS/CM3	Beam#03(D) electon heating
PBI03	WATTS/CM3	Beam#03(D) ion heating
PBL03	WATTS/CM3	Beam#03(D) heating power el+i+th
TQB03	Nt-M/CM3	Beam#03(D) torque
VPB03	T*CM/SEC	Beam#03(D) vpll.B profiles
EINJ03	eV	Beam#03(D) Injected Energies
BPSH03	WATTS	Beam#03(D) shine-thru power by e
UBDC04	AMPS/CM2	Beam#04(D) UNSHLD BEAM DR CUR
SBDC04	AMPS/CM2	Beam#04(D) SHLD BEAM DR CUR
NB04	N/CM**3	Beam#04(D) densities
BDEP04	N/CM3/SEC	Beam#04(D) deposition
TQJXBD04	Nt-M/CM3	Beam#04(D) JxB torque
PBE04	WATTS/CM3	Beam#04(D) electon heating
PBI04	WATTS/CM3	Beam#04(D) ion heating
PBL04	WATTS/CM3	Beam#04(D) heating power el+i+th
TQB04	Nt-M/CM3	Beam#04(D) torque
VPB04	T*CM/SEC	Beam#04(D) vpll.B profiles
EINJ04	eV	Beam#04(D) Injected Energies
BPSH04	WATTS	Beam#04(D) shine-thru power by e
UBDC05	AMPS/CM2	Beam#05(D) UNSHLD BEAM DR CUR
SBDC05	AMPS/CM2	Beam#05(D) SHLD BEAM DR CUR
NB05	N/CM**3	Beam#05(D) densities
BDEP05	N/CM3/SEC	Beam#05(D) deposition
TQJXBD05	Nt-M/CM3	Beam#05(D) JxB torque
PBE05	WATTS/CM3	Beam#05(D) electon heating
PBI05	WATTS/CM3	Beam#05(D) ion heating
PBL05	WATTS/CM3	Beam#05(D) heating power el+i+th
TQB05	Nt-M/CM3	Beam#05(D) torque
VPB05	T*CM/SEC	Beam#05(D) vpll.B profiles
EINJ05	eV	Beam#05(D) Injected Energies
BPSH05	WATTS	Beam#05(D) shine-thru power by e
UBDC06	AMPS/CM2	Beam#06(D) UNSHLD BEAM DR CUR
SBDC06	AMPS/CM2	Beam#06(D) SHLD BEAM DR CUR
NB06	N/CM**3	Beam#06(D) densities
BDEP06	N/CM3/SEC	Beam#06(D) deposition
TQJXBD06	Nt-M/CM3	Beam#06(D) JxB torque
PBE06	WATTS/CM3	Beam#06(D) electon heating
PBI06	WATTS/CM3	Beam#06(D) ion heating
PBL06	WATTS/CM3	Beam#06(D) heating power el+i+th
TQB06	Nt-M/CM3	Beam#06(D) torque
VPB06	T*CM/SEC	Beam#06(D) vpll.B profiles
EINJ06	eV	Beam#06(D) Injected Energies
BPSH06	WATTS	Beam#06(D) shine-thru power by e
UBDC07	AMPS/CM2	Beam#07(D) UNSHLD BEAM DR CUR
SBDC07	AMPS/CM2	Beam#07(D) SHLD BEAM DR CUR
NB07	N/CM**3	Beam#07(D) densities
BDEP07	N/CM3/SEC	Beam#07(D) deposition
TQJXBD07	Nt-M/CM3	Beam#07(D) JxB torque
PBE07	WATTS/CM3	Beam#07(D) electon heating
PBI07	WATTS/CM3	Beam#07(D) ion heating
PBL07	WATTS/CM3	Beam#07(D) heating power el+i+th
TQB07	Nt-M/CM3	Beam#07(D) torque
VPB07	T*CM/SEC	Beam#07(D) vpll.B profiles
EINJ07	eV	Beam#07(D) Injected Energies
BPSH07	WATTS	Beam#07(D) shine-thru power by e
UBDC08	AMPS/CM2	Beam#08(D) UNSHLD BEAM DR CUR
SBDC08	AMPS/CM2	Beam#08(D) SHLD BEAM DR CUR
NB08	N/CM**3	Beam#08(D) densities
BDEP08	N/CM3/SEC	Beam#08(D) deposition
TQJXBD08	Nt-M/CM3	Beam#08(D) JxB torque
PBE08	WATTS/CM3	Beam#08(D) electon heating
PBI08	WATTS/CM3	Beam#08(D) ion heating
PBL08	WATTS/CM3	Beam#08(D) heating power el+i+th
TQB08	Nt-M/CM3	Beam#08(D) torque
VPB08	T*CM/SEC	Beam#08(D) vpll.B profiles
EINJ08	eV	Beam#08(D) Injected Energies
BPSH08	WATTS	Beam#08(D) shine-thru power by e
UBDC09	AMPS/CM2	Beam#09(D) UNSHLD BEAM DR CUR
SBDC09	AMPS/CM2	Beam#09(D) SHLD BEAM DR CUR
NB09	N/CM**3	Beam#09(D) densities
BDEP09	N/CM3/SEC	Beam#09(D) deposition
TQJXBD09	Nt-M/CM3	Beam#09(D) JxB torque
PBE09	WATTS/CM3	Beam#09(D) electon heating
PBI09	WATTS/CM3	Beam#09(D) ion heating
PBL09	WATTS/CM3	Beam#09(D) heating power el+i+th
TQB09	Nt-M/CM3	Beam#09(D) torque
VPB09	T*CM/SEC	Beam#09(D) vpll.B profiles
EINJ09	eV	Beam#09(D) Injected Energies
BPSH09	WATTS	Beam#09(D) shine-thru power by e
UBDC10	AMPS/CM2	Beam#10(D) UNSHLD BEAM DR CUR
SBDC10	AMPS/CM2	Beam#10(D) SHLD BEAM DR CUR
NB10	N/CM**3	Beam#10(D) densities
BDEP10	N/CM3/SEC	Beam#10(D) deposition
TQJXBD10	Nt-M/CM3	Beam#10(D) JxB torque
PBE10	WATTS/CM3	Beam#10(D) electon heating
PBI10	WATTS/CM3	Beam#10(D) ion heating
PBL10	WATTS/CM3	Beam#10(D) heating power el+i+th
TQB10	Nt-M/CM3	Beam#10(D) torque
VPB10	T*CM/SEC	Beam#10(D) vpll.B profiles
EINJ10	eV	Beam#10(D) Injected Energies
BPSH10	WATTS	Beam#10(D) shine-thru power by e
UBDC11	AMPS/CM2	Beam#11(D) UNSHLD BEAM DR CUR
SBDC11	AMPS/CM2	Beam#11(D) SHLD BEAM DR CUR
NB11	N/CM**3	Beam#11(D) densities
BDEP11	N/CM3/SEC	Beam#11(D) deposition
TQJXBD11	Nt-M/CM3	Beam#11(D) JxB torque
PBE11	WATTS/CM3	Beam#11(D) electon heating
PBI11	WATTS/CM3	Beam#11(D) ion heating
PBL11	WATTS/CM3	Beam#11(D) heating power el+i+th
TQB11	Nt-M/CM3	Beam#11(D) torque
VPB11	T*CM/SEC	Beam#11(D) vpll.B profiles
EINJ11	eV	Beam#11(D) Injected Energies
BPSH11	WATTS	Beam#11(D) shine-thru power by e
UBDC12	AMPS/CM2	Beam#12(D) UNSHLD BEAM DR CUR
SBDC12	AMPS/CM2	Beam#12(D) SHLD BEAM DR CUR
NB12	N/CM**3	Beam#12(D) densities
BDEP12	N/CM3/SEC	Beam#12(D) deposition
TQJXBD12	Nt-M/CM3	Beam#12(D) JxB torque
PBE12	WATTS/CM3	Beam#12(D) electon heating
PBI12	WATTS/CM3	Beam#12(D) ion heating
PBL12	WATTS/CM3	Beam#12(D) heating power el+i+th
TQB12	Nt-M/CM3	Beam#12(D) torque
VPB12	T*CM/SEC	Beam#12(D) vpll.B profiles
EINJ12	eV	Beam#12(D) Injected Energies
BPSH12	WATTS	Beam#12(D) shine-thru power by e
UBDC13	AMPS/CM2	Beam#13(D) UNSHLD BEAM DR CUR
SBDC13	AMPS/CM2	Beam#13(D) SHLD BEAM DR CUR
NB13	N/CM**3	Beam#13(D) densities
BDEP13	N/CM3/SEC	Beam#13(D) deposition
TQJXBD13	Nt-M/CM3	Beam#13(D) JxB torque
PBE13	WATTS/CM3	Beam#13(D) electon heating
PBI13	WATTS/CM3	Beam#13(D) ion heating
PBL13	WATTS/CM3	Beam#13(D) heating power el+i+th
TQB13	Nt-M/CM3	Beam#13(D) torque
VPB13	T*CM/SEC	Beam#13(D) vpll.B profiles
EINJ13	eV	Beam#13(D) Injected Energies
BPSH13	WATTS	Beam#13(D) shine-thru power by e
UBDC14	AMPS/CM2	Beam#14(D) UNSHLD BEAM DR CUR
SBDC14	AMPS/CM2	Beam#14(D) SHLD BEAM DR CUR
NB14	N/CM**3	Beam#14(D) densities
BDEP14	N/CM3/SEC	Beam#14(D) deposition
TQJXBD14	Nt-M/CM3	Beam#14(D) JxB torque
PBE14	WATTS/CM3	Beam#14(D) electon heating
PBI14	WATTS/CM3	Beam#14(D) ion heating
PBL14	WATTS/CM3	Beam#14(D) heating power el+i+th
TQB14	Nt-M/CM3	Beam#14(D) torque
VPB14	T*CM/SEC	Beam#14(D) vpll.B profiles
EINJ14	eV	Beam#14(D) Injected Energies
BPSH14	WATTS	Beam#14(D) shine-thru power by e
PINJB	WATTS	the total/beam injected power
TQTOTNB	Nt-M/CM3	the total/beam torque
TQCOLNB	Nt-M/CM3	the total collisional torque
TQTHNB	Nt-M/CM3	the total thermalization torque
TQJBNB	Nt-M/CM3	the total/beam JxB torque
TQJBNBD	Nt-M/CM3	the dep/beam JxB torque
BDENSNB	N/CM**3	the total/beam density
BDEPNB	N/CM3/SEC	the total/beam deposition
PBTOTNB	WATTS/CM3	the total/beam power
PBENB	WATTS/CM3	the electon heating/beam power
PBINB	WATTS/CM3	the ion heating/beam power
PBTHNB	WATTS/CM3	the thermalization power
SNCXTOT_D	N/CM3/SEC	total CX sink rate D
NB_F_D	N/CM**3	D Beam ion density by E.fraction
PB_F_D	WATTS/CM3	D Beam heating by E.fraction
VPB_F_D	T*(cm/sec)	D Beam vpll.B flow by E.fraction
EINJAV	EV	avg beam voltages by species
EPOT	VOLTS	ELECTROSTATIC POTENTIAL
VTORMP	CM/SEC	TOROIDAL VELOCITIES ON MIDPLANE
OMGNC	rad/sec	NC TOROIDAL ANGULAR VELOCITIES
VPOLMP	CM/SEC	POLOIDAL VELOCITIES ON MIDPLANE
NCSQUEEZ		NC ORBIT SQUEEZING FACTORS
JBFACS		BEAM CURRENT SHIELDING FACTOR
VNDNC	CM/SEC	Nclass particle convection velocities
DFNC	CM**2/SEC	Nclass particle diffusivities
GEOPARM		surface geometry parameters
SQPARM		squareness parameters
CZIMP		Impurity Z Data Comparison
ZIMP		Average Mult. Impurity Z
PSFMTOT	CM**-2	NC Pfirsch-Schluter moments
PVOLS	CM**3	PLASMA VOLUMES
FLUXRATE	1/SEC	Relative motion of grids
RMAJB	CM	EQUILIBRIUM RMAJ FLUX/BOUNDARY
DTS	SECONDS	TIMESTEPS
DTGEQ	SECONDS	Equilibrium Timesteps
BN00	N/CM**3	BEAM 1.GEN NEUTRAL DENSITY
ERAD	V/CM	NC Diagnostic Radial E Field
NBXPNT		Dominant X point or 0 for limited
APMHD	Wb/rad	Psi of Equilibrium Points relative to machine axis
VOLTSEC	V*s	Volt-Second Flux Consumption
CMG_D	rad/sec	D gas rotation comparison
CMGX	rad/sec	total impurity gas rotation comparison
BOLCOM	W/cm**3	BOL data map check
NERCOM	n/cm**3	NER data map check
NIMCOM	n/cm**3	NIM data map check
OMGCOM	rad/sec	OMG data map check
QPRCOM		QPR data map check
TERCOM	eV	TER data map check
TI2COM	eV	TI2 data map check
ZF2COM		ZF2 data map check
IRAEP	AMPS	FAST ION RAD.CUR DUE TO AEP (MHD) ACTIVITY
PBAEPS_D	WATTS/CM3	AEP POWER D beam by MODE 1-10
NAEPTB_D	N	AEP # TIME STEPS D beam by MODE 1-10

Project sponsored by the Office of Fusion Energy Sciences of the US DOE