A User's Manual for DELSOL3 - prod.sandia.gov - Sandia National ...

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NMXFLXY) identifies the exact point to be evaluated. as follows see Figure 11-16). If M = azimuthal location between 1 and NXFLX N = vertical location between 1 and NYFLX then NMXFLX(1) = M + (N-1)'NXFLX Constraints: NFLXMX 5 4 NFLXMX 5 NXFLX*NYFLX NMXFLX(1) 5 NXFLX*NYFLX Default: NFLXMX = 1 NMXFLX(1) = I (I=1,4) (1I.G-2,1V.D-1) FLXLIM( I) Maximum allowed flux on the receiver in W/m2 at (I=l,NFLXMX) NMXFLX( I) flux point. Default: = l.OE+lO (1I.G-2,1V.D- 1) 192
REFTHP AREF REFRC REFLP REFPIP FPLH FPLC ITHEL ETAREF FEFF Namelist NLEFF Gross thermal power (watts) absorbed by a reference receiver (area AREF) before receiver and piping radiation and convection losses. Constraint: Data should be for same type receiver (;.e., external, cavity, etc.) as in REC namelist. Default: REFTHP = 4.10~ 10' (watts) (IREC=0,3,4) REFTHP = 2.10~ 10' (watts) (IREC=1,2) (1II.G-3) Reference receiver area (m2); for cavities, this should be total aperture area. Default: AREF = 2780.0 (m2) (IREC=0,3,4) AREF = 761.0 (m') .(IREC=1,2 [I11 . G- 3) Fraction of REFTHP transferred to receiver working fluid after radiation and convection losses. Default: REFRC = 0.83 (1II.G-3) Reference pipe length (m) for calculating piping insulation losses. Default: REFLP = 170.0 (m) (1II.G-4) Fraction of REFRC' REFTHP delivered to storage and EPGS after piping losses. Default: REFPIP = 0.99 (1II.G-4) Factor multiplying tower height to give total hot piping run in a single module. Default: FPLH = 2.6 (III.G-4,V.A-7) Factor multiplying tower height to give total cold piping run in a single module (may be different from FPLH if expansion allowance different). Default: FPLC = 2.6 (V.A-7) Parameter for design point thermal/electric conversion efficiency: = 0, efficiency assumed constant at all design power levels, value specified by ETAREF; # 0, efficiency varies with design power level as described in Figure 111-3. Default: ITHEL r= 0 (1II.G-5,111.G-6) Design point thermal/electric conversion efficiency; constant at all power levels (only used when ITHEL = 0). Default: ETAREF = 0.42 (III.G-5,III.H,V.A-11) Fraction of design point efficiency describing average . off-design operation. i Default: FEFF = 0.90 (III.G-5,III.G-G,III.H) 193
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- SANDIA REPORT SAND86-8018 Unlimit
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SAND 86-8018 Unlimited Release Prin
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' The computer code which this repo
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I. Introduction CONTENTS A. Differe
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1. More Accurate Images from Canted
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VII. Comparison of DELSOL, MIRVAL,
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111-1 Insolation Models 111-2 Atmos
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A USER’S MANUAL FOR DELSOLS: A CO
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owing, blocking, atmospheric attenu
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The fourth major enhancement in DEL
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W- 26 S ? Jr RECEIVER NORMAL COORDI
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ZONE FlEL 180" Figure 11-3. Surroun
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30 ZONE 60 Figure 11-4. Method of Z
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Figure 11-5. North-only Field (INOR
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34 N' Figure 11-6. Code Defined Fie
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36 Figure 11-7. Schematic Diagram o
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-SLEW (1)- Figure 11-8. Example of
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Figure 11-9. Radial Stagger Arrange
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Note that when IDENS=l or 2 the azi
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J1.D. Heliostats Either rectangular
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Given that heliostats will be mass
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(A) FLAT REFLECTED RAY FROM (B) FOC
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IROUND = 0 WM = 9.91 (m) HM = 9.93
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That is, the aperture is always loc
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controlled by the IAUTOP parameter
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only be used with rectangular cavit
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grid of points on the DELSOL assume
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W E Figure 11-17. Flux Points on a
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flux point grid defined during syst
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To see whether this problem is occu
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Cal cul ati onal Day 1 2 3 4 5 Tabl
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1II.B-I. Position 01 the Sun-The su
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where SO is given by Equation (1II.
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c 0 w V c LL .r a 0 0 0 0 0 s /s 0
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1II.C. Field Performance Calculatio
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1II.F. Flux Density and SDillane Th
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III. G-1. Atmospheric Attenuation:
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eceiver) or with aperture area (cav
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In other words, PLOST,R is the same
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Following the approach in the previ
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86 - - - LLLLLL www CLee o m 4 I i
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This approximate method of calculat
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RECEIVER STARTUP WEATHER SUN PARASI
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111.1. Relationship Between Perform
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IV. System Optimization Calculation
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power and annual energy. Section 11
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, . IV.A-7. Calculation of Annual E
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. production. When each design powe
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large enough fraction of total capi
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_____ Table IV-2. Design Parameters
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DELSOL will examine NUMHTW (520) eq
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The final step of cavity receiver o
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. furthermore, that the assumed tur
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point in the NMXFLX(1) array (I=l,
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, flux level. DELSOL determines the
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optimum for any power level is 13.
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I V. System Costs and Economics Whi
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for meteorological equipment. The d
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0 co I I I 0 co J 0 c\! c, 0 3 Ln 0
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w/2 x RWCAV W/2 x RWCAV IN (180. -
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S M ~ , = ~ solar F multiple for re
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nSTOR is determined from an assumed
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CTK,REF (CSTREF) = $9.70 x loG VTK,
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XHE,A = scaling exponent. ni is cal
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. CCFIXED = 2.OE6 +'0.14 x DCC + 0.
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(V.B - 6) The discount rate rDIS is
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VI. Program Flow DELSOL can be used
Page 141 and 142: .I c to reach a certain design powe
Page 143 and 144: an optimum storage size based on en
Page 145 and 146: I Read i n N + K t x ] ITAPE=O or 1
Page 147 and 148: Read in System Definition from File
Page 149 and 150: . TABLE VI-2 OUTPIJT FROM OPTIMIZAT
Page 151 and 152: ) Power level specific for detailed
Page 153 and 154: V1.B. DescriDtion of Subroutines in
Page 155 and 156: C cy c: C C
Page 157 and 158: L C c C c C c: C c C C c C C C c: c
Page 159: C C C C C C C C C C C C C C C C C C
Page 162 and 163: At the time of the comparisons MIRV
Page 164 and 165: 164 n m W * ? 0 F F 0 ( z W /M W) X
Page 166 and 167: 166 Phase 1; CDRL Item 2, Pilot Pla
Page 168 and 169: 168 43. Vittitoe, C. N. et al., “
Page 170 and 171: since the values have been already
Page 172 and 173: Title Card $BASIC$ $FIELD$ $HSTAT$
Page 174 and 175: IPROB NYEAR HRDEL UDAY UTIME NUAZ N
Page 176 and 177: TDESP PLAT ALT INSOL SOLCON IWEATH
Page 178 and 179: REFTIM REFSOL ASTART IATM ATMl ATM2
Page 180 and 181: IHPR NLAND XTOWER YTOWER (I= 1 ,NLA
Page 182 and 183: 182 1 1-40 2 1-10 11-20 3 1-10 11-2
Page 184 and 185: SIGTX SIGTY ICANT NCANTX NCANTY HCA
Page 186 and 187: THT TOWL TOWD IREC W H RRECL IAUTOP
Page 188 and 189: For cavities or flat plates, the fo
Page 190 and 191: NXFLX FAZMIN FAZMAX 190 AZMF (North
Page 194 and 195: REFPRL FSP FEP EFFSTR PF SMULT IP H
Page 196 and 197: IHOPT NUMTHT THTST THTEND NUMREC WS
Page 198 and 199: SMULT IPLFL(1) (I=l ,NUMOPT) IPROPT
Page 200 and 201: CH CL CWR CWDR CWDA ITHT CTOWl CTOW
Page 202 and 203: ICHE CHEREF PHEREF XHEP APHREF PPHR
Page 204 and 205: CKNREF PKNREF XKN 204 Sodium-to-sal
Page 206 and 207: TC TR FDEBT RDEBT ROE IDEP NDEP NYO
Page 208 and 209: The next set of cards is read at th
Page 210 and 211: value of insolation from the specif
Page 212 and 213: For optimizing cavity depth, the IO
Page 214 and 215: For the final detailed performance
Page 216 and 217: from that specified during the opti
Page 218 and 219: Sample Problem 4 - User Defined Fie
Page 221 and 222: GLOSSARY Absorber: The portion of t
Page 223 and 224: Heat Exchanger: A component in whic
Page 225 and 226: Receiver System Efficiency: The rat
Page 227 and 228: Variable AEVMAX AEVREF AFDC ALP(I)
Page 229 and 230: Variable H H20 HCANT HM HPANL HRDEL
Page 231 and 232: Variable PARL7,PARLI) PARL9,PARLlO
Page 233 and 234: Variable W WEATH WEND WM WPANL WST
Page 235 and 236: Analysis Review and Critique 6503 8
Page 237 and 238: Martin Marietta Aerospace P.O. Box
Page 239: Stone and Webster Engineering Corpo
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