ARIES Technology and Physics Assessment – Aggressive and Conservative Tokamaks (ACT)

ACT-I: Aggressive technology (SiC blanket) and aggressive physics           

 

ARIES Systems Code Outputs for SiC blanket – ACT-I

V.30 (SVN version control), Printed: LCC 4/08/11

Point # 289722 from raw sysout.data sic806 database

                           

UPDATED 6/8/11, revised to ACT-Ib:

V.32 (SVN version control), Printed: LCC 6/08/11

   - Same strawman point as V.30 but corrected maintenance port volumes and costing, slight increase in COE.

   - Corrected plasma surface areas and NWL to use more accurate discretized geometry formulas. 

   - Most hard-wired numbers have been removed and placed in the specific input files; formatting improved.

 

PDF file of this webpage

 

Input data:

Setup

Builds

Costing

Magnets

Power Flow

Material Properties – density, cost, cost base

Inflation Factor

 

Output data:

Engineering summary

- Plasma parameters

- Vertical build

- IB/OB builds

- Geometric data – volumes

- Geometric data – surface areas

- Liquid metal mass

- Material-based component costs

Powers

Costing Accounts

Costing Algorithms

Part Compositions

2D CAD drawing from systems code – PNG, TIF

 

 

 

Setup

 

***************************

Select Divertor Design    *

type "1" to use,          *

"0" to turn off           *

1) J. Burke T-tube design *

   0                      *

2) X. Wang plate design   *

   1                      *

3) X. Wang finger design  *

   0                      *

***************************

Select Blanket Design     *

type "1" to use,          *

"0" to turn off           *

1) SiC blanket            *

   1                      *

2) DCLL blanket           *

   0                      *

***************************

Select Output Format      *

type "1" to use,          *

"0" to turn off           *

1) "COE" production mode  *

 for scanning parameters  *

   0                      *

2) "SYSTEM" detailed mode *

 for analysis on single pt*

   1                      *

***************************

 

 

Builds

 

0              1           2           3           4           5           6           7           8           9           10          11        *

IB SOL         First Wall  Gap         Blanket     Gap         HT Shield   Gap         Vac. Vessel Gap         TF Coil     Gap         Bucking Cy*

   1.000E-01   1.400E-02   0.000E+00   3.360E-01   1.000E-02   2.400E-01   1.000E-02   4.000E-01   2.000E-02   0.000E+00   0.000E+00   0.000E+00 *

OB SOL         First Wall  Gap         Blanket     Gap         Blanket II  HT Shield   Gap         Vac. Vessel -           -           -         *

   1.000E-01   1.400E-02   0.000E+00   2.860E-01   0.000E+00   4.500E-01   1.500E-01   2.000E-02   2.500E-01   0.000E+00   0.000E+00   0.000E+00 *

VB Div Plate   Repl HTS    Gap         HT Shield   Gap         Vac. Vessel Cryodome    -           -           -           -           -         *

   3.350E-02   1.500E-01   0.000E+00   3.000E-01   2.000E-02   4.000E-01   4.000E-01   0.000E+00   0.000E+00   0.000E+00   0.000E+00   0.000E+00 *

                                                                                                                                                 *

 

Costing

 

Real Discount Rate                                     *

   5.000E-02

Economic Life of Plant (Years)                         *

   4.000E+01

Neutron Fluence Life ( W*year/(m^2) )                  *

   1.800E+07

Annual Escalation Rate                                 *

   5.000E-02

Construction Period (Years)                            *

   6.000E+00

Plant Capacity Factor                                  *

   8.500E-01

Annual Fuel Cost (M$)                                *

   1.000E+06

Decontamination & Decomm. Allowance (mills/kWh)        *

   2.000E+00

Reference/base year for cost basis                     *

   2.009E+03

Projected year for cost basis                          *

   2.009E+03

 

 

Magnets     

 

Maximum stress in protective sheath around strands [Pa]*

   8.000E+08

Maximum allowed stress in the coil casing [Pa]         *

   4.000E+08

Current density in copper [A/m^2]                      *

   2.24E+08

Volume fraction of He coolant [-]                      *

   2.500E-01

Volume fraction of the insulator [-]                   *

   1.000E-01

Nominal current in TF coil [A]                         *

   4.000E+04

Side thickness of the coil casing X 2 [m]              *

   2.000E-02

Clearance between V Vessel and TF coil outmost edge [m]*

   1.000E-01

Yield stress for the PF coil case [Pa]                 *

   1.000E+09

Upper limiter of the current (qmax)                    *

   4.500E+00

Lower limiter of the current (qmin)                    *

   3.150E+00

Maximum allowed magnetic field on PF coils [T]         *

   1.800E+01

Quench protection parameter J2tau                      *

   5.000E+16

Quench time [s]                                        *

   2.000E+00

Number of TF coils                                     *

   1.600E+01

 

 

Powerflow      

 

Fraction of loss of alpha particles [-]                *

   0.000E+00

Fraction of alpha loss to divertor [-]                 *

   0.500E+00

Fraction of edge radiation (typical range 0.75-0.9) [-]*

   0.900E+00

Fraction of edge radiation to divertor [-]             *

   0.900E+00

Neutron energy multiplication factor FW/blanket inboard*

   1.100E+00

Neutron energy multiplication factor FW/blanket outb.  *

   1.100E+00

Neutron energy multiplication factor shield inboard    *

   1.100E+00

Neutron energy multiplication factor shield outboard   *

   1.100E+00

Neutron energy multiplication factor divertor plates   *

   1.100E+00

Neutron energy multiplication factor divertor blanket  *

   1.100E+00

Neutron energy multiplication factor divertor shield   *

   1.100E+00

Efficiency of the He pump/blower [-]                   *

   0.900E+00

Generic current drive source efficiency [-]            *

   0.500E+00

Current drive source efficiency (NB) [-]               *

   0.680E+00

Current drive source efficiency (LH) [-]               *

   0.680E+00

Current drive source efficiency (ICRF) [-]             *

   0.840E+00

Current drive source efficiency (EC) [-]               *

   0.430E+00

Power to all auxiliary functions [W]                   *

   5.000E+07

Cryogenic power [W]                                    *

   2.000E+06

Efficiency of plasma heating [-]                       *

   0.430E+00

Outboard fraction of incoming power [-]                *

   0.600E+00

Inboard fraction of incoming power [-]                 *

   0.400E+00

Fraction of neutron flux absorbed by FW/blanket [-]    *

   0.900E+00

Fraction of neutron flux absorbed by the shield [-]    *

   0.100E+00

Fraction of neutron pow. to divertor in div. plates [-]*

   0.500E+00

Fraction of neutron pow. to divertor in div. blnkt. [-]*

   0.400E+00

Fraction of neutron pow. to divertor in div. shield [-]*

   0.100E+00

Up-down symmetry factor. 1 for symmetric, 0 otherwise  *

   1.000E+00

Fraction of conducted power to divertor => outboard [-]*

   0.800E+00

Fraction of conducted power to divertor => inboard [-] *

   0.200E+00

Fraction of radiated power to divertor => outboard [-] *

   0.800E+00

Fraction of radiated power to divertor => inboard [-]  *

   0.200E+00

Poloidal magnetic flux expansion on outboard [-]       *

   1.000E+01

Poloidal magnetic flux expansion on inboard [-]        *

   1.000E+01

Efficiency of the LM MHD pump [-]                      *

   0.400E+00

Efficiency of the LM mechanical pump [-]               *

   0.900E+00

NB (neutral beam) power in use [W]                     *

   0.000E+00

NB (neutral beam) unit cost [M$]                       *

   3.450E+00

LH (lower hybrid) power in use [W]                     *

   3.442E+07

LH (lower hybrid) unit cost [M$]                       *

   1.490E+00

FW (fast wave) power in use [W]                        *

   3.284E+06

FW (fast wave) unit cost [M$]                          *

   0.000E+00

FW (fast wave) frequency in use [W]                    *

   9.500E+07

Penetration Shielding Thickness [% of HT shielding]    *

   2.500E-01

Fraction of neutron power from plasma to div (A=4) [-] *

   1.000E-01

Fraction of neutron power from plasma to blanket IB [-]*

   2.500E-01

Fraction of neutron power from plasma to blanket OB [-]*

   6.500E-01

Plasma outer squareness [-]                            *

   1.000E-06

Plasma inner squareness [-]                            *

  -1.000E-06

 

 

 

Material Properties

 

 

Material Properties used in ASC:

 

 

 

 

 

All properties updated 12/08/10 'Fabrication Costs per kgRevN(01192011).xls' (L. Waganer)

 

 

 

 

Material Name

Density (kg/m3)

$/kg

Cost basis year

B-FS

7800

35.54

2009

PbLi

8897

8.79

2009

RAFS

9500

43.44

2009

SiC-comp

3200

584.64

2009

SS

7800

81.46

2009

Void

0

0

2009

W

19300

120.37

2009

WC

15600

34.39

2009

TF-coil

7500

50.912

1992

PF-coil

7500

82.919

1992

Nb3Sn

7500

92.7

1992

Cu

7300

65.4

1992

YBCO

6200

92.7

1992

Ag

10500

201.1

1992

CeO2

7130

16.516

1992

Polyamide

1920

16.516

1992

Inconel

8440

96.02

2009

JK2LB

8000

95

2009

SS316

7860

68.657

1992

FS

7800

89.42

2009

He

0.1786

70

2011

RAFS-div

7800

111.77

2009

RAFS-cryost

7800

28.06

2009

 

 

 

 

 *PbLi is 'Li17Pb83, liquid (90% Li6 enrichment) @ 650C'

 *Helium is 99.999% pure, cost $70.0/kg

 

 *Helium cost is zero in the table since it is added at startup and not part of the building contract

 

 

 

Inflation Factor

 

GDP Inflation Factors used in ASC:

 

 

All factors updated 12/02/10 per 'GDP current(103010)(2005 basis).xls' L. Waganer

Year used:

2009

 

 

Year

Inflation Factor

1970

0.2432

1971

0.2553

1972

0.2663

1973

0.2811

1974

0.3067

1975

0.3356

1976

0.3549

1977

0.3775

1978

0.404

1979

0.4376

1980

0.4775

1981

0.5222

1982

0.5541

1983

0.576

1984

0.5977

1985

0.6158

1986

0.6294

1987

0.6476

1988

0.6699

1989

0.6952

1990

0.722

1991

0.7476

1992

0.7653

1993

0.7822

1994

0.7987

1995

0.8154

1996

0.8309

1997

0.8456

1998

0.8551

1999

0.8677

2000

0.8865

2001

0.9065

2002

0.9212

2003

0.941

2004

0.9677

2005

1

2006

1.0326

2007

1.063

2008

1.0862

2009

1.0961

2010

1.1071

 

 

 *2005 basis

 

 

 

Engineering summary            

 

Defining Power Plant Parameters:

 

 

SVN Rev # 32;  Printed on Wed Jun  8 15:09:06 2011

 

 

 

 

 

 Plasma major radius [m]:

5.5

 

 Plasma aspect ratio [-]:

4

 

 Toroidal mag. field at plasma major radius [T]:

5.5

 

 Plasma current [MA]:

10.58

 

 Normalized Beta [-]:

4.5

 

 MHD safety factor [-]:

4.4

 

 Cylindrical safety factor [-]:

2.609

 

 Plasma triangularity [-]:

0.7

 

 Exponent on plasma density profile [-]:

0.3

 

 Exponent on plasma temperature profile [-]:

0.8

 

 Greenwald density fraction [-]:

0.95

 

 Fusion gain [-]:

40

 

 Plasma elongation [-]:

2.2

 

 H98(y,2) multiplier on energy confinement scaling [-]:

1.441

 

 Current diffusion time [s]:

221.3

 

 Energy confinement time [s]:

1.536

 

 Ratio of effec. particle conf. time to energy conf. time [-]:

5.091

 

 Volume average electron density [m^-3]:

1.52E+20

 

 Volume average temperature [KeV]:

16.56

 

 Flattop time [s]:

1.00E+30

 

 L to H-mode threshold power [MW]:

44.4

 

 Ave neutron wall load (at plasma surface) [MW/m^2]:

3.07317

 

 Bremsstrahlung radiation loss [MW]:

50.64

 

 Bootstrap current fraction [-]:

0.8998

 

 Current drive efficiency for generic heating/CD source [-]:

0.27

 

 Power from generic CD source (steady-state) [MW]:

26.9

 

 Total aux. heating power into plasma for power balance [MW]:

45.1

 

 Cyclotron radiation loss [MW]:

12.02

 

 Ohmic power in plasma [MW]:

0.0584

 

 Line radiation loss [MW]:

29.24

 

 Fast alpha beta [-]:

0.9679

 

 Effective charge [-]:

2.064

 

 Ratio of plasma temperature at center to edge [-]:

0

 

 Ratio of plasma density at center to edge [-]:

0

 

 Eta_CD for source 1 [-]:

5.89E-44

 

 Eta_CD for source 2 [-]:

-4.32E-26

 

 Eta_CD for source 3 [-]:

0

 

 Eta_CD for source 4 [-]:

0

 

 Impurity fraction 1 [-]:

0.003

 

 Impurity fraction 2 [-]:

0

 

 Impurity fraction 3 [-]:

0

 

 Peak temperature [keV]:

26.75

 

 External CD fraction of total plasma current [-]:

0.1002

 

 Total non-inductive fraction of total plasma current [-]:

1

 

 Density fraction of helium (frac. of electron density) [-]:

0.07288

 

 Density fraction of DT fuel (frac. of electron density) [-]:

0.8002

 

 Plasma stored energy [MJ]:

513.2

 

 Poloidal flux swing required to raise plasma current [?]:

300

 

 Loop voltage in plasma [V]:

0

 

 Density profile peak-to-volume average [-]:

1.295

 

 Temperature profile peak-to-volume average [-]:

1.796

 

 Poloidal beta [-]:

2.348

 

 Toroidal beta [-]:

6.295

 

 Alpha power in plasma [MW]:

361.3

 

 Ratio of loss power to L-H threshold power [-]:

7.525

 

 Plasma surface area [m^2]:

470.264

 

 Maximum magnetic field in the TF coil [T]:

10.1896

 

 Maximum IB heat flux on divertor [MW/m^2]:

2.9255

 

 Maximum OB heat flux on divertor [MW/m^2]:

6.70536

 

 Maximum heat flux to the first wall [MW/m^2]:

0.274874

 

 Gross electrical power [MW]:

1181.54

 

 Net electric power [MW]:

1007.49

 

 Recirculated power (Pgross - Pnet) [MW]:

174.048

 

 Thermal power [MW]:

2065.4

 

 Fusion power [MW]:

1804

 

 Cost of electricity [mills/kWh]:

58.3027

 

 Data point number from plasma physics output file [-]:

289721

 

 

 

 

 

 

 

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

 

 

Defining Parameters for Plasma Closed Surface Equation:

 

 

 

 

 

 Plasma major radius [m]:

5.5

 

 Plasma minor radius [m]:

1.375

 

 Elongation [-]:

2.2

 

 Triangularity [-]:

0.7

 

 Outer Squareness [-]:

6.32404e-322

 Inner Squareness [-]:

0

 

 Scrape-off layer [m]:

0.1

 

 

 

 

Vertical Build [m]:

 

 

 Divertor Plate:

0.0335

 

 Replaceable HT Shield:

0.289777

 

 Gap:

0

 

 HT Shield:

0.3

 

 Gap:

0.02

 

 Vacuum Vessel:

0.4

 

 

 

 

Inboard/Outboard Radial Build in TETRA Format [m]:

 

 

 

Thickness

Radius

 Device Centerline

0.0000

0

 Bore

2.27598

2.27598

 Central Solenoid

0.139506

2.41548

 Gap

0.02

2.43548

 Bucking Cylinder

0.206699

2.64218

 Gap

0

2.64218

 TF Coil Annulus

0.326523

2.9687

 Gap

0.0136666

2.98237

 Vacuum Vessel

0.4

3.38237

 Gap

0.066292

3.44866

 HT Shield IB

0.229777

3.67844

 Gap

0.01

3.68844

 Blanket IB

0.32256

4.011

 Gap

0

4.011

 First Wall IB

0.014

4.025

 Scrape-Off Layer IB

0.1

4.125

 Plasma Centerline

1.375

5.5

 Plasma Outer Edge

1.375

6.875

 Scrape-Off Layer OB

0.1

6.975

 First Wall OB

0.014

6.989

 Gap

0.000340877

6.98934

 Blanket OB

0.274549

7.26389

 Gap

0.01

7.27389

 Blanket II

0.430831

7.70472

 Gap

0.0100091

7.71473

 HT Shield OB

0.289777

8.00451

 Gap

0.4

8.40451

 Vacuum Vessel

0.25

8.65451

 Gap

3.15477

11.8093

 TF Coil

0.326523

12.1358

 Gap

0.949361

13.0852

 Cryostat

0.4

13.4852

 

 

 

 

 

 

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

 

 

Geometric Data: Volumes [m^3]:

 

 

 

 

 

Plasma:

 

 

 Plasma_AT:

400.646

 

First Wall:

 

 

 FirstWallInboard:

1.87531

 

 FirstWallOutboard:

5.97294

 

  Total First Wall:

7.84825

 

Blankets:

 

 

 BlanketInboard:

41.3975

 

 BlanketOutboard:

104.923

 

 BlanketII:

175.005

 

  Total Blankets:

321.325

 

 

 

 

Divertor Plates (6):

 

 

 Div1:

0.558501

 

 Div2:

1.17735

 

 Div3:

1.05001

 

 Div4:

1.05417

 

 Div5:

1.18835

 

 Div6:

0.554716

 

  Total Divertor:

5.58309

 

 

 

 

Replaceable HT Shields:

 

 

 RepHTShieldTop:

20.3655

 

 RepHTShieldBottom:

20.3655

 

  Total Repl. HT Shields:

40.731

 

 

 

 

HT Shields:

 

 

 HTShieldInboard:

24.9345

 

 HTShieldOutboard:

220.09

 

 Penetration Shielding Thickness:

61.2562

 

  Total HT Shields:

306.281

 

 

 

 

Vacuum Vessel:

 

 

 VacuumVesselMain:

89.7315

 

 VacuumVesselOutboard:

185.531

 

  Total Vacuum Vessel:

275.262

 

 

 

 

Maintenance Ports (16):

 

 

 MaintenancePort:

301.466

 

 UpperVVDuctBottomWall:

22.7948

 

 UpperVVDuctTopWall:

12.6746

 

 UpperVVDuctSideWall:

48.5187

 

  Total All Ports:

385.454

 

 

 

 

TF Coils (16):

 

 

 Total TF Coils:

185.44

 

 

 

 

 BuckingCylinder:

33.1309

 

 TF Coil Upper Cap:

52.9419

 

 TF Coil Lower Cap:

52.9419

 

 Cryostat:

1076.31

 

 

 

 

PF Coils (36 active, 14 spares [preliminary]):

 

 

 PFCoil_0:

2.5825

 

 PFCoil_1:

2.58375

 

 PFCoil_2:

2.585

 

 PFCoil_3:

2.58626

 

 PFCoil_4:

1.35707

 

 PFCoil_5:

1.51535

 

 PFCoil_6:

1.67251

 

 PFCoil_7:

2.05531

 

 PFCoil_8:

2.2034

 

 PFCoil_9:

2.2129

 

 PFCoil_10:

2.0627

 

 PFCoil_11:

1.69199

 

 PFCoil_12:

1.17736

 

 PFCoil_13:

0.35272

 

 PFCoil_14:

0.484511

 

 PFCoil_15:

0.69244

 

 PFCoil_16:

0.82236

 

 PFCoil_17:

0.847845

 

 PFCoil_18:

0.848256

 

 PFCoil_19:

0.822758

 

 PFCoil_20:

0.692775

 

 PFCoil_21:

0.484744

 

 PFCoil_22:

0.352889

 

 PFCoil_23:

1.17793

 

 PFCoil_24:

1.6928

 

 PFCoil_25:

2.0637

 

 PFCoil_26:

2.21397

 

 PFCoil_27:

2.20446

 

 PFCoil_28:

2.05629

 

 PFCoil_29:

1.67331

 

 PFCoil_30:

1.51606

 

 PFCoil_31:

1.35771

 

 PFCoil_32:

2.58751

 

 PFCoil_33:

2.58626

 

 PFCoil_34:

2.585

 

 PFCoil_35:

2.58375

 

  Active PF Coil Vol. (36):

58.9862

 

  Spare  PF Coil Vol. (14):

19.1485

 

   Total PF Coils Vol.:

78.1346

 

 

 

 

 Total FW and Blankets:

329.173

 

  (IB, OB FW & Blanket, Blanket II)

 

 

 

 

 

 Total Power Core (FPC) Vol:

1220.61

 

  (IB, OB FW & Blanket, Blanket II, Divertor, TF & PF magnets,

 

 

   VV, HT & Repl. Shield w/ Penetration Shielding)

 

 

 

 

 

 Support Structure Volume:

244.121

 

  (20% of FPC vol)

 

 

 

 

 

 

 

 

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

 

 

Surface Areas [m^2]:

 

 

 

 

 

 Plasma Surface Area:

470.264

 

 Plasma Surface Area including SOL:

502.269

 

  (using discretized geometry formulas)

 

 

 Scrape-off layer (SOL) thickness:

0.1

 

 

 

 

 FirstWallInboard:

132.633

 

 FirstWallOutboard:

372.212

 

  Total First Wall:

504.845

 

 

 

 

 Div1:

18.6167

 

 Div2:

39.2449

 

 Div3:

35.0002

 

 Div4:

35.139

 

 Div5:

39.6118

 

 Div6:

18.4905

 

  Total Divertors:

186.103

 

 

 

 

 

 

 

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

 

 

Liquid Metal Mass [tonne]

 

 

 

 

 

 FirstWallInboard:

4.50485

 

 FirstWallOutboard:

14.3481

 

 BlanketInboard:

305.7

 

 BlanketOutboard:

774.805

 

 BlanketII:

1198.9

 

 Div1:

0

 

 Div2:

0

 

 Div3:

0

 

 Div4:

0

 

 Div5:

0

 

 Div6:

0

 

  Total Divertors:

0

 

 RepHTShieldTop:

18.1192

 

 RepHTShieldBottom:

18.1192

 

  Total Repl HT Shields:

36.2384

 

 HTShieldInboard:

22.1842

 

 HTShieldOutboard:

195.814

 

  Total HT Shields:

217.999

 

 

 

 

  Total Mass Liquid Coolant:

2552.5

 

  Total w/ 2.5x BOP Factor:

6381.25

 

 

 

 

 

 

 

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

 

 

 Material-based Component Costs [M$]:

 

 

 

 

 

 FirstWallInboard:

2.43309

 

 FirstWallOutboard:

7.74949

 

 BlanketInboard:

12.5079

 

 BlanketOutboard:

31.7017

 

 BlanketII:

74.4042

 

 Divertors:

0.525676

 

 

 

 

 RepHTShieldTop:

9.66353

 

 RepHTShieldBottom:

9.66353

 

 HTShieldInboard:

14.3823

 

 HTShieldOutboard:

104.434

 

  Total HT Shield:

118.816

 

 

 

 

 VacuumVesselMain:

34.5401

 

 VacuumVesselOutboard:

22.9695

 

  Total Vacuum Vessel:

57.5096

 

 

 

 

 MaintenancePort:

110.733

 

 UpperVVDuctBottomWall:

8.37289

 

 UpperVVDuctTopWall:

4.6556

 

 UpperVVDuctSideWall:

17.8217

 

  Total All Ports = 141.584

 

 

 

 

 

 Total TF Coils Cost:

141.776

 

 

 

 

 BuckingCylinder:

13.6725

 

 TF Coil Upper Cap:

21.8481

 

 TF Coil Lower Cap:

21.8481

 

 CryoDome:

42.4027

 

 

 

 

PF Coil Costs (36 active, 14 spares [preliminary]):

 

 

 PFCoil_0:

2.30024

 

 PFCoil_1:

2.30136

 

 PFCoil_2:

2.30247

 

 PFCoil_3:

2.30359

 

 PFCoil_4:

1.20875

 

 PFCoil_5:

1.34973

 

 PFCoil_6:

1.48972

 

 PFCoil_7:

1.83068

 

 PFCoil_8:

1.96258

 

 PFCoil_9:

1.97104

 

 PFCoil_10:

1.83726

 

 PFCoil_11:

1.50706

 

 PFCoil_12:

1.04868

 

 PFCoil_13:

0.314169

 

 PFCoil_14:

0.431557

 

 PFCoil_15:

0.61676

 

 PFCoil_16:

0.73248

 

 PFCoil_17:

0.75518

 

 PFCoil_18:

0.755546

 

 PFCoil_19:

0.732834

 

 PFCoil_20:

0.617058

 

 PFCoil_21:

0.431764

 

 PFCoil_22:

0.31432

 

 PFCoil_23:

1.04919

 

 PFCoil_24:

1.50779

 

 PFCoil_25:

1.83815

 

 PFCoil_26:

1.97199

 

 PFCoil_27:

1.96352

 

 PFCoil_28:

1.83155

 

 PFCoil_29:

1.49043

 

 PFCoil_30:

1.35037

 

 PFCoil_31:

1.20932

 

 PFCoil_32:

2.30471

 

 PFCoil_33:

2.30359

 

 PFCoil_34:

2.30247

 

 PFCoil_35:

2.30136

 

  Active PF Coil Cost (36):

52.5393

 

  Spare  PF Coil Cost (14):

17.0556

 

   Total PF Coil Cost:

69.5949

 

 

 

 

 Total First Wall, Blankets:

128.796

 

 Total HT Shield:

138.143

 

 Total Power Core:

266.94

 

 

 

 

Powers      

 

Powers [MW]:

 

Printed on Wed Jun 8 15:09:06 2011

 

 

 

 Plasma Power:

406.4

 Alpha Power:

361.3

 Neutron Power:

1445.2

 Thermal Power:

2065.4

 Fusion Power:

1806.5

 Gross Electrical Power:

1181.54

 Net Electrical Power:

1007.49

 

 

 Divertor in use:

plate-type, helium-cooled

 He pump/blower efficiency:

0.9

 Divertor pumping power (He only):

19.6173

 Recovered power from He pump:

11.8458

  (P_he_pump_recovered = P_pump_divertor / eta_pump_he * eta_pump_he_recovered * eta_brayton)

 

 

 Blanket in use:

SiC blanket, PbLi-cooled

 LM pump in use:

mechanical LM pump

 LM pump efficiency:

0.9

 Blanket pumping power (LM only):

5.85626

 Recovered power from LM pump:

3.53626

  (P_lm_pump_recovered = P_pump_blanket / eta_pump_lm_mech * eta_pump_lm_mech_recovered * eta_brayton)

 

 

 TF magnets in use:

low-temp SC magnet technology

  Nb3Sn at 4.2 K, 'Next Step, conservative costing'

 

 

 

 

Additional Parameters:

 

 Gross Cycle Efficiency (Brayton):

0.572061

 Plasma Heating [MW]:

18.2

 Plasma Heating Efficiency:

0.43

 Current Drive Power [MW]:

26.9

 Current Drive Efficiency:

0.5

 Aux. Functions Power [MW]:

63

 Cryo Power [MW]:

2

 

 

Neutron Power Distribution: (A=4)

 

 Divertors:

0.1

 IB Blanket:

0.25

 OB Blanket:

0.65

 

 

 Power to Divertor [MW]:

295.385

 Divertor Heat Flux max [MW/m2]:

6.70536

 

 

 NWL ave (plasma surface) [MW/m2]:

3.07317

 NWL max (plasma surface) [MW/m2]:

4.76341

 NWL ave (incl. SOL) [MW/m2]:

2.87734

 NWL max (incl. SOL) [MW/m2]:

4.45988

 Peaking factor:

1.55

 

 

 Power to FW [MW]:

111.015

 FW Heat Flux ave [MW/m2]:

0.219899

 FW Heat Flux max [MW/m2]:

0.274874

 

 

 

 

Costing Accounts         

 

Costing Accounts with SiC Blanket

 

Costs are M$ in 2009$

 

Printed on Wed Jun  8 15:09:06 2011

 

 

 

 

 

20.0   Land and Land Rights:

24.0468

     20.1   Land and Privilege Acquistion:

20.0448

     20.2   Relocation of Buildings, Utilities, Highways, and Other Services:

4.002

 

 

21.0   Structures and Site Facilities:

428.356

     21.1   Site Improvements and Facilities:

27

     21.2   Power Core Building:

159.914

     21.3   Turbine - Generator Building:

76.9584

     21.4   Heat Rejection Structures and Facilities:

11.6031

     21.5   Electrical Equipment and Power Supply Building:

23.0114

     21.6   Plant Auxiliary Systems Building (including Switchgear):

21.6522

     21.7   Hot Cell Building (incl. Maintenance and Radioactive Material Storage and Reprocessing):

54.3709

     21.8   Power Core Service Building (Non-Radioactive Service?):

4.32567

     21.9   Service Water Building:

1.51839

     21.10   Fuel Handling and Storage Building:

25.2006

     21.11   Control Room Building:

7.12

     21.12   On-Site A/C Power Supply Building:

4.72055

     21.13   Administration Building:

2

     21.14   Site Service Building:

2

     21.15   Cryogenics and Inert Gas Storage Building:

2.09

     21.16   Security Building:

0.71

     21.17   Ventilation Stack:

4.16

 

 

22.0   Power Core Equipment:

1381.57

     22.1.0   Fusion Energy Capture and Conversion:

297.169

          22.1.1   First Wall and Blanket, replaceable, inboard and outboard:

54.3922

          22.1.2   Second Blanket, life of plant:

74.4042

          22.1.3   Divertor Assembly, upper and lower, replaceable:

0.525676

          22.1.4   High Temperature Shield, outside of blanket and/or divertor, replaceable:

19.3271

          22.1.5   High Temperature Shield, outside of replaceable HT shield, life of plant:

118.816

          22.1.6   Penetration Shielding (low temperature, active and passive):

29.704

          22.1.7   Shield cooling, low temperature:

0

     22.2.0   Plasma Confinement:

311.142

          22.2.1   Toroidal Field Coils (conductor, case, bucking cyl., cryostat, struts, structure):

241.547

                    22.2.1.1   Conductor and Cable:

36.405

                    22.2.1.2   Structural Coil Case:

105.371

                    22.2.1.3   Bucking Cylinder:

13.6725

                    22.2.1.4   Cryostat and Thermal Shield:

42.4027

                    22.2.1.5   Thermal Isolation Struts:

0

                    22.2.1.6   Anti-torque structure (upper + lower cap):

43.6962

          22.2.2   Poloidal Field Coils (central solenoid and outer poloidal), lower spares incl:

69.5949

          22.2.3   Feedback Control Coils (normal conducting):

0

          22.2.4   Cryogenicics for Plasma Confinement (incl dewar vacuum pumping):

0

          22.2.5   Power Supplies for Plasma Confinement:

0

     22.3.0   Plasma Formation and Sustainment:

78.0624

          22.3.1   Heating and Current Drive with power supplies (Primarily Steady State):

55.0624

                    22.3.1.1   Ion Cyclotron Resonance Frequency (ICRF) Fast Wave Heating and CD:

3.7766

                    22.3.1.2   Lower Hybrid (LH) Wave Plasma Heating and Current Drive:

51.2858

                    22.3.1.3   Electron Cyclotron Resonance Frequency (ECRF) Plasma Heating and CD:

0

                    22.3.1.4   Neutral Particle Beam Plasma Heating, Current Drive and Rotation:

0

          22.3.2   Startup subsystems with power supplies:

7

                    22.3.2.1   Electron Cyclotron Resonance Freq. (ECRF) Wave Plasma Breakdown:

0

                    22.3.2.2   Ion Cyclotron Resonance Freq. (ICRF) Wave Current Initiation, Ramp-Up:

0

                    22.3.2.3   Lower Hybrid (LH)  Wave Current Initiation and Ramp-Up:

0

          22.3.3   Stability Control subsystem with power supplies (Primarily Transient):

0

                    22.3.3.1   Electron Cyclotron Resonance Frequency (ECRF) Wave Plasma Control:

0

                    22.3.3.2   Neutral Particle Beam Plasma Control:

0

          22.3.4   Plasma Fueling and Constituent Control:

16

                    22.3.4.1   Pellet Injection Fueling and Constituent Control:

0

                    22.3.4.2   Neutral (Particle) Beam Injection (NBI) Fueling and Constituent Control:

0

     22.4.0   Vacuum, Power Core:

215.599

          22.4.1   Vacuum Vessel:

168.243

          22.4.2   Helium Liquefier-Refrigerators:

15

          22.4.3   Primary Vacuum Pumps (cryocondensation, cryosorption, cryodiffusion, and/or turbo-molecular):

0

          22.4.4   Roughing or Backing Pumps:

0

          22.4.5   Vacuum Pumping Ducts (vac duct shielding in 22.01.06):

32.3555

          22.4.6   Plumbing, Cryogenic:

0

     22.5.0   Primary Structure and Support, Power Core:

48.8242

          22.5.1   Carry-Through Structure:

0

          22.5.2   Structural Pedestal:

0

          22.5.3   Equipment Support Structure:

0

     22.6.0   Main Heat Transfer and Transport (MHTT):

175.261

          22.6.1   Dual-Coolant System: PbLi servicing FW, Blanket, HT shield, He servicing Divertor, and Nb IHX:

175.261

          22.6.2   Primary (Helium) Heat Transfer Loop  (Servicing FW, blanket, and HT shield):

0

          22.6.3   Limiter or Divertor Primary Heat Transfer Loop (May tie into same IHX, SG):

0

          22.6.4   Intermediate Heat Transfer Loop (Sodium or Helium):

0

     22.7.0   Radioactive Materials Treatment and Management (off-line):

15.3302

          22.7.1   Liquid Materials Processing Equipment  (including final detritiation):

0

          22.7.2   Gaseous Materials Processing Equipment (including final detritiation):

0

          22.7.3   Solid Materials Processing Equipment   (including detrititation):

0

     22.8.0   Fuel Handling and Storage (on-line):

71.5407

          22.8.1   Chamber Exhaust Gas Handling and Processing  Equipment:

0

          22.8.2   Purge and Cover Gas Handling Processing Equipment:

0

          22.8.3   Primary Coolant Stream Handling and Processing Equip. (incl. on-line adj. of Li enrichment):

0

          22.8.4   Other Liquid and Gaseous Coolant Stream Handling and Processing Equipment:

0

          22.8.5   Purification and Isotope Separation Equipment:

0

          22.8.6   Tritium, Deuterium, and DT Storage Equipment:

0

          22.8.7   Atmospheric Tritium Recovery Equipment (Power Core, Hot Cell, Fuel Handling Bldgs.):

0

     22.9.0   Maintenance Equipment:

100.599

          22.9.1   Power Core Maintenance Equipment:

0

          22.9.2   Hot Cell Maintenance Equipment:

0

          22.9.3   Fuel Handling Maintennace Equipment:

0

          22.9.4   Other Plant Equipment Maintenance Equipment:

0

     22.10.0   Instrumentation and Control:

60

          22.10.1   Power Core Instrumentation & Control Equipment:

0

          22.10.2   Radiation Monitoring Equipment:

0

          22.10.3   Isolated Indicating & Recording Equipment:

0

          22.10.4   Data Acquisition and Recording Equipment:

0

          22.10.5   Communications Equipment:

0

     22.11.0   Other Power Core Equipment:

8.04789

          22.11.1   Special Heating Equipment:

0

          22.11.2   Special Cooling Equipment (low temp shield, vacuum vessel, other structures):

0

          22.11.3   Coolant Receiving, Storage and Makeup Equipment:

0

          22.11.4   Gas Systems Equipment:

0

          22.11.5   Inert Atmosphere Equipment (Power Core, Hot Cell, and Fuel Handling Buildings):

0

     22.98.0   Spare Parts Allowance (include in individual costs):

0

     22.99.0   Contingency Allowance (include in Acct 96):

0

 

 

23.0   Turbine - Generator Equipment:

352.187

     23.1.0   Turbine - Generators:

0

     23.2.0   Main Steam or other Main Heat Transfer Fluid System:

0

     23.3.0   Condensing  or Heat Sink Heat Exhanger Systems:

0

     23.4.0   Feedwater Heating or Heat Recovery System:

0

     23.5.0   Other Turbine Plant Equipment:

0

     23.6.0   Turbine Plant Instrumentation & Control:

0

     23.98.0   Spare Parts Allowance (include in individual costs):

0

     23.99.0   Contingency Allowance (include in Acct 96):

0

 

 

24.0   Electric Plant Equipment:

185.556

     24.1.0   Switchgear:

0

     24.2.0   Station Service Equipment:

0

     24.3.0   Switchboards:

0

     24.4.0   Protective Equipment:

0

     24.5.0   Electrical Structures and Wiring Containers:

0

     24.6.0   Power and Control Wiring:

0

     24.7.0   Electrical Lighting:

0

     24.98.0   Spare Parts Allowance (include in individual costs):

0

     24.99.0   Contingency Allowance (include in Acct 96):

0

 

 

25.0   Heat Rejection Equipment:

34.2671

     25.1.0   Water Intake Common Facilities:

0

     25.2.0   Circulating Water Systems:

0

     25.3.0   Cooling Towers:

0

     25.4.0   Other Heat Rejection Systems:

0

     25.98.0   Spare Parts Allowance (incl. in individual costs):

0

     25.99.0   Contingency Allowance (incl. in Acct 96):

0

 

 

26.0   Miscellaneous Plant Equipment:

84.2128

     26.1.0   Transportation and Lifting Equipment:

0

     26.2.0   Air and Water Service Systems:

0

     26.3.0   Communications Equipment:

0

     26.4.0   Furnishings and Fixtures:

0

     26.98.0   Spare Parts Allowance (incl. in individual costs):

0

     26.99.0   Contingency Allowance (incl. in Acct 96):

0

 

 

27.0   Special Materials:

57.0995

     27.1.0   Primary coolant (PbLi) w/ 2.5x BOP factor:

56.0911

     27.2.0   Divertor coolant (Helium) incl. storage & pressurization subsystem:

0.00238281

     27.3.0   Intermediate Loop Coolant:

0

     27.4.0   Turbine cycle Working Fluids:

0

     27.98.0   Other Special Materials:

0.603591

     27.99.0   Argon Power Core Cover Gas:

0.402394

 

 

 

 

90.0   Total Direct Cost:

2547.3

 

 

91.0   Construction Facilities, Equipment and Services:

287.845

     91.1.0   Temporary Facilities:

0

     91.2.0   Construction Equipment:

0

     91.3.0   Construction Services:

0

 

 

92.0   Home Office Engineering and Services:

132.46

     92.1.0   Systems Engineering:

0

     92.2.0   Management Services:

0

     92.3.0   Quality Assurance:

0

     92.4.0   Safety and Environmental Engineering:

0

 

 

93.0   Field Office Engineering and Services:

132.46

     93.1.0   Construction Management:

0

     93.2.0   Inspection:

0

     93.3.0   Pre-Operational Training:

0

 

 

94.0   Owner's Cost:

465.009

     94.1.0   Project Administration:

0

     94.2.0   Staff Training and Plant Startup:

0

     94.3.0   Inventories and Spares Administration:

0

 

 

95.0   Process (design) Contingency:

0

 

 

96.0   Project Contingency:

522.283

 

 

97.0   Interest During Construction (IDC):

532.582

 

 

98.0   Escalation During Construction (EDC):

0

 

 

99.0   Total Project Capital Cost:

4619.94

 

 

 

 

Cost of Electricity (COE) [mills/kWh]:

58.3027

 

 

 Subcosts of COE normalized to mills/kWh:

 

... capital return:

35.8905

... operation and maintenance:

13.0946

... component replacement:

7.13895

... fuel cost:

0.178638

... decontamination and decommissioning:

2

 

 

 

Costing Algorithms          

 

Costing Algorithms: every account is multiplied by 'inflation(yearOrig, yearNew)' with a cost credit factor

Printed on Wed Jun  8 15:09:06 2011

 

 

c_20[1] = 20.0e6*pow(Pe/1000.0, 0.3)

c_20[2] = (20.01e6)*0.2

      Pe = (*Machine).net_electrical_power()

 

c_21[1] = 27.0e6*pow(Asite/1000.0, 0.2)

c_21[2] = 111.846e6*pow(Vrb/80.0e3, 0.62)

c_21[3] = 79.03e6*pow(Pet/1246.0, 0.5)

c_21[4] = 16.832e6*pow((Pth-Pet)/1860.0, 0.5)

c_21[5] = 22.96e6*pow(Pe/1000.0, 0.3)

c_21[6] = 22.00e6*pow(Pet/1246.0, 0.3)

c_21[7] = 0.34*c_21[2]

c_21[8] = 4.316e6*pow(Pe/1000.0, 0.3)

c_21[9] = 1.515e6*pow(Pe/1000.0, 0.3)

c_21[10] = 25.0e6*pow(Pfusion/1759.0, 0.3)

c_21[11] = 7.12e6

c_21[12] = 4.71e6*pow(Pe/1000.0, 0.3)

c_21[13] = 2.00e6

c_21[14] = 2.00e6

c_21[15] = 2.09e6

c_21[16] = 0.71e6

c_21[17] = 4.16e6

      Asite       = 1000.0 [acres]

      Pet   = (*Machine).gross_electrical_power()

      Pth   = (*Machine).thermal_power()

      Pfusion = (*Machine).fusion_power()

      Vrb   = (*Machine).volume() = 142404

      vol_reactor_bldg = (pow((ksihi + 9.0), 2.0)*6.0*etahi + 1.55e5)*cATfit

      ksihi       = (*Core).bounding_box(2, 'outer')

      etahi       = (*Core).bounding_box(3, 'outer')

      cATfit      = 138698.0/181655.0

 

c_22_1[1] = ( (*FWInboard).cost() + (*FWOutboard).cost() + (*BlanketInboard).cost() + (*BlanketOutboard).cost() )*16.0

c_22_1[2] = (*BlanketII).cost()*16.0

c_22_1[3] = DivCost*16.0

c_22_1[4] = ( (*RepHTShield)[0].cost() + (*RepHTShield)[1].cost() )*16.0

c_22_1[5] = ( (*HTShield)[0].cost() + (*HTShield)[1].cost() )*16.0

c_22_1[6] = pen_shielding*c_22_1[5]

c_22_1[7] = 0.0

      DivCost = for(int i=0; i<6; i++) { DivCost = DivCost + (*Div)[i].cost() }

 

c_22_2_1[1] = (*TFCoil).sub_cost(0)*16.0

c_22_2_1[2] = (*TFCoil).sub_cost(1)*16.0

c_22_2_1[3] = (*BuckingCylinder).cost()*16.0

c_22_2_1[4] = (*CryoDome).cost()*16.0

c_22_2_1[5] = 0.0*16.0

c_22_2_1[6] = ((*UpperCap).cost() + (*LowerCap).cost())*16

      (*TFCoil).sub_cost(0) = 2.27531e+06

      (*TFCoil).sub_cost(1) = 6.58568e+06

 

c_22_2[1] = ((*TFCoil).cost() + (*BuckingCylinder).cost() + (*UpperCap).cost() + (*LowerCap).cost() + (*CryoDome).cost())*16.0

c_22_2[2] = PFCoilCost*16.0

c_22_2[3] = 0.0

c_22_2[4] = 0.0

c_22_2[5] = 0.0

      PFCoilCost (main):   for(int i=0; i<36; i++) { PFCoilCost = PFCoilCost + (*PoloFCoil)[i].cost() }

      PFCoilCost (spares): for(int i=4; i<18; i++) { PFCoilCost = PFCoilCost + (*PoloFCoil)[i].cost() }

 

c_22_3_1[1] = (*Machine).cd_fast_wave_cost()

c_22_3_1[2] = (*Machine).cd_lower_hybrid_cost()

c_22_3_1[3] = 0.0

c_22_3_1[4] = (*Machine).cd_neutral_beam_cost()

 

c_22_3_2[1] = 0.0

c_22_3_2[2] = 0.0

c_22_3_2[3] = 0.0

 

c_22_3_3[1] = 0.0

c_22_3_3[2] = 0.0

 

c_22_3_4[1] = 0.0

c_22_3_4[2] = 0.0

c_22_3_4[0] = 16.0e6

 

c_22_3[1] = (*Machine).cd_cost()

c_22_3[2] = 7.0e6

c_22_3[3] = 0.0

c_22_3[4] = 16.0e6

 

c_22_4[1] = (cVV + cMP)*16.0

c_22_4[2] = 15.0e6

c_22_4[3] = 0.0

c_22_4[4] = 0.0

c_22_4[5] = cDuct*16.0

c_22_4[6] = 0.0

      cVV   = (*VacuumVessel)[0].cost() + (*VacuumVessel)[1].cost()

      cMP   = (*MPort).cost()

      cDuct = (*Duct)[0].cost() + (*Duct)[1].cost() + 2.0*(*Duct)[3].cost()

 

c_22_5[1] = 0.0

c_22_5[2] = 0.0

c_22_5[3] = 0.0

c_22_5[0] = support_structure_volume*0.20e6

      support_structure_volume = 0.20*fpc_vol

      fpc_vol = ((*FWInboard).volume() + (*FWOutboard).volume() + (*BlanketInboard).volume() + (*BlanketOutboard).volume() + (*BlanketII).volume() + (*RepHTShield)[0].volume() + (*RepHTShield)[1].volume() + 1.1*((*HTShield)[0].volume() + (*HTShield)[1].volume()) + (*VacuumVessel)[0].volume() + (*VacuumVessel)[1].volume() + DivVol + (*TFCoil).volume() + PoloFCVolume + PoloFCVolumeSpares) *16.0

      DivVol:             for(int i=0; i<6; i++)  { DivVol = DivVol + (*Div)[i].volume(); }

      PoloFCVolume:       for(int i=0; i<36; i++) { PoloFCVolume = PoloFCVolume + (*PoloFCoil)[i].volume() }

      PoloFCVolumeSpares: for(int i=4; i<18; i++) { PoloFCVolumeSpares = PoloFCVolumeSpares + (*PoloFCoil)[i].volume() }

 

c_22_6[1] = 125.0e6*pow(Pth*f_LiPb/2000, 0.55) + 0.01e6*Pth*f_LiPb + 110.0e6*pow(Pth*f_He/2000, 0.55)

c_22_6[2] = 0.0

c_22_6[3] = 0.0

c_22_6[4] = 0.0

      f_LiPb = 0.8

      f_He   = 0.2

 

c_22_7[1] = 0.0

c_22_7[2] = 0.0

c_22_7[3] = 0.0

c_22_7[0] = 15.0e6*pow(Pfusion/1758.0, 0.8)

 

c_22_8[1] = 0.0

c_22_8[2] = 0.0

c_22_8[3] = 0.0

c_22_8[4] = 0.0

c_22_8[5] = 0.0

c_22_8[6] = 0.0

c_22_8[7] = 0.0

c_22_8[0] = 70.0e6*pow(Pfusion/1758.0, 0.8)

 

c_22_9[1] = 0.0

c_22_9[2] = 0.0

c_22_9[3] = 0.0

c_22_9[4] = 0.0

c_22_9[0] = 100.0e6*pow(Pe/1000.0, 0.8)

 

c_22_10[1] = 0.0

c_22_10[2] = 0.0

c_22_10[3] = 0.0

c_22_10[4] = 0.0

c_22_10[5] = 0.0

c_22_10[0] = 60.0e6

 

c_22_11[1] = 0.0

c_22_11[2] = 0.0

c_22_11[3] = 0.0

c_22_11[4] = 0.0

c_22_11[5] = 0.0

c_22_11[0] = 8.0e6*pow(Pe/1000.0, 0.8)

 

c_23[1] = 0.0

c_23[2] = 0.0

c_23[3] = 0.0

c_23[4] = 0.0

c_23[5] = 0.0

c_23[6] = 0.0

c_23[7] = 0.0

c_23[8] = 0.0

c_23[0] = 360.0e6*pow(P_thermal/2000,0.8)*(eta_brayton/0.6)

      eta_brayton = (*Machine).gross_electrical_power()/Pth

 

c_24[1] = 0.0

c_24[2] = 0.0

c_24[3] = 0.0

c_24[4] = 0.0

c_24[5] = 0.0

c_24[6] = 0.0

c_24[7] = 0.0

c_24[8] = 0.0

c_24[9] = 0.0

c_24[0] = 187.0e6*pow(Pet/1200.0, 0.5)

 

c_25[1] = 0.0

c_25[2] = 0.0

c_25[3] = 0.0

c_25[4] = 0.0

c_25[5] = 0.0

c_25[6] = 0.0

c_25[0] = 89.17e6*((Pth-Pet)/2300.0)

 

c_26[1] = 0.0

c_26[2] = 0.0

c_26[3] = 0.0

c_26[4] = 0.0

c_26[5] = 0.0

c_26[6] = 0.0

c_26[0] = 85.0e6*pow(Pet/1200.0, 0.6)

 

c_27[1] = (PbLi_cost/1000.0)*m_LM_total*1.0e6

c_27[2] = (he_vol_in_div + he_vol_in_storage)*he_cost*4.215

c_27[3] = 0.0

c_27[4] = 0.0

c_27[5] = 0.6e6*pow(Pe/1000.0, 0.8)

c_27[6] = 0.4e6*pow(Pe/1000.0, 0.8)

      4.215  = ave He density between STP and 700C, 15 MPa

      he_cost = (*Div)[0].cost_unit_mass('He')

      m_LM_total = BOP*(m_LM + m_LM_div + m_LM_rhts + m_LM_hts)*16.0/1000.0

      m_LM = (*FWInboard).liquid_metal_mass() + (*FWOutboard).liquid_metal_mass() + (*BlanketInboard).liquid_metal_mass() + (*BlanketOutboard).liquid_metal_mass() + (*BlanketII).liquid_metal_mass()

      m_LM_div:  for(int i=0; i<6; i++) { m_LM_div  = m_LM_div  + (*Div)[i].liquid_metal_mass() }

      m_LM_rhts: for(int i=0; i<2; i++) { m_LM_rhts = m_LM_rhts + (*RepHTShield)[i].liquid_metal_mass() }

      m_LM_hts:  for(int i=0; i<2; i++) { m_LM_hts  = m_LM_hts  + (*HTShield)[i].liquid_metal_mass() }

      BOP = 2.5

      he_vol_in_div = div_vol*16.0*BOP*he_frac_div

 he_frac_div = 0.526

      div_vol: for(int i=0; i<6; i++) { div_vol = div_vol + (*Div)[i].volume(); }

      he_vol_in_storage = he_vol_in_div*0.10

      mhtt_vol = ((*FWInboard).volume() + (*FWOutboard).volume() + (*BlanketInboard).volume() + (*BlanketOutboard).volume() + (*BlanketII).volume() + (*RepHTShield)[0].volume() + (*RepHTShield)[1].volume() + pen_shielding*((*HTShield)[0].volume() + (*HTShield)[1].volume()) )*16.0*BOP

 

c_90 = c_20[0] + c_21[0] + c_22[0] + c_23[0] + c_24[0] + c_25[0] + c_26[0] + c_27[0]

 

c_91[1] = 0.0

c_91[2] = 0.0

c_91[3] = 0.0

c_91[0] = 0.1130*c_90

 

c_92[1] = 0.0

c_92[2] = 0.0

c_92[3] = 0.0

c_92[4] = 0.0

c_92[0] = 0.052*c_90

 

c_93[1] = 0.0

c_93[2] = 0.0

c_93[3] = 0.0

c_93[0] = 0.052*c_90

 

c_94[1] = 0.0

c_94[2] = 0.0

c_94[3] = 0.0

c_94[0] = 0.15*(c_90 + c_91[0] + c_92[0] + c_93[0])

 

c_95 = 0.0*c_90

 

c_96 = 0.1465*(c_90 + c_91[0] + c_92[0] + c_93[0] + c_94[0] + c_95)

 

c_97 = fidc*(c_90 + c_91[0] + c_92[0] + c_93[0] + c_94[0] + c_95 + c_96)

      fidc = 0.1303

 

c_98 = fedc*c_90

      fedc = 0.0

 

c_99 = c_90 + c_91[0] + c_92[0] + c_93[0] + c_94[0] + c_95 + c_96 + c_97 + c_98

 

cost_Of_Electricity = (c_AC + (c_OM + c_SCR + c_F) * pow(1.0 + y,Y)) / (8760.0*Pe*pf) + c_DD

** See input file costing.data for input parameters: Xrdr, Lecon, neutron_fluence_life, y, Y, pf, c_F, c_DD.

fcr = Xrdr/( 1.0 - pow(1.0+Xrdr, -Lecon))

c_AC = fcr*c_99

Pe = (*Machine).net_electrical_power()

c_OM = 80.0e6*pow(Pe/1200.0, 0.5)

FWB_life = neutron_fluence_life/nwlmax

nwlmax = (*Machine).neutron_wall_load('maximum')

c_SCR = (c_22_1[1] + c_22_1[3] + c_22_1[4] + c_22_3_1[0] + c_22_3_4[0] + c_22_4[5]) / (FWB_life/pf)

c_AC = fcr*c_99

 

coe_subcost[0] = c_AC                /(8760.0*Pe*pf)

coe_subcost[1] = c_OM*pow(1.0+y, Y)  /(8760.0*Pe*pf)

coe_subcost[2] = c_SCR*pow(1.0+y, Y) /(8760.0*Pe*pf)

coe_subcost[3] = c_F*pow(1.0+y, Y)   /(8760.0*Pe*pf)

coe_subcost[4] = c_DD

 

 

 

 

Part Compositions

 

Part Compositions for Tokamak Power Plant using SiC Blanket Module:

 

 

 

 

 

 

 

 

 

Part

Material

Volume Frac

Density Frac

Den (kg/m3)

Cost/unit mass

Cost Base Year

----------------------------------------------------------------------------------------------------------------------

FirstWallInboard

SiC-comp

0.73

0.95

3200

584.64

2009

FirstWallInboard

PbLi

0.27

0

8897

8.79

2009

FirstWallOutboard

SiC-comp

0.73

0.95

3200

584.64

2009

FirstWallOutboard

PbLi

0.27

0

8897

8.79

2009

BlanketInboard

SiC-comp

0.17

0.95

3200

584.64

2009

BlanketInboard

PbLi

0.83

0

8897

8.79

2009

BlanketOutboard

SiC-comp

0.17

0.95

3200

584.64

2009

BlanketOutboard

PbLi

0.83

0

8897

8.79

2009

BlanketII

SiC-comp

0.2

0.95

3200

584.64

2009

BlanketII

PbLi

0.77

0

8897

8.79

2009

BlanketII

W

0.03

1

19300

120.37

2009

Div1

RAFS-div

0.108

1

7800

111.77

2009

Div1

W

0.359

1

19300

120.37

2009

Div1

He

0.526

0

0.1786

70

2011

Div1

Void

0.07

0

0

0

2009

Div2

RAFS-div

0.108

1

7800

111.77

2009

Div2

W

0.359

1

19300

120.37

2009

Div2

He

0.526

0

0.1786

70

2011

Div2

Void

0.07

0

0

0

2009

Div3

RAFS-div

0.108

1

7800

111.77

2009

Div3

W

0.359

1

19300

120.37

2009

Div3

He

0.526

0

0.1786

70

2011

Div3

Void

0.07

0

0

0

2009

Div4

RAFS-div

0.108

1

7800

111.77

2009

Div4

W

0.359

1

19300

120.37

2009

Div4

He

0.526

0

0.1786

70

2011

Div4

Void

0.07

0

0

0

2009

Div5

RAFS-div

0.108

1

7800

111.77

2009

Div5

W

0.359

1

19300

120.37

2009

Div5

He

0.526

0

0.1786

70

2011

Div5

Void

0.07

0

0

0

2009

Div6

RAFS-div

0.108

1

7800

111.77

2009

Div6

W

0.359

1

19300

120.37

2009

Div6

He

0.526

0

0.1786

70

2011

Div6

Void

0.07

0

0

0

2009

RepHTShieldTop

SiC-comp

0.15

0.95

3200

584.64

2009

RepHTShieldTop

PbLi

0.1

0

8897

8.79

2009

RepHTShieldTop

B-FS

0.75

1

7800

35.54

2009

RepHTShieldBottom

SiC-comp

0.15

0.95

3200

584.64

2009

RepHTShieldBottom

PbLi

0.1

0

8897

8.79

2009

RepHTShieldBottom

B-FS

0.75

1

7800

35.54

2009

HTShieldInboard

SiC-comp

0.15

0.95

3200

584.64

2009

HTShieldInboard

PbLi

0.1

0

8897

8.79

2009

HTShieldInboard

W

0.05

1

19300

120.37

2009

HTShieldInboard

B-FS

0.7

1

7800

35.54

2009

HTShieldOutboard

SiC-comp

0.15

0.95

3200

584.64

2009

HTShieldOutboard

PbLi

0.1

0

8897

8.79

2009

HTShieldOutboard

B-FS

0.75

1

7800

35.54

2009

VacuumVesselMain

RAFS

0.13

1

9500

43.44

2009

VacuumVesselMain

Void

0.22

0

0

0

2009

VacuumVesselMain

WC

0.65

0.95

15600

34.39

2009

VacuumVesselOutboard

RAFS

0.3

1

9500

43.44

2009

VacuumVesselOutboard

Void

0.7

0

0

0

2009

TFMagnet

SS316

0.735174

1

7860

68.657

1992

TFMagnet

Nb3Sn

0.020899

1

7500

92.7

1992

TFMagnet

Cu

0.124391

1

7300

65.4

1992

TFMagnet

Inconel

0.0266081

1

8440

96.02

2009

TFMagnet

Polyamide

0.0264458

1

1920

16.516

1992

BuckingCylinder

RAFS

1

1

9500

43.44

2009

UpperCap

RAFS

1

1

9500

43.44

2009

LowerCap

RAFS

1

1

9500

43.44

2009

MaintenancePortOpening

TF-coil

1

1

7500

50.912

1992

PFCoil_0

PF-coil

1

1

7500

82.919

1992

PFCoil_1

PF-coil

1

1

7500

82.919

1992

PFCoil_2

PF-coil

1

1

7500

82.919

1992

PFCoil_3

PF-coil

1

1

7500

82.919

1992

PFCoil_4

PF-coil

1

1

7500

82.919

1992

PFCoil_5

PF-coil

1

1

7500

82.919

1992

PFCoil_6

PF-coil

1

1

7500

82.919

1992

PFCoil_7

PF-coil

1

1

7500

82.919

1992

PFCoil_8

PF-coil

1

1

7500

82.919

1992

PFCoil_9

PF-coil

1

1

7500

82.919

1992

PFCoil_10

PF-coil

1

1

7500

82.919

1992

PFCoil_11

PF-coil

1

1

7500

82.919

1992

PFCoil_12

PF-coil

1

1

7500

82.919

1992

PFCoil_13

PF-coil

1

1

7500

82.919

1992

PFCoil_14

PF-coil

1

1

7500

82.919

1992

PFCoil_15

PF-coil

1

1

7500

82.919

1992

PFCoil_16

PF-coil

1

1

7500

82.919

1992

PFCoil_17

PF-coil

1

1

7500

82.919

1992

PFCoil_18

PF-coil

1

1

7500

82.919

1992

PFCoil_19

PF-coil

1

1

7500

82.919

1992

PFCoil_20

PF-coil

1

1

7500

82.919

1992

PFCoil_21

PF-coil

1

1

7500

82.919

1992

PFCoil_22

PF-coil

1

1

7500

82.919

1992

PFCoil_23

PF-coil

1

1

7500

82.919

1992

PFCoil_24

PF-coil

1

1

7500

82.919

1992

PFCoil_25

PF-coil

1

1

7500

82.919

1992

PFCoil_26

PF-coil

1

1

7500

82.919

1992

PFCoil_27

PF-coil

1

1

7500

82.919

1992

PFCoil_28

PF-coil

1

1

7500

82.919

1992

PFCoil_29

PF-coil

1

1

7500

82.919

1992

PFCoil_30

PF-coil

1

1

7500

82.919

1992

PFCoil_31

PF-coil

1

1

7500

82.919

1992

PFCoil_32

PF-coil

1

1

7500

82.919

1992

PFCoil_33

PF-coil

1

1

7500

82.919

1992

PFCoil_34

PF-coil

1

1

7500

82.919

1992

PFCoil_35

PF-coil

1

1

7500

82.919

1992

CryoDome

RAFS-cryost

0.18

1

7800

28.06

2009

CryoDome

Void

0.82

0

0

0

2009

MaintenancePort

B-FS

0.13

1

7800

35.54

2009

MaintenancePort

Void

0.22

0

0

0

2009

MaintenancePort

WC

0.65

0.95

15600

34.39

2009

UpperVVDuctBottomWall

B-FS

0.13

1

7800

35.54

2009

UpperVVDuctBottomWall

Void

0.22

0

0

0

2009

UpperVVDuctBottomWall

WC

0.65

0.95

15600

34.39

2009

UpperVVDuctTopWall

B-FS

0.13

1

7800

35.54

2009

UpperVVDuctTopWall

Void

0.22

0

0

0

2009

UpperVVDuctTopWall

WC

0.65

0.95

15600

34.39

2009

UpperVVDuctSideWall

B-FS

0.13

1

7800

35.54

2009

UpperVVDuctSideWall

Void

0.22

0

0

0

2009

UpperVVDuctSideWall

WC

0.65

0.95

15600

34.39

2009

 

 

 

2D CAD drawing – PNG

 

 

 

 

2D CAD drawing – TIF