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ABSORS-CAP-FTABSORS-CAP-FTSABSORS-HIR-FPLRABSORS-HIR-FTABSORS-HIR-FTSCompression ChillersHERM-CENT-CAP-FTis like ABSOR1-CAP-FT for a solar-driven absorption chiller.accepts as input the U-name of a CURVE-FIT instruction thatdefines a linear or quadratic equation. That equation willbe used to express the capacity correction factor of asolar-driven absorption chiller as a function of thetemperature of the hot water from the solar equipment.is like ABSOR1-HIR-FPLR for a absorption chiller.is like ABSOR1-HIR-FT for a absorption chiller.accepts the U-name of a CURVE-FIT instruction that definesa linear or quadratic equation. That equation will be usedto express the heat input ratio correction factor of asolar-driven absorption chiller as a function of thetemperature of the hot water from the solar equipment.accepts the U-name of a CURVE-FIT instruction that definesa bi-linear or bi-quadratic equation. That equation willbe used to express the correction factor for the capacityof a hermetic centrifugal compression chiller as a functionof the exiting chilled water temperature and entering watertemperature (see -CAP-FT). It is normalized to 1.0 atdesign conditions.HERM-CENT-EIR-FPLR accepts the U-name of a CURVE-FIT instruction that definesa linear or quadratic equation. That equation will be usedto express the electric input ratio correction factor of ahermetic centrifugal compression chiller as a function ofits part-load ratio (see -EIR-FPLR).HERM-CENT-EIR-FTHERM-REC-CAP-FTHERM-REC-EIR-FPLRHERM-REC-EIR-FTOPEN-CENT-CAP-FTaccepts the U-name of a CURVE-FIT instruction that definesa bi-linear or bi-quadratic equation. That equation willbe used to express the electric input ratio correctionfactor of a hermetic centrifugal compression chiller as afunction of exiting chilled water temperature and enteringwater temperature (see -EIR-FT).is the same as HERM-CENT-CAP-FT, but for a hermeticreciprocating compression chiller.is the same as HERM-CENT-EIR-FPLR, but for a hermeticreciprocating compression chiller.is the same as HERM-CENT-EIR-FT, but for a hermeticreciprocating compression chiller.is the same as HERM-CENT-CAP-FT, but for an opencentrifugal compression chiller.V.41 (Revised 5/81)
OPEN-CENT-EIR-FPLR is the same as HERM-CENT-EIR-FPLR, but for an opencentrifugal compression chiller.OPEN-CENT-EIR-FTOPEN-REC-CAP-FTOPEN-REC-EIR-FPLROPEN-REC-EIR-FTDouble-Bundle ChillersDBUN-CAP-FTDBUN-CAP-FTRISEDBUN-EIR-FPLRDBUN-EIR-FTDBUN-EIR-FTRISEis the same as HERM-CENT-EIR-FT, but for an opencentrifugal compression chiller.is the same as HERM-CENT-CAP-FT, but for an openreciprocating compression chiller.is the same as HERM-CENT-EIR-FPLR, but for an openreciprocating compression chiller.is the same as HERM-REC-EIR-FT, but for an openreciprocating compression chiller.accepts the U-name of a CURVE-FIT instruction that definesa bi-linear or bi-quadratic equation. The equation will beused to describe the capacity of a double-bundle chiller asa function of exit water temperature and entering condenserwater temperature. This function should be normalized sothat f(CHILL-WTR-T, DBUN-COND-T-ENT) = 1.0. When in heatrecovery mode, DBUN-COND-T-ENT is used in place of the actualentering condenser water temperature to eliminate theeffect of the entering water temperature on the capacity.accepts the U-name of a CURVE-FIT instruction that definesa linear or quadratic equation. That equation definesdouble-bundle chiller capacity correction factor as afunction of the difference between the exiting condenserwater temperatures in the heat recovery and non-heatrecoverymodes. It is normalized so that if 6T = 0, it = 1.accepts the U-name of a CURVE-FIT instruction that definesa linear or quadratic equation. The equation will describethe electric-input ratio of a double-bundle chiller as afunction of part-load ratio.accepts the U-name of a CURVE-FIT instruction that definesa bi-linear or bi-quadratic equation. The equation will beused to describe the electric input ratio adjustment factorof a double-bundle chiller as a function of exit water temperatureand entering condenser water temperature. Thisfunction should be normalized so that f(CHILL-WTR-T, DBUNCOND-T-ENTJ = 1.0. When in the heat-recovery mode, DBUNCOND-T-ENT is used to eliminate the effect of the enteringcondenser water temperature on the electric input ratio.accepts the U-name of a CURVE-FIT instruction that definesa linear or quadratic equation. The equation will expresselectric input ratio as a function of "TRISE" (seeDBUN-CAP-FTRISE).V.42 (Revised 5/81)
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Lawrence BerkeleyL r tLos Alamos Sc
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NOTICEThe explicit function of this
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USER EVALUATIONDOE-2.1 REFERENCE MA
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DOE-2 REFERENCE MANUALTABLE OF CONT
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PageB. LDL INPUT INSTRUCTIONS. . .
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Page5.6.SYSTEM Control Strategy . .
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C. SOLAR SIMULATOR ..1. Introductio
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B. MANUAL AND TAPE NOTATIONS1. Form
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ABSTRACTThis document describes the
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algorithms, as modified by Consulta
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DOE-2 Staff PersonnelPrincipal Inve
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STATUS AND AVAIL.ABILITYMay 1981Thi
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SERVICE BUREAUMISSOURIMcDonnell-Dou
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I. INTRODUCTIONThis Reference Manua
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B. PROGRAM PACKAGEThe DOE-2 program
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2. BDL ProcessorThe ~DL Processor s
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thermal energy consumption of the b
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LLNLNBSLDNECAPNOAAORNLPDLSDLSOLMETT
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II.BUILDING DESCRIPTION LANGUAGEA.
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Rules: 1. Although a U-name may be
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The LIKE command will duplicate onl
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9. Typical Run Instruction Sequence
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The second approach involves the us
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Ex amp le3. It is not possible, in
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The individual instructions are des
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B. INSTRUCTION DESCRIPTIONSIn the p
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2. The DIAGNOSTIC instruction may b
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not the user will find a comment th
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Whenever the U-name of a parametric
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Examp le:SET-DEFAULT FOR WINDOwWIDT
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----rr--cco-==----- = WEEK-SCHEDULE
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5. A comma and/or one or more blank
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Ex amp le 2WEEK-2 = WEEK-SCHEDULE D
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------TIO~-n~a~m~e*~-------;SCHEDUL
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Note: A DOE-2 weather year contains
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The control processor examines all
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TABLE OF CONTENTS (Cont.)Page20.2l.
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1. Preparation of Inputa. Prepare B
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It is strongly recommended that the
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3. L imitati onsFor DOE-2, the maxi
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of the space coordinate system is d
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. Space Coordinate SystemThe locati
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. Locating and Orienting Building S
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BUild:
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Surface Y-Axis X=12Y= 2I~ 1----12--
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B. LDL Input InstructionsThis secti
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2. To run the LOADS program for Dec
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3. DESIGN-DAYNote: If the user wish
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DEWPT-HIDEWPT-LODHOUR-HIDHOUR-LOWIN
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U-name: DESIGN-DAY or 0-0 (User Wor
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This can produce very strange resul
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Example:The data entry below descri
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5. BUILDING-SHADEThe BUILDING-SHADE
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Building...... ---/ ....... ./1/ ..
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6. BUILDING-RESOURCEThe BUILDING-RE
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BUILDING-RESOURCE or B-R(User Works
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COND ITIONS or SPACE ins truction.
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Return Air PlenumSupply Air."':0-·
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EQUIP-SENSIBLE). If both EQUIPMENT-
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SOURCE-SENSIBLESOURCE-LATENTINF-SCH
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NEUTRAL-ZONE-HTshould be assigned a
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The user may speci fy both types of
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0 name"; SPACE-CONDITIONS or S-C (U
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8. SPECIFYING EXTERIOR WALLS, EXTER
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U - name = CONSTRUCTIONU-VALUE = nu
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.~o~D'.:::itf)IrUJ>
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Outside surface resistanceTable 8De
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~o.CODs/weoO"'lffscliption4·in fac
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Table 27 Transfer Function Coeffici
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9. SPECIFYING INTERIOR WALLS, INTER
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Table 29Transfer Function Coefficie
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10. MATERIALThe MATERIAL instructio
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U-name*MATERIAL or MATInputKeyword
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THICKNESSRu 1 es:1.2.3.4.5.6.7.The
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____ :-;-_-,;:-_____ = LAYERS or LA
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EXAMPLE U-VALUES FOR SOME CONSTRUCT
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ABSORPTANCE for Various Exterior Su
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Rules:Examples:1. Either LAYERS or
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13. GLASS-TYPEThis instruction is u
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The conductance given in glass manu
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TABLE IIL1 (cont)DefaultU-Va 1 ue c
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U-name*GLASS-TYPE or G-T(User Works
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TOP-FLOOR = SPACEFLOOR INTERIOR-WAL
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xYZAZl~IUTHAREAVOLUNEare the coordi
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__ -;;--::-::=;:;--______ = SPACE o
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INF-COEFspecifies an infiltration f
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SOLAR-FRACTIONFRONTBACKLEFTRIGHTTOP
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NWALL = EXTERIOR-WALLCONSTRUCTIONGN
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16. WINDOWThis instruction is used
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U-name= WINDOW or WI (User Workshee
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ConstructionINF-COEFl. Door-Residen
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18. INTERIOR-WALLThe INTERIOR-WALL
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TILTRules:solar radiation is absorb
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0 name= INTERIOR-WALL or I-W (User
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WIDTHLOCATIONCONSTRUCTIONMULTIPLIER
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Rules:Example:this subject in Ref.
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20. LOADS-REPORTThis instruction de
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LOADS-REPORT or L-R(User Worksheet)
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21. HOURLY-REPORT.The HOURLY-REPORT
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* Mandatory entry, if HOURLY-REPORT
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___...,,-,:-:-:=:;:,----____ :U-nam
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VARIABLE-TYPE = GLOBAL(cont)VARIABL
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VARIABLELISTNumberVariablein FCRT
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VARIABLE-LI STNumberVARIABLE-TYPE =
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VARIABLE-LISTNumber12345678Variable
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C. ALTERNATIVE LOAD CALCULATION MET
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temperature. It should be noted tha
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Therefore, if the user is starting
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TABLE III.2 (Cont.)Custom (a) First
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NOTE:When specifying U-names in a l
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There is a hierarchy of libraries t
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walls defined in the LAYERS instruc
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II!USRLi8 ,n SAVLIBIIL ____________
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EXTERIOR-WALL, INTERIOR-WALL, UNDER
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L D L PRO C E S S 0 R I N PUT D A T
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BOlUB containsuser-specified dataan
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Warning Message (3)Meaning:User Act
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Meaning:User Action;All the walls i
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5.6.SYSTEM Control Strategy .......
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IV.SYSTEMS PROGRAMA. INTRODUCTION1.
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daily, and weekly operating schedul
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I TITLE IISET-DEFAULT IlpARAMETERII
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Prepare and enter a ZONE instructio
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TABLE IV.1SDL CommandDAY-RESET -SCH
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SYSTEM-TYPECode-wordSUMSZRHMZSDDSSZ
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Table IV.2 Cont.SYSTEM-TYPECode-wor
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3. Explanation of System Options1)2
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18)19)20)21 )trying to change the s
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. Single-Zone Fan System w/Optional
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TABLE IV.4 -ContinuedCommandSYSTEM-
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c. Mul tizone Fan System (MZS)OUTSI
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CommandZONE-CONTROLZONE-AIRZONESYST
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TABLE IV.5 -ContinuedCommandSYSTEM-
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Table IV.6 shows the commands and k
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TABLE IV.6 - ContinuedCommandSYSTEM
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e. Ceiling Induction System (SZCI)O
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TABLE IV.7CommandZONE-CONTROLZONE-A
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TABLE IV.7 -ContinuedCommand Keywor
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CommandZONE-CONTROLTABLE I V .BAPPL
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TABLE I V.9APPLICABILITY OF 'COMMAN
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h. Floor Panel Heating System (FPH)
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i. Two-Pipe Fan Coil System (TPFC)2
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j. Four-Pipe Fan Coil System (FPFC)
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TABLE IV.12 - ContinuedCommand Keyw
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Temperature control is achieved by
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1. Four-Pipe Induction Unit System
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Table IV.1S shows the commands and
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TABLE IV.I5 - ContinuedCommandSYSTE
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n. Constant-Volume Reheat Fan Syste
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TABLE IV.16 - ContinuedCommandSYSTE
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o. Unitary Hydronic Heat Pump Syste
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p. Heating and Ventilating System (
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TABLE IV.18 - ContinuedCorrunan dSY
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TABLE IV.19CorrnnandZONE-CONTROLZON
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TABLE IV.19 -SYSTEMCommandContinued
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A number of optional features and c
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CommandZONE-CONTROLTABLE IV.20APPLI
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s. Packaged Single Zone Air Conditi
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TABLE IV.21 - ContinuedCommandSYSTE
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t. Packaged Multizone Fan System (P
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TABLE IV.22 - ContinuedCommandKeywo
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TABLE IV.23 - ContinuedCommandKey.v
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PTAC with Air-to-Air Heat Pump:This
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TABLE IV.24 - Continued__ ~C~o~mm~a
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5. SYSTEM Control Strategya. Genera
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THROTTLING-RANGE. The cooling set p
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TABLE IV.25 ContinuedSYSTEM-TYPETPI
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COOL-CONTROL = WARMESTZONE AZONE BZ
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Economizer:For SYSTEM-TYPE equals S
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Cautionary Warnings:1. If the user
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. Examplesi. Example Control Strate
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TABLE IV.26 ContinuedMIN- Zone Cool
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Graphically" this example strategy
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For those ZONEs other than the WARM
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air ducts to the ZONE. If the user
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Note: The preceding diagram is vali
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TABLE IV.27MAJOR CONTROL STRATEGIES
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(4) Specify COOL-TEMP-SCH in the ZO
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iii. Example Control Strategy for S
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(7) The desired control strategy fo
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iv. Example Control Strategy for SY
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Graphically, the example strategy f
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Procedure:(1) Specify SYSTEM-TYPE =
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hourly values in the referenced DAY
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Graphically, the Cycling Forced Air
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v. Control Strategy for SYSTEM-TYPE
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Graphically, the strategy for UVT l
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vii. Example Control Strategies for
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temperatures will be used to modula
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viii. Example Control Strategies fo
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'""~'"~'" c.EJ-- '"~«110 0100 0Win
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This establishes the hourly tempera
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TABLE IV.29MAJOR CONTROL STRATEGIES
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(3) Specify COOL-TEMP-SCH in the ZO
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The following is an example of data
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SP-2ZONE DESIGN-HEAT-T = 68DESIGN-C
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COOl-MA.XiHeat'''''1'''00CoolingSet
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DDE-2Coolingc;- SetpointThermo~tatS
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For multi zone and dual-duct system
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S-3; SYSTEM Keyword ; ValueKeyword
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SUPPLY-LOOUTSIDE-HIOUTSIDE-LONotes:
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___ -;-;--_______ =U-nameDAY-RESET-
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108Z642Fig. IV.17.00 2 4 6 8 10XDef
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POOR PRACTICE GOOD PRACTICE GOOD PR
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INPUT SYSTEMSCOOL-CAP-CURVE = CURVE
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__ ---;-;---:;:-,=~-- ; CURVE-F IT
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AIR-CHANGES/HRCFM/SQFTRATED-CFMtemp
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The exhaust fan is assumed to be co
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4. ZONE-CONTROLThe function of the
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Code WordTHERMOSTATICTABLE IV.30BAS
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U-name= ZONE-CONTROL or Z-C (User W
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TABLE IV.32Code-WordCONDITIONEDUNCO
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Warning: When simulating a variable
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Note: This keyword should normally
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6. SYSTEM-CONTROLThe function of th
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If the user has not done so already
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COOL-CONTROLCOOL-SET-TCOOL-RESET-SC
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that the ductwork condenses the hum
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U-narne= SYSTEM-CONTROL or S-C (Use
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7. SYSTEM-AIRThe function of the SY
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If MIN--AIR-SCH is used, the value
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DUCT-AIR-LOSSDUCT-DELTA-TMAX-OA-FRA
Page 473 and 474:
SCHEDULE hours(clock time)1,6(midni
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8. SYSTEM-FANSThe function of the S
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120.0 ,--,r----,-----r----.---,--."
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Table IV.36SYSTEM-TYPEDefaultValue
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RETURN-STATICRETURN-EFFMAX-FAN-RATI
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U-name= SYSTEM-FANS or S-FANS (User
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9. SYSTEM-TERMINALThe function of t
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_____-------: SYSTEM-TERMINAL or S-
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MAX-FLUID-TFLUID-HEAT-CAPWhen the u
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11. SYSTEM-EQUIPMENTFor the simulat
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HeatingCBF ~EIRT ~QE ~COIL-BF * COI
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In both the preceeding examples bot
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TABLE IV.39 (cont)DefaultDefault Cu
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COOL-SH-CAPis the sensible heat rem
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A = coil entering condition,B = coi
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MAX-COND-RCVRYCRANKCASE-HEATCRANKCA
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RATED-HEIR-FCFM *ELEC-HEAT-CAPMIN-H
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__ --,,-=-==-___ = SYSTEM-EQUIPMENT
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InputRangeKeyword Abbrev. User Inpu
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12. SYSTEMThe function of the SYSTE
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Code-WordTABLE IV.40SYSTEM-TYPEGene
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TABLE IV.42Default Heating Sources
Page 517 and 518:
Code-WordDIRECTDUCTPLENUM-ZONESTABL
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U-name= SYSTEM or SYST (Us er Works
Page 521 and 522:
13. PLANT-ASSIGNMENTA special featu
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14. SYSTEMS-REPORTThe function of t
Page 525 and 526:
TABLE IV.45 (contd)SS-GSS-HSS-ISS-J
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15. HOURLY-REPORTThe HOURLY-REPORT
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16. REPORT-BLOCKThe REPORT-BLOCK in
Page 531 and 532:
TABLE IV.46VARIABLE-TYPE = GLOBALV
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VARIABLE-LISTNumberVARIABLE-TYPE =
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VARIABLES BYSYSTEM-TYPE FOR VARIABL
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VARIABLES BY SYSTEM-TYPE FOR VARIAB
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TABLE IV.48VARIABLE-TYPE = U-name o
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VARIABLE-TYPE = U-name of SYSTEM (c
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Page 545 and 546:
Page 547 and 548:
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TABLE IV.49VARIABLE-TYPE = U-name o
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Page 553 and 554: d. heating coil design capacitye. c
Page 555 and 556: design routine will change MAX-SUPP
Page 557 and 558: sensible cool ing capacities and th
Page 560 and 561: V. PLANT EQUIPMENT SIMULATION PROGR
Page 562 and 563: Only one configuration of building
Page 564 and 565: The primary purpose of the plant is
Page 566 and 567: PART-LOAD-RATIOPLANT-PARAMETERSCURV
Page 568 and 569: B. PDL INPUT INSTRUCTIONS1. PLANT-E
Page 570 and 571: U-namePLANT-EQUIPMENTTYPESIZEAny un
Page 572 and 573: This page is blank intentionally.V.
Page 574 and 575: As an example, if three 100-ton one
Page 576 and 577: 5. If a LOAD-ASSIGNMENT instruction
Page 578 and 579: 0 name; PLANT-EQUIPMENT+ or P-E (Us
Page 580 and 581: TABLE V.4Equipment PART -LOAD-RATIO
Page 582 and 583: PART-LOAD-RATIO or P-L-R(User Works
Page 584 and 585: TABLE V.5PLANT-PARAMETERS KEYWORDSC
Page 586 and 587: TABLE V.5 (cont)Entering stearn tem
Page 588 and 589: OPEN-REC-COND-PWROPEN-REC-COND-TYPE
Page 590 and 591: TWR-TEMP-CONTROLTWR-WTR-SET-POINTTW
Page 592 and 593: DHW-HEATER-FUELELEC-DHW-LOSSaccepts
Page 594 and 595: PumpsCCIRC-DESIGN-T-DROPCCIRC-HEADC
Page 596 and 597: KeywordAbbrev.User InputInputDesc.D
Page 598 and 599: InputRangeKeyword Abbrev. User Inpu
Page 600 and 601: (-EIR-FT)(-EIR-FPLR)Elec inFor the
Page 602 and 603: This page is blank intentionally.V.
Page 607 and 608: TABLE V.6 - CONTINUEDKe~ymrd Indeee
Page 609 and 610: DieselDIESEL-EXH-FPLRDIESEL-I/O-FPL
Page 611 and 612: EQUIPMENT-QUAD(E-Q)(User Worksheet)
Page 613 and 614: InputRan~eKeyword Abbrev. User Inpu
Page 615 and 616: 5. LOAD-ASSIGNMENTThe LOAD-ASSIGNME
Page 617 and 618: PLANT-EQUIPMENT; UTILITYNUMBER ; 10
Page 619 and 620: In the example above, the electric
Page 621 and 622: KeywordTYPEOPERATl ON-MODELOAD-RANG
Page 623 and 624: PRED-LOAD-RANGEfor the equipment no
Page 625 and 626: where QH, QC, and QE are, respectiv
Page 627 and 628: PRED-LOAD-RANGE = 2LOAD-ASSIGNMENT
Page 629 and 630: 7. HEAT-RECOVERYThe function of the
Page 631 and 632: Rules:1. Table V.11 illustrates the
Page 633 and 634: The correct input for achieving thi
Page 635 and 636: HEAT-RECOVERY or HEAT-R(User Worksh
Page 637 and 638: HEAT-STORE-SCHCOOL-STORE-SCHHTANK-L
Page 639 and 640: For example, a compression chiller
Page 641 and 642: $DEFINE CHARGING SCHEDULES$TANK-OS
Page 643 and 644: HOT-TA~= PLANT-EQUIPMENTTYPE HTAI'l
Page 645 and 646: ENERGY-STORAGE or E-S(User Workshee
Page 647 and 648: TABLE V.12ENERGY-COST Instruction R
Page 649 and 650: MIN-MONTHLY-CHGMIN-PEAK-LOADby DOE
Page 651 and 652: It is recognized that the program m
Page 653 and 654: ENERGY-COST or E-C(User Worksheet)K
Page 655 and 656:
SITE-FACTORspecifies a number that
Page 657 and 658:
11. REFERENCE-COSTSIf the user wish
Page 659 and 660:
REFERENCE-COSTS or R-C(User Workshe
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13. PLANT-ASSIGNMENTThe special fea
Page 663 and 664:
14. PLANT-REPORTThe PLANT-REPORT in
Page 665 and 666:
TABLE V.14PLANT Program ReportsCode
Page 667 and 668:
----.c;-;-------- ; HOURLY-REPORT o
Page 669 and 670:
------c-:-;------- = REPORT-BLOCK o
Page 671 and 672:
VARIABLELIST123456789101112131415
Page 673 and 674:
TABLE V. 21VARIABLE-TYPE = HERM-CEN
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TABLE V.24VARIABLE-TYPE = DIESEL-GE
Page 677 and 678:
TABLE V.28VARIABLE-TYPE = CTANK-STO
Page 680 and 681:
VI.ECONOMICS PROGRAMA. INTRODUCTION
Page 682 and 683:
The present value of the energy cos
Page 684 and 685:
4. Instruction SequenceIn general,
Page 686 and 687:
U-name= COMPONENT-COST or C-CInputR
Page 688 and 689:
allowed to default to 1.0. The UNIT
Page 690 and 691:
ENER GY -COSTspecifies a list, up t
Page 692 and 693:
C. ECONOMIC EVALUATION METHODSDOE-2
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3. The investment statistics that d
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LA-7689-M Ver. 2.1LBL-S706 Rev. 1DO
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Part 2CHAPTER VII.REPORTSPageVI1.1A
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A. INTRODUCTION ....1. Standard Rep
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B. LOADS OUTPUT REPORT DESCRIPTIONS
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EXAMPLE BuILDING JA, CHICAGOOUE-2.t
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EX4HPLE 8UILDING lA, CHICAGO DOE-2.
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EXAMPLE BUILDING ~A, CHICAGO om:-2.
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l:XAMPLE BJILQINt; lA, CHICAGO 00[-
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EXAMPLE BUILOING ]A, CHICAGO 00[-2.
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ExA~PLE BUILDING 3At CHICAGO OOE-2.
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EXAMPLE au Il DING 3A, CHICAGO00E-2
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EXAMPLE BUILDING 3A, CHICAGO DOE-2.
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..NZ 0~ ~"N·~"~;; NW~ Z " 00~ ~~ Z
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EXAMPLE BUILDING 3A, CHICAGOREPORT-
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REPORT LV-K - WEIGHTING FACTOR SUMM
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REPORT LS-A - SPACE PEAK LOADS SUMM
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REPORT LS-B - SPACE PEAK LOAD COMPO
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EXAMPLE BUILDING 3A, CHICAGO OOE-2.
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EXAMPLE BUILDING 3A, CHICAGO DOE-2.
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HAMPLE BUIlDING 3A, CHICAGO 00E-2.1
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EXAMPLE BUILDI~~ lA, CHICA~O OOE-2.
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EU"PLE lIuILOINt; lA, ('HOoGO OOf-2
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To illustrate how the entries in th
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SIMPLE StrUCTURE RUI'. 3A. (I·ICA~
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SIMPLE ~TRUCTURE RUr.. ,A, nle"";~J
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SIMPLE Srl
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SIMPLF STRUCTURE RU~!A, C~ICAGJDOE-
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12. BUILDINGLATENTCLG LOAD13. BUILD
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.EXAMPLE BUILOING 3A, CHICAGO OOE-2
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EXAMPLE BUILDING U, CHICAGOODE-l.t
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, 0 l P R ~ C E S SOH N P U f OAr A
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7. COOLING CAPACITY (KBTU/HR) is ei
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EXAMPLE 8UILDING 3A, CHICAGO DOE-2a
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EXA~plEBulLOING )A, CHICAGO00E-2.1U
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EXAMPlE 8UllOIN~ 311., CHICAGO DOE-
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EXAMPLE BU!LOING 3A, CHICAGO DOE-2a
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eXANPle 8U(lDtN~ lAt CHICAGO OOE-2.
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EXAMPLE BUiLDING 3A, CHICAGO OOE-2.
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EXAMPLE U~ILDING lA, CHICAGO OOE-2.
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EXAMPLE BUllOING 3A, CHICAGO OOE-2.
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EXAMPLE BUlLOIN~ 340, CHICAGO DOE-2
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REPORT SS-G - ZONE MONTHLY LOADS SU
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EXAMPLE BuiLDING 3A, CHICAGO00E-2.1
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EXAMPLE BUILDING 3A, CHICAGOODE-Z.l
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EXAMPLE BUJLDING 3A, CHICAGO OOE-2.
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EXAMPLE BUILDING 3A, CHICAGn 00E-2.
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S{/-l"lE STIlUUUJ.l.[ RUN)A, CH(AGU
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SI~PLE srpU(TUR[ PU~ ~A, CHICAGU DO
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CC===C=>/'I>/'I>/'I>/'I"'>/'I.r~rr~
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• 0 LPRO C E S 5 0 RN "u rD 0\ ,
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EXAMPLE 8UILDING lA, CHICAGOOOE-2.1
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EXAHPLE BUILOING )11"CHICAGODOE-2.1
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EXAHPlE aUILDING lA, CHICAGO00E-2.1
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EXAHPLE BUILDING 3A, CHICAGO 00[-2.
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REPORT PS-A - PLANT ENERGY UTILIZAT
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EXAMPLE 6ulLDI~~lA, CHICAGOKEPQRT-
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EXAHPLE t3UILD!NG 3A, CHICAGO QOE-2
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REPORT PS-C - EQUIPMENT PART LOAD O
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REPORT PS-D --PLANT LOADS SATISFIED
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EXAMPLE DUILDING 3A, CHICAGO 00E-2.
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EXAMPLE BUILDING lA, CHICAGOREPORT-
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EXAMPLE BUILDING JA, CHICAGOOOE-2.1
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EXAMPLE 8UIlOING 3A, CHICAGO OOE-2.
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EXAMPLE BuILOIN~3A, CHICAGOREPORT-
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EXAMPLE BUILDING JA, CHICAGOREPURT-
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EXAMPLE BUILOING- 3A, CHICAGO OOE-2
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E D L PRO C E 5 S 0 R N pur D A T A
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UNIT MINOROVERHAUL COSTMI NOR OVERH
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. ES-A: ANNUAL ENERGY AND OPERATION
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ES-B:LIFE-CYCLE BUILDING AND PLANT
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ES-C:ENERGY SAVINGS, INVESTMENT STA
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EXAHPlE BUILDING lA, CHICAGO onE-2.
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DOE-2.1E Documentation Update: Weat
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CRevised April, 1999 VIII.12DOE-2.1
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Revised April, 1999 VIII.22DOE-2.1E
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VIII.WEATHER DATAA. INTRODUCTIONThe
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TABLE VIIL1WEATHER DATAData for add
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DOE-2 LATITUDE LONGITUDE TIME ZONE
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This page has been deleted intentio
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Crescent CityI1 I. Yreka.OrleansI11
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Zone Representative Cities DOE-2 Fi
Page 885 and 886:
D. SOLAR RADIATION DATANone of ther
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SOLMET10 SOLARSOLA","AOIAtION VAlU
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APPENDIX VI I LANOAA TEST REFERENCE
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The first step in the selection pro
Page 893 and 894:
B. MANUAL AND TAPE NOTATIONS1. Form
Page 895 and 896:
D. INVENTORYWBAN NUMBER STATION SEL
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XX XX X XXX. -oSLRRADXXXXVNoNoI
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TAPETAPEFIELD NUMBER POSITIONS ELEM
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TAPEFIELD NUMBERTAPEPOSiTIONSELEMEN
Page 903 and 904:
I NTkOlJUCTl ONSolar radiation and
Page 905:
Co 1 umn77-8182-8586-9394-98* 99-10
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DOE-2 Weather ProcessorThe weather
Page 910 and 911:
Columns Format Description19-24 R T
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7-12 L A code-word specifying the o
Page 914 and 915:
Example 2:To EDIT for August 15 fro
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APPENDIX VIILDMISCELLANEOUS WEATHER
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-0",z",0Uz·0'" _if>lew",a. i'!'"~~
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C. CTI WEATHER TAPES1. GeneralThe C
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YEAR 19b9 TRY Al~AN'. NEW 'ORMONrHl
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A. LDLCommand Word Abbreviation Pag
Page 927 and 928:
KeywordsDIV I DEDRYBULB-HIDRYBULB-L
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Keywords Abbreviation Associated Co
Page 931 and 932:
Code-Words Associated KexwordsAIR-C
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B. SOLCommand Word Abbreviation ~AB
Page 935 and 936:
KeywordDEFROST-DEGRADEDEFROST-TDESI
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Keyword Abbreviation Associated Com
Page 939 and 940:
Code-WordALL-SUMMARYBI-LINEARBI-QUA
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Code-WordAssociated KeywordSS-DSUMM
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Page 947 and 948:
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KeywordTWR-FAN-CONTROLTWR-FAN-ELEC-
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Code-WordsMETHANOLNATURAL-GASONE-SP
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KeywordAssociatedCommand Word Assoc
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KeywordOUT-I through OUT-12PARAS-KW
Page 957 and 958:
Code-WordLIQ-SOURCEMONTHLYNON-SPARA
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Input or Output Input to OutDut fro
Page 961 and 962:
Input or Output Input to Output fro
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E. EDLCorrrnand Word Abbreviation P
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Code-WordALL-SUMMARYALL-VERIFICATIO
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X. LIBRARY DATAA. SCHEDULES LIBRARY
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100r..., z: ~a: '-' 50&oJ"-l-o MI
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OFFICESWEEKDAYSWEEKENDS & HOLl D,L,
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SMALL RETAIL STOREWEEKDAYS & SATURD
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SCHOOL/CLASSROOMREGULAR SCHOOL...10
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100 1~z...u so... '"c.~1o M 4100 ,~
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1. Thermal Properties of Buildina M
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Thermal Properties of Buildin9 Mate
Page 986 and 987:
Tho ... l Propertl., of 8ullding Mo
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Thermal Properties of Building Mate
Page 990 and 991:
The ... , Properties of Insul.tlng
Page 992 and 993:
4. NotesNOTESTOTables of Materials
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11. "TRNSYS - A Transient System Si
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