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D. SIMULATION METHODOLOGY1. System Design CalculationsThe following explains how the SYSTEMS simulator utilizes the user-specifieddata (plus data from LOADS) to first size the HVAC equipment and then tosimulate the performance of the system.There are many ways that the system equipment slzlng can be performed bythe program in conjunction with the user, but all the available methods fallbetween two extremes:a) at one end of this sizing spectrum, the user supplies to SYSTEMS aminimum amount of data and then allows SYSTEMS to size the equipmentand simulate the behavior of the system. In this approach, the usersupplies values for only the required (mandatory) commands and keywords.The SYSTEMS design routine supplies all the missing values (by default).Of course, there are some keywords that are optional and have no defaultvalues. These keywords will be ignored and the associated optionalfeatures for the HVAC system will be missing. In this mode of operationthe design routine has the most freedom of design.b) at the opPosite end of the sizing spectrum the user supplies the maximumamount of data, thus restricting the use of default values. In thlSapproach, the user is limiting the freedom of the sizing routine. Itis very important for the user to realize that all keywords are not ofequal importance or priority. Some keywords have a greater effect thanother keywords in restricting the freedom of the SYSTEMS design routine.Unless the user understands the effect and/or priority of each keywordin SYSTEMS, the system being simulated mayor may not be that intendedby the user.All other equipment sizing approaches lie between extreme a) and extremeb). As the user supplies more and more values for optional keywords, thesizing method moves from a) toward b). Most users will elect to use someintermediate method. The SYSTEMS design routine permits the user to supplythose parameters which are deemed important to the user and the routineprovides the rest from its design strategy. It is therefore necessary for theuser to understand the design strategy built into SYSTEMS. In this sectionthat strategy will be described, along with suggestions of how the user mayoverride the strategy, should that be deemed necessary. The results of thiscooperative interaction between the user and the design routine are shown inthe VERIFICATION report, SV-A.To size a heating/cooling system, the following quantities must bedetermined:a. the maximum quantity of air supplied to each zoneb. the minimum amount of outside (ventilation) air required by each zonec. the maximum and minimum air temperatures of each zoneIV.298 (Revised 5/81)
d. heating coil design capacitye. cooling coil total design capacityf. cooling coil sensible design capacityg. maximum and minimum coil temperaturesh. fan electrical consumption at design conditionsi. and, for central systems:1. minimum outside (ventilation) air quantity2. maximum and minimum supply air quantities3. minimum zone air quantitiesThe following required keywords will provide the least amount of informationthat the SYSTEMS design routine requires to be able to size a system:SYSTEM-TYPEZONE-NAMESDESIGN-HEAT-TDESIGN-COOL-TMAX-SUPPLY-T (except for SYSTEM-TYPE = FPH, VAVS, RHFS, CBVAV, or PVAVS)MIN-SUPPLY-T (except for SYSTEM-TYPE = UHT, UVT, FPH, or HVSYS)INDUCTION-RATIO (for SYSTEM-TYPE = TPIU or FPIU only)REHEAT-DELTA-T (for SYSTEM-TYPE = RHFS only)MAX-FLUID-T (for SYSTEM-TYPE = HP only)MIN-FLUID-T (for SYSTEM-TYPE = HP only)Obviously, design routine must know the type of system (SYSTEM-TYPE) to bemodeled and the names of the zones (ZONE-NAMES) to be included within thesystem. The next two keywords (DESIGN-HEAT-T and DESIGN-COOL-T) are definedat the zone level. They are the temperatures in the heating and coolingmodes, respectively, to which the system is to be designed. Ordinarily, theyshould be the heating and cooling set points (from HEAT-TEMP-SCH andCOOL-TEMP-SCH, respectively) during the occupied hours. The SYSTEMS designroutine does not look at schedules to determine anything. 12 general rule ~th at any i nforma ti on the user wants the des i gn routine to know about mustappear in a Keyword Value form. The schedules are utilizedonly for thesimulatlon:- ----For SYSTEM-TYPE = VAVS, RHFS, CBVAV, or PVAVS,MAX-SUPPLY-T = (MIN-SUPPLY-T) + (REHEAT-DELTA-T).The basic equation used by the design routine describes the relationshipbetween the heat addition (or extraction) rate, the air-flow rate, and thedifference between the desired zone temperature and the supply air temperature:Q = 1.08 x CFM x ~T. ( A)IV.299 (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
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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
Page 501 and 502: A = coil entering condition,B = coi
Page 503 and 504: MAX-COND-RCVRYCRANKCASE-HEATCRANKCA
Page 505 and 506: RATED-HEIR-FCFM *ELEC-HEAT-CAPMIN-H
Page 507 and 508: __ --,,-=-==-___ = SYSTEM-EQUIPMENT
Page 509 and 510: InputRangeKeyword Abbrev. User Inpu
Page 511 and 512: 12. SYSTEMThe function of the SYSTE
Page 513 and 514: Code-WordTABLE IV.40SYSTEM-TYPEGene
Page 515 and 516: TABLE IV.42Default Heating Sources
Page 517 and 518: Code-WordDIRECTDUCTPLENUM-ZONESTABL
Page 519 and 520: U-name= SYSTEM or SYST (Us er Works
Page 521 and 522: 13. PLANT-ASSIGNMENTA special featu
Page 523 and 524: 14. SYSTEMS-REPORTThe function of t
Page 525 and 526: TABLE IV.45 (contd)SS-GSS-HSS-ISS-J
Page 527 and 528: 15. HOURLY-REPORTThe HOURLY-REPORT
Page 529 and 530: 16. REPORT-BLOCKThe REPORT-BLOCK in
Page 531 and 532: TABLE IV.46VARIABLE-TYPE = GLOBALV
Page 533 and 534: VARIABLE-LISTNumberVARIABLE-TYPE =
Page 535 and 536: VARIABLES BYSYSTEM-TYPE FOR VARIABL
Page 537 and 538: VARIABLES BY SYSTEM-TYPE FOR VARIAB
Page 539 and 540: TABLE IV.48VARIABLE-TYPE = U-name o
Page 541 and 542: VARIABLE-TYPE = U-name of SYSTEM (c
Page 549 and 550: TABLE IV.49VARIABLE-TYPE = U-name o
Page 551: VARIABLES BY SYSTEM-TYPE FOR VARIAB
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 604 and 605:
ABSORS-CAP-FTABSORS-CAP-FTSABSORS-H
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TABLE V.6 - CONTINUEDKe~ymrd Indeee
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DieselDIESEL-EXH-FPLRDIESEL-I/O-FPL
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EQUIPMENT-QUAD(E-Q)(User Worksheet)
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InputRan~eKeyword Abbrev. User Inpu
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5. LOAD-ASSIGNMENTThe LOAD-ASSIGNME
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PLANT-EQUIPMENT; UTILITYNUMBER ; 10
Page 619 and 620:
In the example above, the electric
Page 621 and 622:
KeywordTYPEOPERATl ON-MODELOAD-RANG
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PRED-LOAD-RANGEfor the equipment no
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where QH, QC, and QE are, respectiv
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PRED-LOAD-RANGE = 2LOAD-ASSIGNMENT
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7. HEAT-RECOVERYThe function of the
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Rules:1. Table V.11 illustrates the
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The correct input for achieving thi
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HEAT-RECOVERY or HEAT-R(User Worksh
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HEAT-STORE-SCHCOOL-STORE-SCHHTANK-L
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For example, a compression chiller
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$DEFINE CHARGING SCHEDULES$TANK-OS
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HOT-TA~= PLANT-EQUIPMENTTYPE HTAI'l
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ENERGY-STORAGE or E-S(User Workshee
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TABLE V.12ENERGY-COST Instruction R
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MIN-MONTHLY-CHGMIN-PEAK-LOADby DOE
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It is recognized that the program m
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ENERGY-COST or E-C(User Worksheet)K
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SITE-FACTORspecifies a number that
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11. REFERENCE-COSTSIf the user wish
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REFERENCE-COSTS or R-C(User Workshe
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13. PLANT-ASSIGNMENTThe special fea
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14. PLANT-REPORTThe PLANT-REPORT in
Page 665 and 666:
TABLE V.14PLANT Program ReportsCode
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----.c;-;-------- ; HOURLY-REPORT o
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------c-:-;------- = REPORT-BLOCK o
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VARIABLELIST123456789101112131415
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TABLE V. 21VARIABLE-TYPE = HERM-CEN
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TABLE V.24VARIABLE-TYPE = DIESEL-GE
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TABLE V.28VARIABLE-TYPE = CTANK-STO
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VI.ECONOMICS PROGRAMA. INTRODUCTION
Page 682 and 683:
The present value of the energy cos
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4. Instruction SequenceIn general,
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U-name= COMPONENT-COST or C-CInputR
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allowed to default to 1.0. The UNIT
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ENER GY -COSTspecifies a list, up t
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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
Page 708:
EX4HPLE 8UILDING lA, CHICAGO DOE-2.
Page 712 and 713:
EXAMPLE BUILDING ~A, CHICAGO om:-2.
Page 714:
l:XAMPLE BJILQINt; lA, CHICAGO 00[-
Page 721 and 722:
EXAMPLE BUILOING ]A, CHICAGO 00[-2.
Page 723 and 724:
ExA~PLE BUILDING 3At CHICAGO OOE-2.
Page 725 and 726:
EXAMPLE au Il DING 3A, CHICAGO00E-2
Page 727 and 728:
EXAMPLE BUILDING 3A, CHICAGO DOE-2.
Page 729 and 730:
..NZ 0~ ~"N·~"~;; NW~ Z " 00~ ~~ Z
Page 731 and 732:
EXAMPLE BUILDING 3A, CHICAGOREPORT-
Page 733 and 734:
REPORT LV-K - WEIGHTING FACTOR SUMM
Page 735 and 736:
REPORT LS-A - SPACE PEAK LOADS SUMM
Page 737 and 738:
REPORT LS-B - SPACE PEAK LOAD COMPO
Page 739 and 740:
EXAMPLE BUILDING 3A, CHICAGO OOE-2.
Page 741 and 742:
EXAMPLE BUILDING 3A, CHICAGO DOE-2.
Page 743 and 744:
HAMPLE BUIlDING 3A, CHICAGO 00E-2.1
Page 745 and 746:
EXAMPLE BUILDI~~ lA, CHICA~O OOE-2.
Page 747 and 748:
EU"PLE lIuILOINt; lA, ('HOoGO OOf-2
Page 749 and 750:
To illustrate how the entries in th
Page 751 and 752:
SIMPLE StrUCTURE RUI'. 3A. (I·ICA~
Page 753 and 754:
SIMPLE ~TRUCTURE RUr.. ,A, nle"";~J
Page 755 and 756:
SIMPLE Srl
Page 757 and 758:
SIMPLF STRUCTURE RU~!A, C~ICAGJDOE-
Page 759 and 760:
12. BUILDINGLATENTCLG LOAD13. BUILD
Page 761 and 762:
.EXAMPLE BUILOING 3A, CHICAGO OOE-2
Page 763 and 764:
EXAMPLE BUILDING U, CHICAGOODE-l.t
Page 765:
, 0 l P R ~ C E S SOH N P U f OAr A
Page 768 and 769:
7. COOLING CAPACITY (KBTU/HR) is ei
Page 770 and 771:
EXAMPLE 8UILDING 3A, CHICAGO DOE-2a
Page 772 and 773:
EXA~plEBulLOING )A, CHICAGO00E-2.1U
Page 774 and 775:
EXAMPlE 8UllOIN~ 311., CHICAGO DOE-
Page 776 and 777:
EXAMPLE BU!LOING 3A, CHICAGO DOE-2a
Page 778 and 779:
eXANPle 8U(lDtN~ lAt CHICAGO OOE-2.
Page 780 and 781:
EXAMPLE BUiLDING 3A, CHICAGO OOE-2.
Page 782 and 783:
EXAMPLE U~ILDING lA, CHICAGO OOE-2.
Page 784 and 785:
EXAMPLE BUllOING 3A, CHICAGO OOE-2.
Page 786 and 787:
EXAMPLE BUlLOIN~ 340, CHICAGO DOE-2
Page 788 and 789:
REPORT SS-G - ZONE MONTHLY LOADS SU
Page 790 and 791:
EXAMPLE BuiLDING 3A, CHICAGO00E-2.1
Page 792 and 793:
EXAMPLE BUILDING 3A, CHICAGOODE-Z.l
Page 794 and 795:
EXAMPLE BUJLDING 3A, CHICAGO OOE-2.
Page 796 and 797:
EXAMPLE BUILDING 3A, CHICAGn 00E-2.
Page 798 and 799:
S{/-l"lE STIlUUUJ.l.[ RUN)A, CH(AGU
Page 800 and 801:
SI~PLE srpU(TUR[ PU~ ~A, CHICAGU DO
Page 802 and 803:
CC===C=>/'I>/'I>/'I>/'I"'>/'I.r~rr~
Page 804 and 805:
• 0 LPRO C E S 5 0 RN "u rD 0\ ,
Page 806 and 807:
EXAMPLE 8UILDING lA, CHICAGOOOE-2.1
Page 808 and 809:
EXAHPLE BUILOING )11"CHICAGODOE-2.1
Page 810 and 811:
EXAHPlE aUILDING lA, CHICAGO00E-2.1
Page 812 and 813:
EXAHPLE BUILDING 3A, CHICAGO 00[-2.
Page 814 and 815:
REPORT PS-A - PLANT ENERGY UTILIZAT
Page 816 and 817:
EXAMPLE 6ulLDI~~lA, CHICAGOKEPQRT-
Page 818 and 819:
EXAHPLE t3UILD!NG 3A, CHICAGO QOE-2
Page 820 and 821:
REPORT PS-C - EQUIPMENT PART LOAD O
Page 822 and 823:
REPORT PS-D --PLANT LOADS SATISFIED
Page 824 and 825:
EXAMPLE DUILDING 3A, CHICAGO 00E-2.
Page 826 and 827:
EXAMPLE BUILDING lA, CHICAGOREPORT-
Page 828 and 829:
EXAMPLE BUILDING JA, CHICAGOOOE-2.1
Page 830 and 831:
EXAMPLE 8UIlOING 3A, CHICAGO OOE-2.
Page 832 and 833:
EXAMPLE BuILOIN~3A, CHICAGOREPORT-
Page 834 and 835:
EXAMPLE BUILDING JA, CHICAGOREPURT-
Page 836 and 837:
EXAMPLE BUILOING- 3A, CHICAGO OOE-2
Page 838 and 839:
E D L PRO C E 5 S 0 R N pur D A T A
Page 840 and 841:
UNIT MINOROVERHAUL COSTMI NOR OVERH
Page 842 and 843:
. ES-A: ANNUAL ENERGY AND OPERATION
Page 844 and 845:
ES-B:LIFE-CYCLE BUILDING AND PLANT
Page 846 and 847:
ES-C:ENERGY SAVINGS, INVESTMENT STA
Page 848 and 849:
EXAHPlE BUILDING lA, CHICAGO onE-2.
Page 850 and 851:
DOE-2.1E Documentation Update: Weat
Page 852 and 853:
Page 854 and 855:
Page 856 and 857:
Page 858 and 859:
Page 860 and 861:
CRevised April, 1999 VIII.12DOE-2.1
Page 862 and 863:
Page 864 and 865:
Page 866 and 867:
Page 868 and 869:
Page 870 and 871:
Revised April, 1999 VIII.22DOE-2.1E
Page 873 and 874:
VIII.WEATHER DATAA. INTRODUCTIONThe
Page 875 and 876:
TABLE VIIL1WEATHER DATAData for add
Page 877 and 878:
DOE-2 LATITUDE LONGITUDE TIME ZONE
Page 879 and 880:
This page has been deleted intentio
Page 881 and 882:
Crescent CityI1 I. Yreka.OrleansI11
Page 883 and 884:
Zone Representative Cities DOE-2 Fi
Page 885 and 886:
D. SOLAR RADIATION DATANone of ther
Page 887 and 888:
SOLMET10 SOLARSOLA","AOIAtION VAlU
Page 889 and 890:
APPENDIX VI I LANOAA TEST REFERENCE
Page 891 and 892:
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
Page 897 and 898:
XX XX X XXX. -oSLRRADXXXXVNoNoI
Page 899 and 900:
TAPETAPEFIELD NUMBER POSITIONS ELEM
Page 901 and 902:
TAPEFIELD NUMBERTAPEPOSiTIONSELEMEN
Page 903 and 904:
I NTkOlJUCTl ONSolar radiation and
Page 905:
Co 1 umn77-8182-8586-9394-98* 99-10
Page 908 and 909:
DOE-2 Weather ProcessorThe weather
Page 910 and 911:
Columns Format Description19-24 R T
Page 912 and 913:
7-12 L A code-word specifying the o
Page 914 and 915:
Example 2:To EDIT for August 15 fro
Page 916 and 917:
APPENDIX VIILDMISCELLANEOUS WEATHER
Page 918 and 919:
-0",z",0Uz·0'" _if>lew",a. i'!'"~~
Page 920 and 921:
C. CTI WEATHER TAPES1. GeneralThe C
Page 922 and 923:
YEAR 19b9 TRY Al~AN'. NEW 'ORMONrHl
Page 925 and 926:
A. LDLCommand Word Abbreviation Pag
Page 927 and 928:
KeywordsDIV I DEDRYBULB-HIDRYBULB-L
Page 929 and 930:
Keywords Abbreviation Associated Co
Page 931 and 932:
Code-Words Associated KexwordsAIR-C
Page 933 and 934:
B. SOLCommand Word Abbreviation ~AB
Page 935 and 936:
KeywordDEFROST-DEGRADEDEFROST-TDESI
Page 937 and 938:
Keyword Abbreviation Associated Com
Page 939 and 940:
Code-WordALL-SUMMARYBI-LINEARBI-QUA
Page 941 and 942:
Code-WordAssociated KeywordSS-DSUMM
Page 943 and 944:
Page 945 and 946:
Page 947 and 948:
Page 949 and 950:
KeywordTWR-FAN-CONTROLTWR-FAN-ELEC-
Page 951 and 952:
Code-WordsMETHANOLNATURAL-GASONE-SP
Page 953 and 954:
KeywordAssociatedCommand Word Assoc
Page 955 and 956:
KeywordOUT-I through OUT-12PARAS-KW
Page 957 and 958:
Code-WordLIQ-SOURCEMONTHLYNON-SPARA
Page 959 and 960:
Input or Output Input to OutDut fro
Page 961 and 962:
Input or Output Input to Output fro
Page 963 and 964:
E. EDLCorrrnand Word Abbreviation P
Page 966 and 967:
Code-WordALL-SUMMARYALL-VERIFICATIO
Page 969 and 970:
X. LIBRARY DATAA. SCHEDULES LIBRARY
Page 971 and 972:
100r..., z: ~a: '-' 50&oJ"-l-o MI
Page 973 and 974:
OFFICESWEEKDAYSWEEKENDS & HOLl D,L,
Page 975 and 976:
SMALL RETAIL STOREWEEKDAYS & SATURD
Page 977 and 978:
SCHOOL/CLASSROOMREGULAR SCHOOL...10
Page 979:
100 1~z...u so... '"c.~1o M 4100 ,~
Page 982 and 983:
1. Thermal Properties of Buildina M
Page 984 and 985:
Thermal Properties of Buildin9 Mate
Page 986 and 987:
Tho ... l Propertl., of 8ullding Mo
Page 988 and 989:
Thermal Properties of Building Mate
Page 990 and 991:
The ... , Properties of Insul.tlng
Page 992 and 993:
4. NotesNOTESTOTables of Materials
Page 994:
11. "TRNSYS - A Transient System Si
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