CALPUFF and Postprocessors

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Table F-3 (Continued) Control File Inputs - Input Group 3 Species List Input Group 3 consists of two parts. The first part contains a list of species names and a table with four integer flags for each species. These flags indicate if a pollutant is modeled (0=no, 1=yes), emitted (0=no, 1=yes), dry deposited (0=no, 1=yes, treated as a gas with the resistance model, 2=yes, treated as a particle with the resistance model, or 3=yes, user-specified deposition velocities used), and if the species is to be added to group for output by specifying a group number greater than zero. The second part allows one to name the output species groups, if any are identified in the table. However, the user must first specify the species names to be modeled. Each species is entered on a separate line with ! CSPEC = XXX ! !END!, where XXX is a species name (up to 12 characters in length), and the variable delimiter and group delimiter (!END!) appears on the line. For example, a fivespecies SO x , NO x run with MCHEM=1 would be: INPUT GROUP: 3a, 3b -- Species list ------------------- ------------- Subgroup (3a) ------------- ! CSPEC = SO2 ! !END! ! CSPEC = SO4 ! !END! ! CSPEC = NOX ! !END! ! CSPEC = HNO3 ! !END! ! CSPEC = NO3 ! !END! The MESOPUFF II chemical transformation option (MCHEM=1) in CALPUFF is designed to simulate the conversion of SO 2 6 SO = 4 and NO x 6 HNO 3 : NO − 3. For this option, five pollutants in CALPUFF are labeled as SO 2 , SO = 4, NO x , HNO 3 , and NO − 3. If the RIVAD/ARM3 transformation option (MCHEM=3) is selected, NO and NO 2 are explicitly treated, and six pollutants are labeled as SO 2 , SO = 4, NO, NO 2 , HNO 3 , and NO − 3. However, by setting the appropriate flags controlling the various technical options (chemical transformation, deposition, etc.), other reactive or non-reactive pollutants can be simulated. The user has control over which species are to be emitted and dry deposited in a particular run. If the dry deposition flag is set equal to 3 for any pollutant, a file called VD.DAT must be made available to the model. This file contains a diurnal cycle of 24 user-specified deposition velocities for each pollutant flagged. The last species in (3a) must be 'BCON' when using the boundary condition option (MBCON > 0). Species BCON does not participate in any chemical transformation mechanism and it should typically be modeled without removal. Mass is placed in species BCON when generating boundary condition puffs so that ‘clean’ air entering the modeling domain can be simulated in the same way as ‘polluted’ air. MAR 2006 – CALPUFF F-49
Table F-3 (Continued) Control File Inputs - Input Group 3 Species List Species-groups can be used to allow mass distributions of particles to be source-specific. In the example provided in Table F-2, we have defined six particle-sizes as individual species: ! CSPEC = SO2 ! !END! ! CSPEC = NOX ! !END! ! CSPEC = PMSIZE1 ! !END! ! CSPEC = PMSIZE2 ! !END! ! CSPEC = PMSIZE3 ! !END! ! CSPEC = PMSIZE4 ! !END! ! CSPEC = PMSIZE5 ! !END! ! CSPEC = PMSIZE6 ! !END! Dry OUTPUT GROUP SPECIES MODELED EMITTED DEPOSITED NUMBER NAME (0=NO, 1=YES) (0=NO, 1=YES) (0=NO, (0=NONE, (Limit: 12 1=COMPUTED-GAS 1=1st CGRUP, Characters 2=COMPUTED-PARTICLE 2=2nd CGRUP, in length) 3=USER-SPECIFIED) 3= etc.) ! SO2 = 1, 1, 1, 0 ! ! NOX = 1, 0, 2, 0 ! ! PMSIZE1 = 1, 1, 2, 1 ! ! PMSIZE2 = 1, 1, 2, 1 ! ! PMSIZE3 = 1, 1, 2, 1 ! ! PMSIZE4 = 1, 1, 2, 1 ! ! PMSIZE5 = 1, 1, 2, 1 ! ! PMSIZE6 = 1, 1, 2, 1 ! !END! This allows each size to be modeled separately, each with its own mass emission rate and deposition velocity. Several sources in the run could have been given different emission rates for these "species", thereby producing unique mass distributions for their particulate emissions. Prior to reporting any concentrations or deposition fluxes for these individual "species", however, they must be summed to provide the total particulate concentration or deposition flux. This is done through "grouping": ------------- Subgroup (3b) ------------- ! CGRUP = PM10 ! !END! MAR 2006 – CALPUFF F-50
Page 1: Development of the Next Generation
Page 4 and 5: F. CALPUFF MODEL FILES The CALPUFF
Page 6 and 7: are all equivalent). The variable t
Page 8 and 9: Table F-1 Input Groups in the CALPU
Page 10 and 11: Table F-2 Sample CALPUFF Control Fi
Page 12 and 13: Table F-2 (Continued) Sample CALPUF
Page 42 and 43: Table F-3 CALPUFF Control File Inpu
Page 44 and 45: Table F-3 (Continued) CALPUFF Contr
Page 54 and 55: Table F-3 (Continued) Control File
Page 92 and 93: Table F-3 (Concluded) CALPUFF Contr
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Page 98 and 99: Table F-4 (Continued) CALMET.DAT fi
Page 100 and 101: Table F-4 (Concluded) CALMET.DAT fi
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Table F-5 (Continued) CALMET.DAT fi
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F.2.2 ISCMET.DAT CALPUFF can be dri
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Table F-6 Sample ISCMET.DAT files (
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Table F-8 ISCMET.DAT File - Data Re
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table. A description of the content
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Table F-10 PLMMET.DAT File - Header
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F.2.4 SURFACE.DAT and PROFILE.DAT I
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Table F-12 Sample SURFACE.DAT file
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Table F-14 SURFACE.DAT File - Data
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F.3 Point Source Emissions File Wit
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PTEMARB.DAT File - Header Records T
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Table F-17 (Continued) PTEMARB.DAT
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Table F-17 (Concluded) PTEMARB.DAT
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Table F-18 PTEMARB.DAT - Time-Invar
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Table F-19 (Concluded) PTEMARB.DAT
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Table F-20 Sample BAEMARB.DAT file
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Table F-21 BAEMARB.DAT - Header Rec
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Table F-21 (Continued) BAEMARB.DAT
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BAEMARB.DAT File - Data Records The
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Table F-23 BAEMARB.DAT - Time-Varyi
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F.5 Line Source Emissions File With
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LNEMARB.DAT File - Header Records T
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Table F-25 (Continued) LNEMARB.DAT
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Table F-25 (Concluded) LNEMARB.DAT
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Table F-26 LNEMARB.DAT - Time-Invar
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Table F-27 (Continued) LNEMARB.DAT
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Table F-27 (Concluded) LNEMARB.DAT
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Table F-28 Sample VOLEMARB.DAT file
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Table F-29 VOLEMARB.DAT - Header Re
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Table F-29 (Continued) VOLEMARB.DAT
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VOLEMARB.DAT File - Data Records Th
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Table F-30 VOLEMARB.DAT - Time-Inva
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Table F-31 (Concluded) VOLEMARB.DAT
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values in time provided in Input Gr
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Table F-32 (Continued) Boundary Con
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Table F-32 (Continued) Boundary Con
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Table F-33 BCON.DAT File Inputs Var
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Table F-33 (Concluded) BCON.DAT Fil
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Table F-34 Sample User-Specified De
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Table F-35 Sample Hourly Ozone Data
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Table F-36 OZONE.DAT - Header Recor
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Table F-37 OZONE.DAT - Time-Invaria
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F.10 User-Specified Chemical Transf
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F.11 Site-Specific Turbulence Data
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Table F-40 Sample CTDMPLUS Terrain
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Table F-42 HILL.DAT File - Record G
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F.13 Subgrid Scale Coastal Boundary
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COASTLN.DAT File - Header Record Th
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COASTLN.DAT File - Data Records The
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Table F-47 COASTLN.DAT - Data Recor
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Table F-48 Sample Mass Flux Boundar
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Table F-49 FLUXBDY.DAT - Header Rec
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Table F-50 FLUXBDY.DAT - Data Heade
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F.15 CALPUFF Output Files F.15.1 Li
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where the following declarations ap
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Table F-52 (Continued) Unformatted
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Table F-52 (Concluded) Unformatted
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Table F-53 Unformatted CONC.DAT Fil
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F.15.4 Dry Flux File (DFLX.DAT) The
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Table F-54 Unformatted DFLX.DAT fil
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DFLX.DAT File - Data Records The DF
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Character*132 COMMENT Character*80
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Table F-57 Unformatted WFLX.DAT Fil
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F.15.6 Relative Humidity File for V
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Table F-58 Unformatted VISB.DAT fil
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VISB.DAT File - Data Records The VI
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Table F-60 Sample Debug Puff-Tracki
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F.15.8 Mass Flux List File (MASSFLX
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F.15.9 Mass Balance List File (MASS
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F.16 OPTHILL When the subgrid scale
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The following procedure is recommen
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Table F-64 OPTHILL Input and Output
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Figure F-2 Map of terrain surroundi
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Table F-67 OPTHILL Output File for
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This process is simplified somewhat
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G.1 PRTMET Meteorological Display P
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Table G-1 PRTMET Input and Output F
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Table G-2 (Continued) PRTMET Contro
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Table G-2 (Concluded) PRTMET Contro
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Table G-3 Sample PRTMET Control Fil
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Table G-3 Sample PRTMET Control Fil
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Table G-4 Sample PRTMET List File (
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Table G-6 Sample vector plot file x
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G.2 APPEND The APPEND program is de
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Table G-9 APPEND Control File Struc
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Table G-11 Sample APPEND List File
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G.3 CALSUM The CALSUM program is de
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Table G-13 CALSUM Control File Stru
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Table G-15 Sample CALSUM List File
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G.4 POSTUTIL POSTUTIL operates on o
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The name and full path of each file
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Table G-17 (Continued) POSTUTIL Con
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Table G-18 Sample POSTUTIL Control
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Table G-18 (Continued) Sample POSTU
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INPUT GROUP: 2 -- Species Processin
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1 g of SO 2 contributes 0.500000 g
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Table G-19 (Continued) Sample POSTU
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Table G-19 (Concluded) Sample POSTU
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When CALPOST is directed to perform
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Table G-20 (concluded) CALPOST Inpu
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G.6 CALPOST Input Files G.6.1 User
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Table G-21 CALPOST Control File Inp
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Table G-21 (Continued) CALPOST Cont
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Table G-21 (Concluded) CALPOST Cont
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Table G-22 (Continued) Sample CALPO
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INPUT GROUP: 2 -- Visibility Parame
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Table G-22 (Concluded) Sample CALPO
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Table G-24 Sample Background Concen
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Table G-26 Sample Nephelometer File
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G.7.4 Time-series File(s) CALPOST c
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Table G-27 (Concluded) Sample CALPO
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Table G-29 Sample DATA Plot-File (P
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Table G-30 (Concluded) Plot-File GR
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Table G-32 Time-series File Record
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VOLUME II & III REFERENCES Allwine,
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Strimaitis, D.G., R.J. Yamartino, E
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