Table of Contents - The Atmospheric Studies Group at TRC

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Section 9: CALPUFF Table 9-31 (Concluded) VOLEMARB.DAT - Time-Varying Data Record Contents (Next "NSRC" records) No. Variable Type a Description 1 CID C*16 Source identifier (must match values in time-invariant records) 2 XKM real X-coordinate (km) for source 3 YKM real Y-coordinate (km) for source 4 HTAGL real Effective height above ground (m) 5 ELMSL real Elevation of ground (m MSL) at source 6 SIGYI real Initial y (m) 7 SIGZI real Initial z (m) Next NSE QEMIT real array Emission rates (g/s) for each species in the order specified in Header Record 2 a C*16 = Character*16 9-196
Section 9: CALPUFF 9.7 Boundary Concentration Module File (BCON.DAT) The impact of significant regional pollution transport on concentrations and deposition fluxes computed within the modeling domain can be included in a CALPUFF analysis either by adding a spatially uniform (and either constant in time or varying by hour) field at the post-processing step with CALPOST, or by selecting the boundary concentration (BCON) module within CALPUFF. The latter choice is preferable if there are known spatial gradients in regional concentrations outside the modeling domain, or if chemical transformation and removal processes associated with the regional pollution must be explicitly modeled. Regional air-mass characteristics are defined and assigned to segments along each boundary of the computational domain when the boundary concentration module is used. A segment is equivalent to the length of one side of a grid cell. The number of air-mass types can be equal to the number of cells along the perimeter of the domain if sufficient information exists on this scale, or the number can be far fewer in typical applications where an entire side of the domain is characterized by a single air-mass. Air-mass characteristics include the concentration of each species advected into the domain and the thickness of the layer that contains these species. These concentrations are used to initialize puffs that are well-mixed in the vertical and the horizontal. The vertical depth of a puff is the thickness of the layer assigned to the air-mass, and the radius of the puff is related to the length of the segment and the component of the transport wind that is perpendicular to the segment (the mass flux into the domain and the initial concentration are conserved). The concentration of each species for each air-mass type may be scaled by factors that vary in one of the following ways: by hour of the day (24 factors); by month (12 factors); by hour and season (96 factors); by wind speed and stability class (36 factors); or by temperature (12 factors). These are the same factors provided for sources specified in the CALPUFF control file. If more detailed variation is needed for one or more air-mass types, air-mass characteristics for these can be provided hourly. When this method is used, the layer thickness may change as well as the concentrations. Otherwise, the layer thickness is constant for each air-mass type. The configuration of the boundary properties is provided to CALPUFF in a "BCON.DAT" file. Two formats are available for this file. The first is a formatted file prepared specifically for use with the BCON option (MBCON = 1). It is constructed using the CALPUFF control file conventions. A sample file is shown in Table 9-32, and a description of the input parameters is provided in Table 9-33. The second (MBCON = 2) is a standard CALPUFF unformatted “CONC.DAT” output concentration file. Receptors in this file must lie along the boundary of the modeling region, providing near-surface concentrations for the air mass transported across the boundary into the modeling domain. This format may be chosen if CALPUFF results from a larger domain are available. Input Group 1 in the BCON.DAT file identifies the grid information for the computational domain, the units for the concentrations that are provided, the number of air-mass types, and the type of temporal variation used in describing air-mass properties. Four air-mass types are used in this example. Three of these use the temporal variation factors provided in Input Group 3 and one uses an explicit sequence of 9-197
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CALPUFF Modeling System Version 6 U
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Section 1: Introduction 7.5 CALWRF
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Section 1: Introduction List of Fig
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Section 1: Introduction Table 3-1:
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Section 1: Introduction introductio
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Section 1: Introduction released a
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Section 1: Introduction CALMET Upd
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Section 1: Introduction To enhance
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Section 1: Introduction Meteorologi
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Section 1: Introduction READ62 is a
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Section 1: Introduction contained i
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Section 1: Introduction OPTHILL uti
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Section 1: Introduction From CALPUF
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Section 1: Introduction Observation
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Section 1: Introduction Slope Flows
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Section 1: Introduction CALPUFF con
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Section 1: Introduction 1.5 Summary
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Section 1: Introduction If the uppe
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Section 1: Introduction Table 1-5 (
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Section 1: Introduction 1-44
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Section 1: Introduction technical o
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Section 2: Geophysical Data Process
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Section 3: READ62 Upper Air Preproc
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Section 4: PXTRACT Precipitation Da
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Section 5: PMERGE Precipitation Dat
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Section 6: SMERGE Surface Data Mete
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Section 7: Prognostic Meteorologica
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Section 8: CALMET Model Files (e.g.
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Section 8: CALMET Model Files Table
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Section 8: CALMET Model Files descr
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Section 8: CALMET Model Files 8.10
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Section 8: CALMET Model Files 4 NUS
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Section 8: CALMET Model Files CALME
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Section 8: CALMET Model Files 8.1.1
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Section 8: CALMET Model Files ┌
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Section 8: CALMET Model Files -----
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Section 8: CALMET Model Files 6 0 0
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Section 8: CALMET Model Files 3 1 1
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Section 8: CALMET Model Files IBHR
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Section 9: CALPUFF 9. CALPUFF The C
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Section 9: CALPUFF The control file
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Section 9: CALPUFF Table 9-1: Input
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Section 9: CALPUFF 17a,b Non-gridde
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Section 9: CALPUFF MASSBAL.DAT outp
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Section 9: CALPUFF d The filenames
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Section 9: CALPUFF >0 = File update
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Section 9: CALPUFF 0 = chemical tra
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Section 9: CALPUFF [DIAGNOSTIC FEAT
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Section 9: CALPUFF ! CSPEC = SO2 !
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Section 9: CALPUFF WGS-84 NAS-C NAR
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Section 9: CALPUFF for selected spe
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Section 9: CALPUFF ---------------
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Section 9: CALPUFF --------- ------
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Section 9: CALPUFF Input Group 11 O
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Section 9: CALPUFF (XLAIIN) Default
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Section 9: CALPUFF Minimum mixing h
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Section 9: CALPUFF Near-Surface dep
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Section 9: CALPUFF Sample CALPUFF C
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Section 9: CALPUFF -------- a Data
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Section 9: CALPUFF Number of buoyan
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Section 9: CALPUFF -------- a Data
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Section 9: CALPUFF Number of non-gr
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Section 9: CALPUFF 9-47
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Section 9: CALPUFF Table 9-3 (Conti
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Section 9: CALPUFF IOUTU IOVERS int
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Section 9: CALPUFF MSHEAR integer V
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Section 9: CALPUFF MDISP integer Me
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Section 9: CALPUFF MPDF integer Pro
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Section 9: CALPUFF IMFLX integer Co
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Section 9: CALPUFF BCKNH3(12) real
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Section 9: CALPUFF CDIV(2) real Div
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Section 9: CALPUFF *MDEPBC integer
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Section 9: CALPUFF BDOWN real Build
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Section 9: CALPUFF source is treate
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Section 9: CALPUFF (i.e., !END!). I
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Section 9: CALPUFF (i.e., !END!). I
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Section 9: CALPUFF terminator (i.e.
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Section 9: CALPUFF Table 9-3 (Concl
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Section 9: CALPUFF 9.2 Meteorologic
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Section 9: CALPUFF if(nssta.ge.1)th
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Section 9: CALPUFF Table 9-4: CALME
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Section 9: CALPUFF Table 9-4 (Concl
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Section 9: CALPUFF 4 b 6 ZTEMP real
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Section 9: CALPUFF 9 6 WSTAR real a
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Section 9: CALPUFF 14 6 IRH integer
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Section 9: CALPUFF variable dispers
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Section 9: CALPUFF Table 9-6: Sampl
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Section 9: CALPUFF NCOMM+6 * intege
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Section 9: CALPUFF 1 XRCT real arra
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Section 9: CALPUFF C*16 = Character
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Section 9: CALPUFF C*16 = Character
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Section 9: CALPUFF CONC.DAT File -
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Section 9: CALPUFF Table 9-53: Unfo
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Section 9: CALPUFF Table 9-53 (Conc
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Section 9: CALPUFF 9.15.4 Dry Flux
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Section 9: CALPUFF 1 NCOM integer N
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Section 9: CALPUFF 24 IBSAMP intege
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Section 9: CALPUFF 48 RELON0 real E
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Section 9: CALPUFF 1-NDFOUT CDFOUT
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Section 9: CALPUFF nxg = IESAMP - I
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Section 9: CALPUFF Table 9-56 (Cont
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Section 9: CALPUFF 5 SYKM real Sour
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Section 9: CALPUFF a C*15 = Charact
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Section 9: CALPUFF Table 9-60: Samp
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Section 9: CALPUFF 16 Length Emitte
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Section 9: CALPUFF Figure 9-1: Prof
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Section 9: CALPUFF Table 9-64 summa
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Section 9: CALPUFF Figure 9-2: Map
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Section 9: CALPUFF Table 9-67: OPTH
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Section 9: CALPUFF This process is
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Section 10: POSTPROCESSORS 10.1 APP
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Section 10: POSTPROCESSORS Table 10
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Section 10: POSTPROCESSORS NFILE S
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Section 10: POSTPROCESSORS 10.3 POS
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Section 10: POSTPROCESSORS The name
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Section 10: POSTPROCESSORS MNITRATE
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Section 10: POSTPROCESSORS --------
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Section 10: POSTPROCESSORS Chemical
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Section 10: POSTPROCESSORS N S PM10
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Section 10: POSTPROCESSORS 10.4 CAL
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Section 10: POSTPROCESSORS 10.5 Inp
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Section 10: POSTPROCESSORS selected
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Section 10: POSTPROCESSORS Species
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Section 10: POSTPROCESSORS identify
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Section 10: POSTPROCESSORS 1 = g/m*
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