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DISPER software: Air pollution map produced by three different stacks (XZ-plane)
Canarina software for analysis of air pollution in environment: air pollution control, environmental engineering, environmental consultancy service, environment simulation, environmental modeling and environmental impact assessment. Air dispersion software: ISC 144 air pollution cars
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DISPER: Air pollution dispersion ˇ DISPER - Solutions - Data - Algorithms - Emissions - Graphs - ISC3 (VOL. 2)
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INDEX
deposition algorithm.............................. 1‑61,
2‑12
for the Long Term model.................................. 2‑7
for the Short Term model.......................... 1‑43, 1‑46
Atmospheric resistance............................ 1‑38,
1‑56
Attenuation correction factor
in complex terrain...................................... 1‑68
Briggs plume rise formulas
buoyant plume rise.................................. 1‑7,
1‑9
momentum plume rise................................ 1‑8,
1‑10
stack tip downwash....................................... 1‑6
Building downwash procedures....................... 1‑23, 2‑4
and buoyancy‑induced
dispersion......................... 1‑30
effects on dispersion parameters........................ 1‑21
for the Long Term model.................. 1‑64, 2‑2,
2‑4, 2‑5
general............................................ 1‑5, 1‑22
Huber and Snyder........................................ 1‑23
Schulman and Scire..................... 1‑5, 1‑12,
1‑28, 1‑29
Schulman‑Scire plume rise......................... 1‑12, 1‑14
virtual distances....................................... 1‑20
wake plume height....................................... 1‑11
Buoyancy flux...................................... 1‑6, 1‑13
Buoyancy‑induced dispersion........................ 1‑30, 2‑5
Buoyant plume rise
stable................................................... 1‑9
unstable and neutral..................................... 1‑7
Cartesian receptor network............................... 1‑3
Complex terrain modeling
Short Term model.................................. 1‑63,
1‑69
Crossover temperature difference......................... 1‑7
Crosswind distance............ 1‑2, 1‑3, 1‑4,
1‑64, 1‑65, 2‑3
Decay coefficient....................................... 1‑42
Decay term................................... 1‑3, 1‑42, 1‑65
for the Long Term model....................... 1‑65, 2‑3,
2‑6
for the Short Term model.......................... 1‑42, 1‑68
Depletion
for the dry deposition algorithm.................. 1‑35, 1‑42
for the wet deposition algorithm........................ 1‑62
Deposition layer resistance............................. 1‑57
Deposition velocity............................... 1‑34,
1‑55
Direction‑specific building
dimensions............ 1‑22,
1‑29
with Huber‑Snyder downwash.............................. 1‑29
Dispersion coefficients
see Dispersion parameters......................... 1‑14, 1‑66
Dispersion parameters
for the Long Term model.................................. 2‑4
McElroy‑Pooler.................................... 1‑15,
1‑19
Pasquill‑Gifford...................... 1‑14, 1‑16,
1‑17, 1‑18
Distance‑dependent plume rise........................... 1‑13
Downwind distance............. 1‑2, 1‑3, 1‑4,
1‑64, 1‑65, 2‑3
and virtual distance.................................... 1‑20
for area sources........................................ 1‑47
for building wake dispersion............................ 1‑24
for dispersion coefficients............................. 1‑14
Dry deposition............................... 1‑3,
1‑65, 2‑11
for the Long Term model................................. 2‑11
for the Short Term model................................ 1‑54
Elevated terrain............................. 1‑33,
1‑67, 2‑6
truncation above stack height........................... 1‑34
Entrainment coefficient................................. 1‑14
Final plume rise........................................ 1‑30
distance to.............................................. 1‑7
stable............................................. 1‑9, 1‑10
unstable or neutral................................. 1‑7,
1‑8
Flagpole receptor....................................... 1‑32
Gaussian plume model............................... 1‑2,
1‑63
sector averages for complex terrain..................... 1‑63
sector averages for Long Term............................ 2‑1
GEP stack height.................................. 1‑12,
1‑29
Gradual plume rise...................................... 1‑10
for buoyant plumes...................................... 1‑10
for Schulman‑Scire downwash............................. 1‑13
stable momentum......................................... 1‑11
unstable and neutral momentum........................... 1‑11
used for wake plume height.............................. 1‑11
Half life............................................... 1‑43
Huber‑Snyder downwash
algorithm.......................... 1‑5
Initial lateral dimension
for the Long Term model.................................. 2‑4
for volume sources................................ 1‑45,
1‑46
Initial plume length
Schulman‑Scire downwash................................. 1‑12
Initial plume radius
Schulman‑Scire downwash................................. 1‑13
Initial vertical dimension
for volume sources...................................... 1‑46
Intermediate terrain.................................... 1‑69
