Indoor air quality engineering : environmental health and control of indoor pollutants /

Indoor air quality engineering : environmental health and control of indoor pollutants /

Saved in:
Bibliographic Details
Author / Creator:Heinsohn, Robert Jennings.
Imprint:New York ; Basel : Marcel Dekker, 2003.
Description:xxxii, 870 p. : ill. ; 26 cm.
Language:English
Subject:
Indoor air pollution.
Air quality management.
Air quality management.
Indoor air quality.
Format: Print Book
URL for this record:http://pi.lib.uchicago.edu/1001/cat/bib/6223303
Hidden Bibliographic Details
Other uniform titles:Cimbala, John M.
Heinsohn, Robert Jennings. Sources and control of air pollution.
ISBN:0824740610
Notes:Includes index.
"Portions of this text are reprinted from Sources and control of air pollution by Heinsohn/Kabel, c1999"--T.p. verso.
Table of Contents:
  • Preface
  • Nomenclature
  • Chapter 1. Introduction
  • 1.1. Indoor Air Pollution and Risks
  • 1.2. Management and Assessment of Risk
  • 1.3. Liability
  • 1.4. Indoor Air Pollution Control Strategy
  • 1.5. Fundamental Calculations
  • 1.6. Government Regulations
  • 1.7. Standards
  • 1.8. Contributions from Professionals
  • 1.9. Components of Industrial Ventilation Systems
  • 1.10. Classification of Ventilation Systems
  • 1.11. Deficiencies in Present Knowledge
  • 1.12. Professional Literature
  • 1.13. Closure
  • Chapter 1 Problems
  • Chapter 2. The Respiratory System
  • 2.1. Physiology
  • 2.2. Respiratory Fluid Mechanics
  • 2.3. Analytical Models of Heat and Mass Transfer
  • 2.4. Toxicology
  • 2.5. Sick Buildings
  • 2.6. Bioaerosols
  • 2.7. Dose-Response Characteristics
  • 2.8. Risk Analysis
  • 2.9. Closure
  • Chapter 2 Problems
  • Chapter 3. Design Criteria
  • 3.1. Contaminant Exposure Levels
  • 3.2. Instruments to Measure Pollutant Concentration
  • 3.3. Fire and Explosion
  • 3.4. Hearing and Noise
  • 3.5. Thermal Comfort and Heat Stress
  • 3.6. Odors
  • 3.7. Radiation
  • 3.8. General Safety
  • 3.9. Engineering Economics
  • 3.10. Closure
  • Chapter 3 Problems
  • Chapter 4. Estimation of Pollutant Emission Rates
  • 4.1. Experimental Measurements
  • 4.2. Empirical Equations
  • 4.3. Emission Factors
  • 4.4. Puff Diffusion
  • 4.5. Evaporation and Diffusion
  • 4.6. Drop Evaporation
  • 4.7. Leaks
  • 4.8. Closure
  • Chapter 4 Problems
  • Chapter 5. General Ventilation and the Well-Mixed Model
  • 5.1. Definitions
  • 5.2. Thermodynamics of Unventilated Enclosures
  • 5.3. Dillution Ventilation with 100% Make-up Air
  • 5.4. Time-Varying Source, Ventilation Flow Rate, or Make-up Air Concentration
  • 5.5. Removal by Solid Surfaces
  • 5.6. Recirculation
  • 5.7. Partially Mixed Conditions
  • 5.8. Well-Mixed Model as an Experimental Tool
  • 5.9. Clean Rooms
  • 5.10. Infiltration and Exfiltration
  • 5.11. Split-Flow Ventilation Booths
  • 5.12. Mean Age of Air and Ventilation Effectiveness
  • 5.13. Make-up Air Operating Costs
  • 5.14. Tunnel Ventilation
  • 5.15. Closure
  • Chapter 5 Problems
  • Chapter 6. Present Local Ventilation Practice
  • 6.1. Control of Particles
  • 6.2. Control of Vapors from Open Surface Vessels
  • 6.3. Control Systems for Specific Applications
  • 6.4. Bulk Materials Handling
  • 6.5. Canopy Hoods for Buoyant Sources
  • 6.6. Air Curtains for Buoyant Sources
  • 6.7. Surface Treatment
  • 6.8. Building Air Inlets and Exhaust Stacks
  • 6.9. Unsatisfactory Performance
  • 6.10. Exhaust Duct System Design
  • 6.11. Fan Performance and Selection
  • 6.12. Closure
  • Chapter 6 Problems
  • Chapter 7. Ideal Flow
  • 7.1. Fundamental Concepts
  • 7.2. Two-Dimensional Flow Fields
  • 7.3. Elementary Planar Ideal Flows
  • 7.4. Elementary Axisymmetric Ideal Flows
  • 7.5. Flanged and Unflanged Inlets in Quiescent Air
  • 7.6. Flanged and Unflanged Inlets in Streaming Flow
  • 7.7. Multiple Flanged Rectangular Inlets
  • 7.8. Flanged Inlets of Arbitrary Shape
  • 7.9. Closure
  • Chapter 7 Problems
  • Chapter 8. Motion of Particles
  • 8.1. Particle Size
  • 8.2. Statistical Analysis of Aerosols
  • 8.3. Overall Collection Efficiency
  • 8.4. Equations of Particle Motion
  • 8.5. Freely Falling Particles in Quiescent Media
  • 8.6. Horizontally Moving Particles in Quiescent Air
  • 8.7. Gravimetric Settling in a Room
  • 8.8. Gravimetric Settling in Ducts
  • 8.9. Clouds
  • 8.10. Stokes Number
  • 8.11. Inertial Deposition in Curved Ducts
  • 8.12. Closure
  • Chapter 8 Problems
  • Chapter 9. Removing Particles from a Gas Stream
  • 9.1. Cyclone Collectors
  • 9.2. Other Inertial Separation Collectors and Sampling Issues
  • 9.3. Impaction between Moving Particles
  • 9.4. Filtration
  • 9.5. Electrostatic Precipitators
  • 9.6. Engineering Design - Selecting and Sizing Particle Collectors
  • 9.7. Hoppers
  • 9.8. Closure
  • Chapter 9 Problems
  • Chapter 10. Application of CFD to Indoor Air Quality
  • 10.1. Fundamentals of CFD
  • 10.2. Flow around a Circular Cylinder
  • 10.3. Modeling of Air Flows with Gaseous Contaminants
  • 10.4. Modeling of Aerosol Particle Trajectories
  • 10.5. Closure
  • Chapter 10 Problems
  • Appendices
  • References
  • Index
Gift of the Kathleen and Howard Zar Environment and Human Health Book Fund bookplate
The John Crerar Library bookplate

Similar Items