The Indoor Air Quality Guide: Best Practices for Design, Construction and Commissioning is designed for architects, design engineers, contractors, commissioning agents, and all other professionals concerned with indoor air quality. Developed in cooperation with the American Institute of Architects, U.S. Green Building Council (USGBC), the Building Owners and Managers Association International (BOMA), the Sheet Metal and Air Conditioning Contractors’ National Association (SMACNA), and the U.S. Environmental Protection Agency (EPA).

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PDF Pages	PDF Title
6	CONTENTS
9	Acknowledgments
11	Abbreviations and Acronyms
13	Foreword: Why this Guide Was Written
14	Message to Building Owners
15	Introduction
22	PART I—Summary Guidance Overview Information for Design, Construction, and Commissioning for IAQ
23	Objective 1 – Manage the Design and Construction Process to Achieve Good IAQ
25	Strategy 1.1 – Integrate Design Approach and Solutions
29	Strategy 1.2 – Commission to Ensure that the Owner’s IAQ Requirements are Met
33	Strategy 1.3 – Select HVAC Systems to Improve IAQ and Reduce the Energy Impacts of Ventilation
37	Strategy 1.4 – Employ Project Scheduling and Manage Construction Activities to Facilitate Good IAQ
40	Strategy 1.5 – Facilitate Effective Operation and Maintenance for IAQ
44	Objective 2 – Control Moisture in Building Assemblies
46	Strategy 2.1 – Limit Penetration of Liquid Water into the Building Envelope
50	Strategy 2.2 – Limit Condensation of Water Vapor within the Building Envelope and on Interior Surfaces
54	Strategy 2.3 – Maintain Proper Building Pressurization
58	Strategy 2.4 – Control Indoor Humidity
64	Strategy 2.5 – Select Suitable Materials, Equipment, and Assemblies for Unavoidably Wet Areas
67	Strategy 2.6 – Consider Impacts of Landscaping and Indoor Plants on Moisture and Contaminant Levels
70	Objective 3 – Limit Entry of Outdoor Contaminants
72	Strategy 3.1 – Investigate Regional and Local Outdoor Air Quality
76	Strategy 3.2 – Locate Outdoor Air Intakes to Minimize Introduction of Contaminants
79	Strategy 3.3 – Control Entry of Radon
83	Strategy 3.4 – Control Intrusion of Vapors from Subsurface Contaminants
89	Strategy 3.5 – Provide Effective Track-Off Systems at Entrances
92	Strategy 3.6 – Design and Build to Exclude Pests
96	Objective 4 – Control Moisture and Contaminants Related to Mechanical Systems
98	Strategy 4.1 – Control Moisture and Dirt in Air-Handling Systems
101	Strategy 4.2 – Control Moisture Associated with Piping, Plumbing Fixtures, and Ductwork
103	Strategy 4.3 – Facilitate Access to HVAC Systems for Inspection, Cleaning, and Maintenance
106	Strategy 4.4 – Control Legionella in Water Systems addresses the control of Legionella
108	Strategy 4.5 – Consider Ultraviolet Germicidal Irradiation discusses the state of knowledge regarding UVGI
111	Objective 5 – Limit Contaminants from Indoor Sources
113	Strategy 5.1 – Control Indoor Contaminant Sources through Appropriate Material Selection
118	Strategy 5.2 – Employ Strategies to Limit the Impact of Emissions
122	Strategy 5.3 – Minimize IAQ Impacts Associated with Cleaning and Maintenance
125	Objective 6 – Capture and Exhaust Contaminants from Building Equipment and Activities
127	Strategy 6.1 – Properly Vent Combustion Equipment
129	Strategy 6.2 – Provide Local Capture and Exhaust for Point Sources of Contaminants
132	Strategy 6.3 – Design Exhaust Systems to Prevent Leakage of Exhaust Air into Occupied Spaces or Air Distribution Systems
135	Strategy 6.4 – Maintain Proper Pressure Relationships Between Spaces
138	Objective 7 – Reduce Contaminant Concentrations through Ventilation, Filtration, and Air Cleaning
140	Strategy 7.1 – Provide Appropriate Outdoor Air Quantities for Each Room or Zone
143	Strategy 7.2 – Continuously Monitor and Control Outdoor Air Delivery
147	Strategy 7.3 – Effectively Distribute Ventilation Air to the Breathing Zone
150	Strategy 7.4 – Effectively Distribute Ventilation Air to Multiple Spaces
152	Strategy 7.5 – Provide Particle Filtration and Gas-Phase Air Cleaning Consistent with Project IAQ Objectives
156	Strategy 7.6 – Provide Comfort Conditions that Enhance Occupant Satisfaction
159	Objective 8 – Apply More Advanced Ventilation Approaches
161	Strategy 8.1 – Use Dedicated Outdoor Air Systems Where Appropriate
165	Strategy 8.2 – Use Energy Recovery Ventilation Where Appropriate
167	Strategy 8.3 – Use Demand-Controlled Ventilation Where Appropriate
171	Strategy 8.4 – Use Natural or Mixed-Mode Ventilation Where Appropriate
175	Strategy 8.5 – Use the ASHRAE Standard 62.1 IAQ Procedure Where Appropriate
179	Part I References and Bibliography
182	PART II—Detailed Guidance Detailed Information for Design, Construction, and Commissioning for IAQ
183	Objective 1 – Manage the Design and Construction Process to Achieve Good IAQ Strategy 1.1 – Integrate Design Approach and Solutions Introduction
184	Current Trends call for Integrated Design
185	Indoor Environmental Quality is Best Served by Integrated Design Examples of Integrated Design Solutions Integration of Envelope, Illumination, and Mechanical Design
186	Integration of Interior Architecture with Illumination, Air Quality, and Thermal Control Strategies Use of Hybrid Ventilation, Occupant Control, and Daylight
187	Leadership and Communication with Integrated Design
188	The Importance of the Conceptual Design Phase Laying the Groundwork for an Interactive Process IAQ Considerations During Conceptual Design
190	IAQ Throughout the Design and Construction Phases
191	References
192	Strategy 1.2 – Commission to Ensure that the Owner’s IAQ Requirements are Met Introduction
193	Pre-Design Phase Commissioning Commissioning Team: Specialists Needed for IAQ Items
194	Owner’s Project Requirements for IAQ
197	Commissioning Scope and Budget Related to IAQ
199	Special Project Schedule Needs for IAQ Design Phase Commissioning IAQ Basis of Design (BoD)
201	Design Review for IAQ
202	Construction Process Requirements Construction Checklists for IAQ
204	Construction Phase Commissioning
206	Coordination for IAQ Review of Submittals for IAQ
207	Construction Observation/Verification for IAQ Functional Testing for IAQ
208	Systems Manual and O&M Training for IAQ Occupancy and Operations
212	References
214	Strategy 1.3 – Select HVAC Systems to Improve IAQ and Reduce the Energy Impacts of Ventilation Introduction HVAC System IAQ Design Principles Integrated Design Considerations
215	Energy Conservation and Environmental Considerations
216	Mixed-Mode Ventilation Displacement Ventilation Systems Thermal Comfort Considerations
217	User-Owner IEQ/IAQ Expectations Regional/Local and Project-Specific IAQ Issues Building Pressurization Control
219	Space Humidity Control
220	Particle Filtration Control
221	HVAC System Options and General IAQ Requirements Constant Volume (CV) with or without Reheat
223	Variable-Air-Volume (VAV) with Reheat
224	Dual Duct Dual Fan (DDDF) Systems
226	Multi-Zone Systems
227	Fan-Coil (FC) Systems
228	Fan-Powered Box (FPB) Systems
231	Self-Contained Air-Conditioning Systems
232	HVAC System Selection Procedure Integrated Design Choice Mechanism HVAC System Comparison Analysis
235	References and Bibliography
237	Strategy 1.4 – Employ Project Scheduling and Manage Construction Activities to Facilitate Good IAQ Introduction Building Conception Early Planning and Organization
238	Project Incentives/Goals Design Development Construction Products/Materials Selection Equipment Access and Installation Logistics
239	Phasing of Projects Construction Documents IAQ Schedule Requirements
240	Construction Sequencing of Construction Activities Schedule Compression
241	Operation of Permanent HVAC Equipment During Construction Inspection Access Post Construction Building Flush-Out
242	Retrofits and Remodels
243	References
244	Strategy 1.5 – Facilitate Effective Operation and Maintenance for IAQ Introduction Considering O&M Capabilities in System Selection
249	Involving O&M Staff in Planning, Design, Construction, and Commissioning
250	Providing O&M Documentation that Facilitates Delivery of the Design Intent
251	Owner’s Project Requirements and Basis of Design
256	Record Documents Commissioning Report
257	Operations Manual
259	Training Manual Maintenance Manual
261	Format of O&M Documentation
262	Providing O&M Training to Support Delivery of the Design Intent
263	Prioritizing O&M for IAQ
267	References and Bibliography
269	Objective 2 – Control Moisture in Building Assemblies Strategy 2.1 – Limit Penetration of Liquid Water into the Building Envelope Introduction Sources of Water Penetration
270	Design Features to Prevent Water Penetration Site Drainage
272	Foundation Design
276	Wall Design
277	Roof and Ceiling Assembly Design
281	Ice Dams
282	Construction Verification Pen Test Pen Test Example: Rainwater Protection Continuity
284	References and Bibliography
285	Strategy 2.2 – Limit Condensation of Water Vapor within the Building Envelope and on Interior Surfaces Introduction Designing for Airtightness Air Barrier Design Requirements
286	Air Pressures that Cause Infiltration and Exfiltration Wind Pressure
287	Stack Pressure HVAC Fan Pressure
288	Air Barrier Systems Continuity
289	Structural Support Air Impermeability
290	Durability Air Barrier System Requirements
293	Air Barrier Materials
294	Air Barriers Subject to Temperature Changes Roof Air Barriers
296	Controlling Convection in Enclosure Assemblies
299	Controlling Condensation due to Diffusion Recommendations for Building Enclosures
301	References and Bibliography
303	Strategy 2.3 – Maintain Proper Building Pressurization Introduction Design Considerations Climatological Requirements Regional and Local Outdoor Air Quality Requirements
304	Approach to Building Usage and Layout Building Orientation and Wind Load
305	Stack Effect
307	Building Envelope Planned Openings
308	Unplanned Openings HVAC System Airflow Considerations
309	HVAC System Dehumidification Capacity
310	Building Static Pressure Monitoring and Control Strategies
312	Economizer Considerations
314	Constant-Volume Exhaust Fan Considerations
315	Variable-Air-Volume (VAV) System Considerations Return Air Plenums Duct Leakage
316	Airflow Measurement
318	Verification of Pressurization Control
320	References
321	Strategy 2.4 – Control Indoor Humidity Introduction Principles of Indoor Condensation
322	What can go wrong?
325	Integrated Design Process Indoor Conditions, Loads, and Special System Capabilities
329	System Design Tips Dedicated Outdoor Air Systems (DOAs) Hot Gas Reheat
330	Variable-Air Volume (VAV) Small Packaged Systems
332	Special Spaces Dedicated Dehumidification Systems
333	Humidification Humidification Using Energy Recovery Ventilation
334	Type of Humidification System Location of Humidifier
335	Humidity Levels Maintenance Specification Monitoring Humidity and Automatic Control
336	References
337	Strategy 2.5 – Select Suitable Materials, Equipment, and Assemblies for Unavoidably Wet Areas Introduction Indoor Areas Subject to Repeated Wetting Problems Associated with Wet Materials
338	Materials Susceptible to Moisture Damage Selection of Moisture-Resistant Materials
344	References and Bibliography
345	Strategy 2.6 – Consider Impact of Landscaping and Indoor Plants on Moisture and Contaminant Levels Introduction Outdoor Plantings Green Roofs
347	Green Facades and Vertical Gardens
348	Indoor Plantings Potted Plants
349	Moisture Content, Water Activity, and Dampness
352	References
354	Objective 3 – Limit Entry of Outdoor Contaminants Strategy 3.1 – Investigate Regional and Local Outdoor Air Quality Introduction Assessment Determine Compliance with NAAQS Determine Whether Local Sources are Present NAAQS Particles Particulate Matter — PM10
355	Particulate Matter — PM2.5 Lead NAAQS Gases Ozone
356	Nitrogen Dioxide (NO2) Sulfur Dioxide (SO2)
357	Carbon Monoxide (CO)
358	Other Pollutants Dust Volatile Organic Compounds (VOCs) Odors
359	References
360	Strategy 3.2 – Locate Outdoor Air Intakes to Minimize Introduction of Contaminants Introduction Applicable Codes, Standards, and Other Guidance
364	Exhaust Vents
365	Cooling Towers, Evaporative Condensors, and Fluid Coolers
366	Laboratory Fume Hood and Exhaust Stacks Other Sources of Contamination Plumbing Vents
367	Wind Tunnel Modeling, Computer Simulations, and Computational Fluid Dynamics (CFD) Special Considerations for Packaged HVAC Units
371	References
373	Strategy 3.3 – Control Entry of Radon Introduction Why Radon Control is Important Sources of Radon Action Levels and Available Radon Measurements from U.S. Buildings
374	Assessment Regional Radon Potential
375	Local Radon Potential Other Considerations
377	Controlling Radon Entry Active Soil Depressurization (ASD)
381	Sealing of Radon Entry Routes
384	Building Pressurization
385	Quality Assurance of Radon Control Measures Quality Assurance Steps O&M Documentation and Training for Radon Control Systems
388	References and Bibliography
391	Strategy 3.4 – Control Intrusion of Vapors from Subsurface Contaminants Introduction
392	Screening and Assessment Federal Guidance
393	State Guidance ASTM E2600-08: A National Standard for Assessment of Vapor Intrusion in Real Estate Transactions
394	ASTM Tier 1 Screeningt
398	ASTM Tier 2 Screening
399	ASTM Tier 3 Assessment
400	Site Remediation and Institutional Controls Site Remediation
401	Institutional Controls Building Mitigation Relationship to Radon Mitigation Techniques Advantages of Mitigation as Part of Initial Design and Construction Regulatory Requirements
402	Interstate Technology & Regulatory Council (ITRC) Guidance
405	Active Soil Depressurization (ASD)
406	Sealing of Vapor Intrusion Routes Gas Vapor Barriers
408	Passive Venting
409	Building Pressurization
411	Other Approaches
412	Effect of Chemicals of Concern on Mitigation System Design Quality Assurance of Vapor Intrusion Mitigation Systems
413	Operation, Maintenance, and Monitoring of Mitigation Systems Synergies and Conflicts
414	References and Bibliography
417	Strategy 3.5 – Provide Track-Off Systems at Entrances Introduction Contaminants Tracked into Buildings by Occupants Landscaping and Building Approaches
418	Track-Off Systems Scraper Mats Absorption Mats Finishing Mats
419	Maintenance
420	References
421	Strategy 3.6 – Design and Build to Exclude Pests Introduction Pest Prevention Goals and Objectives Pests of Concern
423	Pest Entry Points
425	Pest Dispersal Throughout Building
427	Pest Access to Food and Water Resources
428	Areas of Potential Pest Harborage
431	Access for Maintenance and Pest Control Activities Appropriate Materials Selection for Sealing
434	Supplemental Pesticide Use
436	Construction Site Management
437	References
438	Objective 4 – Control Moisture and Contaminants Related to Mechanical Systems Strategy 4.1 – Control Moisture and Dirt in Air-Handling Systems Introduction
439	Outdoor Air Intakes and Air Inlet Areaways Filters and Microbial Growth in HVAC Equipment Water Accumulation in HVAC Drain Pans
440	Moisture Carryover from Cooling Coils Smooth and Cleanable Surfaces
442	Duct Liner Impact of Humidifier Moisture on Airstream Surfaces
445	References
446	Strategy 4.2 – Control Moisture Associated with Piping, Plumbing Fixtures, and Ductwork Introduction Limiting Condensation Limiting Leaks
447	Providing a Plumbing System O&M Guide References
448	Strategy 4.3 – Facilitate Access to HVAC Systems for Inspection, Cleaning, and Maintenance Introduction Access in Design Documents Locations that Facilitate Access
449	Minimum Clearance Distances Critical AHU Components
450	Air Distribution System System Balancing and Monitoring Access
451	Terminal Equipment Electrical Code Access Criteria
452	Access Door/Panel/View Port Requirements
453	Access During Construction Coordination with Trades Review of Submittals Field Changes
454	Monitoring Installations Unanticipated Access Requirements Compliance with SMACNA HVAC Duct Construction Standards
455	Repeated Access References
456	Strategy 4.4 – Control Legionella in Water Systems Introduction
457	Control of Legionella in Cooling Towers Proper Siting (Building Siting, Mists, Building Openings) Operation and Maintenance
458	Control of Legionella in Water Systems Storage Temperatures in Hot Water Tanks Design Considerations for Potable Water Systems Legionella in Other Water Systems Emergency Disinfection of Water Systems
459	Environmental Monitoring for Culturable Legionella
461	References and Bibliography
462	Strategy 4.5 – Consider Ultraviolet Germicidal Irradiation Introduction
463	UVGI in HVAC Systems UVGI and IAQ
464	Safety with UVGI
466	References
468	Objective 5 – Limit Contaminants from Indoor Sources Strategy 5.1 – Control Indoor Contaminant Sources through Appropriate Material Selection Introduction Contaminant Emissions: Basic Concepts
470	VOCs—Total vs. Target: Irritancy, Odor, and Health Impact
471	Semi-Volatile Organic Compounds (SVOCs)
472	Indoor Chemistry – Secondary Emissions
473	IAQ Guidelines, Standards and Specifications
475	Shades of Green – Environmentally Preferred Products
478	Product Information – Composition vs Emissions Emissions Behavior
480	Emissions Data: Available Information Manufacturer-Supplied Information: MSDSs
481	Labels: Content-Based
483	Labels: Emissions-Based
488	Emissions Databases
490	Priority Materials/Finishes/Furnishings Architectural Coatings
492	Flooring Materials
496	Composite Wood / Agrifiber Materials
499	Caulks, Sealants & Adhesives
500	Ceiling Tiles PVC Materials
501	Insulation Materials
502	Porous or Fleecy Materials Flame-Retardant materials
503	Structural Materials HVAC components
504	Office Furniture Systems
506	Office Equipment
509	References
520	Strategy 5.2 – Employ Strategies to Limit the Impact of Emissions Introduction Control of Emissions through Use of VOC Barriers
521	Material Conditioning and In-Place Curing
522	Local Exhaust of Unavoidable Sources
523	Staged Entry of Materials Delayed Occupancy Reasons to Avoid Use of Building Bake-Out
524	Building Flush-Out
525	Ventilation Rates and HVAC Schedules Indoor Environmental Conditions Filtration and Air Cleaning
526	References
527	Strategy 5.3 – Minimize IAQ Impacts Associated with Cleaning and Maintenance Introduction Selecting Durable Materials and Finishes that are Simple to Clean and Maintain
528	Recommending Cleaning Products with Minimal Emissions
531	Providing Appropriate Storage for Cleaning Products Recommending Cleaning Protocols that will have Minimal IAQ Impact
533	References
535	Objective 6 – Capture and Exhaust Contaminants from Building Equipment and Activities Strategy 6.1 – Properly Vent Combustion Equipment Introduction Capture and Exhaust of Combustion Products Chimneys (Nonmechanical, Natural Exhaust)
536	Induced Draft (Powered, Negative-Pressure Exhaust) Forced Draft (Powered, Positive-Pressure Exhaust) Design and Installation Outdoor Air for Combustion
537	Proper Operation and Maintenance of Equipment Commissioning
538	References
539	Strategy 6.2 – Provide Local Capture and Exhaust for Point Sources of Contaminants Introduction Capturing Contaminants as Close to the Source as Possible and Exhausting Directly to the Outdoors
540	Maintaining Area in which Contaminants are Generated at a Negative Pressure Relative to Surrounding Spaces
542	Enclosing Areas where Contaminants are Generated
543	References
544	Strategy 6.3 – Design Exhaust Systems to Prevent Leakage of Exhaust Air into Occupied Spaces or Air Distribution Systems Introduction Effectively Sealing Ductwork to Limit Potential for Duct Leakage
546	Providing a Proper Outdoor Discharge Position and Configuration
548	Maintaining Exhaust Ducts in Plenum Spaces under Negative Pressure
549	References
550	Strategy 6.4 – Maintain Proper Pressure Relationships Between Spaces Introduction Space Usage Common Space Types
551	Space Layout Space Envelope
553	Compartmentalization HVAC System Airflow Rate Considerations Airflow Monitoring and Control
555	Return Air Plenums Duct Leakage Airflow Measurement
556	Verification References
557	Objective 7 – Reduce Contaminant Concentrations through Ventilation, Filtration, and Air Cleaning Strategy 7.1 – Provide Appropriate Outdoor Air Quantities for Each Room or Zone Introduction Basic Theory
558	From Theory to Reality People-Related and Space-Related Ventilation Requirements Calculating Minimum Ventilation Rates for Each Zone Using the Ventilation Rate Procedure in ASHRAE Standard 62.1-2007
559	Occupancy Category
560	Boundaries for Zones and Corresponding Areas Adjusting Outdoor Airflow Rates Considering Increased Outdoor Airflow Rates when Outdoor Air Quality is Good Temporarily Decreasing Outdoor Airflow Rates Advanced Ventilation Design
562	References
563	Strategy 7.2 – Continuously Monitor and Control Outdoor Air Delivery Introduction Direct Measurement of Airflow Straight Ducts
564	HVAC Systems with Economizers
565	Small Packaged HVAC Systems Placement of Airflow Sensors
566	Accuracy and Calibration of Airflow Sensors
568	Indirect Methods of Measuring Minimum Outdoor Airs Plenum Pressure Control
569	The CO2 or Temperature Method Design Issues for Commissioning , Operation, and Maintenance
571	References
572	Strategy 7.3 – Effectively Distribute Ventilation Air to the Breathing Zone Introduction Zone Air Distribution Effectiveness The Effect of Ducted Systems on Air Delivery
574	Ducted Non-Ducted References
575	Strategy 7.4 – Effectively Distribute Ventilation Air to Multiple Spaces Introduction Constant Volume (CV)
576	Variable-Air-Volume (VAV) Secondary Recirculation
578	Parallel Fan-Powered Box Series Fan-Powered Box
579	Ducted vs. Plenum Return Transfer Fan Other Systems (Less Commonly Used) Changeover Bypass VAV Dual Fan Dual Duct
580	Induction Unit References
581	Strategy 7.5 – Provide Particle Filtration and Gas-Phase Air Cleaning Consistent with Project IAQ Objectives Introduction FAC Equipment Selection and Specification Guidance
583	Selection Guidance: Particulate Filters
586	Selection Guidance: Gas-Phase Air Cleaners
588	Air Capture and Seal
590	FAC System Location Using the IAQ Procedure
592	Design Process Protocol Performance Evaluation and Considerations of FAC Alternatives Particulate Filter Efficiency Evaluation—MERV
595	Gas-Phase Air Cleaner Efficiency Evaluation
596	Maximizing the Value and Performance of FAC Life-Cycle Analysis
598	How to Maximize the Life Cycle and Performance of FAC
601	Energetic Filters
603	References
604	Strategy 7.6 – Provide Comfort Conditions that Enhance Occupant Satisfaction Introduction Basic Thermal Comfort Zoning and Occupant Control
605	Part-Load Humidity and Velocity Control Operational Strategy and Design Implicationsy
606	Thermal Radiation Air Movement
611	References and Bibliography
612	Objective 8 – Apply More Advanced Ventilation Approaches Strategy 8.1 – Use Dedicated Outdoor Air Systems Where Appropriate Introduction Characteristics of DOASs 100% Outdoor Air Latent Load Capability Energy Recovery Components of DOASs Cooling Coils
613	Total (Enthalpy) Energy Recovery Sensible Energy Recovery Passive Dehumidification Component (PDHC) Active Desiccant Wheel
614	Air Distribution DOAS Combinations Enthalpy Energy Recovery + Cooling Coil Enthalpy Energy Recovery + Cooling Coil + Passive Dehumidification Component Other DOAS Combinations
615	References and Bibliography
616	Strategy 8.2 – Use Energy Recovery Ventilation Where Appropriate Introduction Types of Air-to-Air Energy Recovery Devices Energy Recovery Wheel
617	Fixed Plate with Latent Transfer Fixed Plate Heat Pipe Runaround Loops General Design Considerations Appropriate Filtration Controls
618	Sizing of Equipment Condensation Fouling and Corrosion Sensible Heat Ratio
620	References and Bibliography
621	Strategy 8.3 – Use Demand-Controlled Ventilation Where Appropriate Introduction DCV Applications DCV Systems Design Considerations
623	CO2-Based DCV
624	Design and Other Considerations
627	Code and Green Building Requirements for CO2-Based DCV Non-CO2-Based DCV
628	DCV in Multiple-Zone Systems
629	References
631	Strategy 8.4 – Use Natural or Mixed-Mode Ventilation Where Appropriate Introduction Natural/ Mixed-Mode/Hybrid Ventilation System Design Principles
633	Comfort Expectations Integrated Design
634	Applications for Natural Ventilation Cooling
635	Appropriate Climatic Conditions Appropriate Building Programming
639	Mixed-Mode Ventilation Contingency Mixed-Mode Zoned Mixed-Mode Changeover Mixed-Mode Concurrent Mixed-Mode Control of Ventilation
640	Automatic Integrated Control for Windows/Vents Complimentary Design Techniques
644	Design Tools and Calculations
645	Manual Calculations
646	Computerized Explicit Envelope Flow Models Cost-Benefit Analysis Capital Costs
650	References
651	Strategy 8.5 – Use the ASHRAE Standard 62.1 IAQ Procedure Where Appropriate Introduction History of the IAQP
652	When to Use the IAQP
653	Applying the IAQP Mass Balance
654	Successful Buildings Contaminant Air Monitoring or Testing
655	Combination with VRP
656	Process for Applying the IAQP IAQP Design Process Flowchart Selection of Contaminants of Concern (CoC)
659	Documentation References
660	Appendix A – Environmental Monitoring (Strategy 1.2)
666	Appendix B – Understanding Vapor Barriers (Strategy 2.2)
677	Appendix C – Dehumidification in Virginia (Strategy 2.4)
681	Appendix D – Separation of Exhaust Outlets and Outdoor Air Intakes (Strategy 3.2)
684	Appendix E – Additional Information on Radon Control (Strategy 3.3)
692	Appendix F – Additional Information on Material Emissions (Strategy 5.1)
707	Appendix G – Single-Path Multiple-Zone System Design (Strategy 7.4)
716	Appendix H – Carbon Dioxide Generation Rates (Strategy 8.3)

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ASHRAE	2014	718


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Standard Title	Indoor Air Quality Guide: Best Practices for Design, Construction and Commissioning, 2nd Edition
Published Code	ASHRAE
Publication Date	2014
Pages Count	718

ASHRAE IAQBestPractices 2ndEdition 2014

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