Environmental Compliance Guide for Facility Managers and Engineers

Rengasamy Kasinathan

• Publisher: CRC Press
• Year: 2022
• Print ISBN: 9780367755164
• eBook ISBN: 9781000620603
• Edition: 1
• Topic: Technology & Engineering
• Subtopic: Environmental Law
• Index: Technology & Engineering

A practical guide for facility engineers and managers to understand the impact of environmental regulations when applied to operating equipment in any industry or facility. It lays out a clear road map on how to learn the essential steps and how to use the proper tools. Based on the author's 39-year experience, this concise material discusses real-life applications and case studies adopted and implemented successfully in many NYC facilities and appropriate for large cities. It will help facility engineers comply with various rules and regulations of the jurisdictions of EPA, state, city, and local agencies and properly itemize reporting requirements.

Features include:

• Guides facility engineers and managers with a clear and logical exposition of topics, developments, and valuable regulatory frameworks for appropriate preparation and compliance

• Provides detailed explanations of procedures for emission reduction and improved efficiency and productivity

• Emphasizes the importance of continuing education in compliance to prevent high penalties for facilities

• Includes real-life applications and case studies on reducing energy baseline and current operating methods, providing formulas and calculations

• Addresses regulatory knowledge for operating systems in cities with a dense population in the US and countries with similar regulatory frameworks

This book will benefit professionals, engineers, facility and project managers, building and grounds supervisors, code compliance managers, and heating, ventilation, air conditioning (HVAC) systems contractors and installers in hospitals, universities, schools, and other facilities.

1
Environmental Regulations and Jurisdictions

DOI: 10.1201/9781003162797-1

Introduction

Pollution occurs when detrimental and potentially poisonous substances are present or introduced in an environment. Air, water, and solid waste pollution have altered the natural environment since early human history, but technological advances have expedited the negative effects of pollution since the 1800s. This has caused the need for innovation and regulation of pollution and its sources.

Environmental Impacts of Pollution

The different types of pollution impact the natural environment in a variety of ways. Air pollutants caused by industrial emissions, such as sulfur dioxide (SO₂) and nitrogen oxides (NO_x), react in the atmosphere, causing acid deposition. This deposition alters the chemistry of soil, trees, and freshwater sources, resulting in serious ecological consequences for species not able to handle these changes in the environment. Emissions of NO_x and non-methane volatile organic compounds (NMVOCs) can also produce toxic gas ozone, which damages crops and vegetation and contributes to atmospheric warming.

Both point-source and non-point-sources of water pollution can disrupt entire aquatic ecosystems. Point-source water pollution from an identifiable source, such as factories, can be easily regulated. Nonpoint-source water pollution from unknown sources such as agricultural runoff accounts for the majority of water pollution and is more difficult to control. The runoff can cause algal blooms, resulting in low-oxygen conditions that harm aquatic life. Other negative effects of nonpoint-source pollution include the degradation of coastal and marine environments and contamination of drinking water sources.

Solid waste pollution, or land pollution, occurs when solid or liquid waste degrades the earth’s land surfaces. Actions such as littering, urbanization, and mining have the potential to harm the natural environment. Land pollution can result in negative impacts such as contamination of drinking water and soil, increased wildfires, increased air pollution, and global warming.

Table 1.1 details common sources of pollution and the pollutants resulting from these processes. Facilities utilize chemical reactions to produce a desired product. However, this often results in unwanted byproducts that cause pollution. The resulting pollution can contaminate air, water, and soil.

TABLE 1.1 Common Pollution Sources and Pollutant Production

Pollution Source	Predominant Reactions	Prime Product	Air Pollutant	Water Pollutant	Waste Pollutant
Electric power plant	Fossil fuels + O2 → CO2 + H2O + heat	Heat/Power	CO2, SO2, NOx, particulate matter	Ash sludge, scrubber slurry	Dry bottom ash and fly ash
Chemical production plant	Raw materials + H2O + Energy → chemical product + by-product + Waste	Chemical products	Volatile organic compounds (VOCs)	Chlorinated solvents	Heavy metals
Petroleum refinery	Hydrocarbon molecule + heat + catalyst → refined hydrocarbons + Waste	Refined gasoline	Benzene, toluene, ethylbenzene, xylene (BTEX), CO, SO2, NOx, particulate matter	Contaminated wastewater from fluid processing	Oil spills

Human Health Impacts of Pollution

There are many different types of pollution-related diseases, including those caused by air pollution; water pollution; contaminated soil; and lack of water, sanitation, and hygiene.

Air Pollution

The World Health Organization (WHO) reports that approximately 90% of people breathe unhealthy air. Air pollution is the predominant cause of early death. Research indicates that as high as 5 million premature deaths each year occur from air pollution-related heart attacks, strokes, diabetes, and respiratory diseases. This number is more than the deaths from AIDS, tuberculosis, and malaria combined. It is reported that children, the elderly, people with existing diseases, and minority and low-income communities are particularly vulnerable to adverse health outcomes. Research further suggests that long-term exposure to some pollutants increases the risk of emphysema, mental health issues, low worker productivity, and even negative stock market performance. Diseases caused by pollution lead to the chronic illness and deaths of about 8.4 million people each year. Figure 1.1 shows worldwide deaths from air pollution by country per 100,000 people. Currently, nations with developing economies such as Afghanistan, Pakistan, and India have some of the highest death rates due to pollution, while nations with established economies and stricter regulations now report lower numbers of deaths. This trend is discussed further in Chapter 10.

FIGURE 1.1 Deaths from air pollution worldwide

Air Pollutants of Human Health Concern

The World Health Organization (WHO) recognizes six air pollutants as the top contaminants for human health concerns. They are particulate matter (PM), ground-level ozone (O₃), carbon monoxide (CO), sulfur dioxides (SO₂), nitrogen oxides (NO_x), and lead (Pb). These pollutants cause harm to human health as well as the ecosystem.

Particle pollution, or particulate matter (PM), is the contaminant predominately linked with most cardiac-related deaths from air pollution. PM is air pollution comprising solid particles and liquid droplets that range in size (10 µm to 2.5 µm) and chemical composition. While some PM like dust and dirt are emitted directly from known sources like construction sites or smokestacks (chimneys), other forms of PM are created as a result of chemical reactions and are emitted from sources like automobiles or industrial sources and power plants. Inhalation of PM poses the greatest health risk to humans, especially the inhalation of fine particulate matter less than 2.5 µm, which can enter the lungs and potentially infiltrate the bloodstream. PM inhalation has been known to cause premature death in those already suffering from heart disease or lung disease as well as nonfatal heart attacks, irregular heartbeat, asthma, and other respiratory symptoms. Reduced life expectancy due to cardiopulmonary and lung cancer is another result of long-term PM exposure.

Ground-level ozone (O₃) is a harmful contaminant formed when pollutants such as NO_x, emitted from cars, factories, and other industrial sources react in the presence of sunlight. Exposure to ground-level ozone can cause severe respiratory symptoms, especially to those with asthma, children, older adults, and those who spend a large amount of time outside. Ground-level ozone exposure can cause issues such as difficulty in breathing, sore or scratchy throat, susceptibility to lung infections, and inflammation of airways.

Carbon monoxide (CO) is a toxic air pollutant that is colorless and odorless. It is formed by the incomplete combustion of coal, wood, and other carbon-containing fuel sources. Vehicle emission is the primary source of CO pollution. In concentrations over 2%, CO can begin to cause headaches, dizziness, nausea, and even unconsciousness. For people with heart disease, the risk of chest pain increases with CO exposure. While CO poisoning is unlikely to occur outdoors, exposure to high levels indoors can lead to asphyxia and death.

Sulfur dioxide (SO₂) is a highly reactive air pollutant mainly caused by the consumption of fossil fuels and industrial activities. It has detrimental effects on plant and animal life as well as human health, particularly affecting the respiratory system. The human health impact of SO₂ exposure is especially dangerous for those who already have existing respiratory conditions, older adults, and children. High concentrations of SO₂ can also worsen asthma attacks and heart conditions.

Nitrogen oxides (NO_x) are also reactive pollutants which are produced through fossil fuel consumption by vehicles, power plants, and other industrial sources. Inhalation of NO_x-contaminated air can worsen respiratory symptoms like asthma and cause irritation in the lungs, eyes, and throat. Because NO_x pollutants are deep lung irritants, inhaling them can cause a build-up of fluid in the lungs called pulmonary edema.

Lead (Pb) can enter the air through industrial sources such as metal processing or the use of leaded fuels. If exposed, lead can enter the body and affect the blood and bones. This can lead to numerous negative impacts on the nervous sy...

Table of contents

• Cover
• Half-Title
• Title
• Copyright
• Dedication
• Contents
• Foreword
• Preface
• About the Author
• 1 Environmental Regulations and Jurisdictions
• 2 Agencies and Their Regulations as Applicable to Facilities
• 3 Facilities and Operating Sources
• 4 Permitting, Estimations of Pollutions, Testing, Monitoring, Recordkeeping, and Reporting
• 5 Streamlining of Regulatory Burdens
• 6 Roles and Responsibilities of the Facility-Operating Personnel
• 7 Environmental Audits and Mitigation
• 8 Enforcement and Economic Incentives
• 9 Compliance Management Systems
• 10 International Pollution Prevention Pacts, Treaties, and Accountabilities
• 11 Case Studies for Compliance in Facilities
• 12 Ethics for Engineers
• Appendix A: Compliance Audit Checklists
• Appendix B: EESCTS Software Copyright
• Appendix C: New York State Department of Environmental Conservation – Petroleum Bulk Storage (PBS) Inspection Form (https://www.dec.ny.gov/docs/remediation_hudson_pdf/pbsinspfrm.pdf)
• Appendix D: Typical Facility Safety Audit Checklist
• Appendix E: Typical Findings Report from an EPA Self Audit
• Index