M A I N E R E P O R T

PSR

BY

DEGREES

THE EMERGING

HEALTH CRISIS OF

CLIMATE CHANGE

IN MAINE

PHYSICIANS FOR

SOCIAL RESPONSIBILITY

PSR

BY

DEGREES

THE EMERGING

HEALTH CRISIS OF

CLIMATE CHANGE

IN MAINE

PHYSICIANS FOR

SOCIAL RESPONSIBILITY

Physicians for Social Responsibility

Robert K. Musil, PhD, Executive Director

Sharon Newsome, Director, Environment and Health Program

Karen Hopfl-Harris, JD, Associate Director

Joshua Speiser, MS, Grassroots Organizer

Maine Advisory Board

Elizabeth DeSombre, PhD, Colby College Professor of Government and Environmental Studies

Lani Graham, MD, MPH

Bruce Kenney, MD, Family Practitioner

Dan Meyer, PhD, Associate Professor Maine-Dartmouth Family Practice Residency

Syd Sewall, MD, Pediatrician

February 2000

2 DEATH BY DEGR EES

PHYSICIANS FOR SOCIAL RESPONSIBILITY

1101 Fourteenth St., NW, Suite 700

Washington, DC 20005

tel: (202) 898-0150

fax: (202) 898-0172

website: www.psr.org

This report was prepared by Physicians for Social Responsibility

to alert Maine residents to the damaging health effects of climate

change and to encourage them to reverse global warming’s

deadly course by reducing reliance on fossil fuels.

The Emerging Health Crisis of Climate Change in Maine 3

How Global Warming Could Threaten

Health in Maine

Numerous health hazards may increase as a result of global

warming. According to physicians who have studied global

warming and its effects, the most severe health risks in Maine

could include:

• More "extreme weather events," such as ice storms, hurricanes

and flooding, leading to more drownings, electrocutions and

other accidental deaths.

• More respiratory and cardiovascular disease, especially for

those with asthma, due to increased air pollution.

• More waterborne disease, such as intestinal distress from

drinking contaminated water or consuming toxins present in

fish and shellfish.

• More outbreaks of infectious disease spread by insects.

• More deaths and injuries, such as drownings caused by storm

surges, related to sea level rise and coastal erosion.

• More incidents of heat-related disease, such as heat stroke.

• More deaths and injuries due to forest fires intensified by

droughts, hurricanes and other extreme weather conditions

associated with global climate change.

The rapid rate of warming since 1976, 0.35 degrees per decade, is consistent with the

projected rate of warming based on human-induced effects. In fact, scientists now say

that they cannot explain this unusual warmth without including the effects of both

human-generated greenhouse gases and aerosols.

—D. JAMES BAKER, ADMINISTRATOR,

U.S. NATIONAL OCEANIC AND ATMOSPHERIC ADMINISTRATION

The world is getting warmer at an unprecedented rate,

never before seen in recorded history. Climate fluctuations have occurred

during previous centuries, but at the dawn of the 20th century, a warming

trend took hold that shows no signs of stopping.1 During the past one

hundred years, average global surface temperatures have increased by

approximately 1 degree Fahrenheit. Eight of the warmest ten years on

record happened in the last decade.

Although uncertainties exist

in measuring this complicated

phenomenon, an overwhelming

consensus has emerged over the

last decade among scientists on

several key points. First, the

increase in temperature is real.

Second, human activities—in

particular our burning of fossil

fuels—are affecting the climate

system.2 Third, warmer conditions

on Earth will directly affect our

lives and well-being.3

This report describes how the

changing global climate will impact

human health. Our focus is on

Maine, a state that is likely to

experience more health problems

and increased mortality due to the

expected changes.

4 DEATH BY DEGR EES

Maine: A State At Risk

The world is definitely warmer than it was 150 years ago, and the warming appears to

have accelerated during recent decades. Many of my students are very concerned. They

are worried about how these changes could affect their lives and, in the future, the lives

of their children. I think their concern is justified. It’s a dangerous game we’re playing

now, altering natural systems.

—DR. OLAF ELLERS, DIRECTOR OF THE COASTAL STUDIES CENTER,

BOWDOIN COLLEGE, BRUNSWICK, MAINE

"As Maine goes, so goes the nation" was a common phrase during the

1800’s.5 Then the saying referred to how the state voted two months before

the rest of the country. Now it may apply to the way in which Maine reacts to

the health threats posed by global climate change.

These threats include heat stroke, respiratory illness, hypothermia, cardiac

arrest and carbon monoxide poisoning, all of which can be triggered by

temperature extremes. Maine already experiences extreme temperatures

during the winter and summer

months.6 However global warming

likely will lead to more such days of

excessive cold and heat.

Maine residents also can expect to

see a greater number of injuries and

deaths resulting from surges, and

other natural forces, that can develop

during storms.7 That is because both

Nor’easters and hurricanes could

become more frequent and severe.

The National Weather Service says

global warming impacts could result

in 10 to 20 foot storm surges along

Maine’s shoreline.8

Floods and droughts could occur

on a more regular basis, increasing

the risk of water contamination and

gastrointestinal illnesses.9 Water

quality problems in rivers such as the

Androscoggin, where pollution

already poses health risks, could be

exacerbated.10

Further water contamination could

occur due to rising sea levels, which could bring saltwater into drinking water

supplies. Increased sea level rise also could lead to more severe flooding of

low-lying property, loss of coastal wetlands, erosion of beaches, and decreased

longevity of low-lying roads, causeways and bridges.11

Maine can expect more severe cases of asthma and other respiratory

problems associated with elevated ozone levels. At present, ozone in Maine

causes breathing difficulty for 395,000 people, approximately one-third of the

population.12

The Complex Origins of Climate Change

Since the end of the last Ice Age 10,000 years ago, temperatures

worldwide have risen about 9 degrees Fahrenheit, mainly due to

natural changes in the geographical distribution of the sun’s

energy and in the amounts of dust, carbon dioxide and other

gases in the atmosphere.

In recent years, the rate of increase in temperatures has been

accelerating. On any given day, the average temperature is about

1 degree F higher than a century ago. Eight of the ten warmest

years in recorded history occurred in just the last decade, with

1998 topping them all.

Human activities are among the most important factors

making Earth warmer. When motor vehicles burn gasoline and

electric utilities burn coal, they release carbon dioxide and other

gases into the atmosphere that trap warm air near Earth’s surface,

in much the same way as glass panels trap warm air inside a

greenhouse—hence the term, "greenhouse effect." Over the past

200 years, the concentration of greenhouse gas in the atmosphere

has increased by 30 percent. The gas will remain there for

centuries, trapping heat and putting human health at risk.4

The Emerging Health Crisis of Climate Change in Maine 5

Economically, Maine also has much at stake, as many residents make a

living from natural resource industries, such as lumber, tourism, agriculture,

and fishing.13 Each of these industries could be adversely impacted by global

climate change, leading to possible job losses. Without sufficient income, some

residents may be unable to afford health insurance.

Making matters worse, numerous Maine citizens already are vulnerable to

the effects of climate change. These include the young, the infirm, and the

elderly. Young individuals are at risk because their immune system, and other

protective systems, have not yet fully developed.14 In the case of heat stress,

for example, sensitivity to heat is greatest in children less than a year old

whose heat regulatory systems have not yet developed to adult potential.15

The infirm are at risk because they are sensitive to heat stress, air pollution,

and other possible effects of global warming. Certain medications, such as

those taken for treatment of AIDS or kidney transplants, also increase sensitivity.

16 The elderly are at risk due to a host of factors, including a possible

drop in the efficiency of their heat-regulating systems, an increase in the

temperature at which sweating begins, a decrease in the ability to perceive

changes in temperature, and pre-existing conditions, such as cardiovascular or

pulmonary diseases.17 Given that the percentage of individuals 65 years old

Energy from the sun drives Earth’s weather and climate, as shown in this illustration. Water vapor, carbon dioxide and other

atmospheric greenhouse gases trap some of the sun’s energy, creating a natural "greenhouse effect." However, problems arise

when the greenhouse effect is enhanced by human-generated emissions of greenhouse gases, such as through the burning of

fossil fuels.

ATMOSPHERE

FIGURE 1

The Greenhouse Effect

Some solar radiation is

reflected by the Earth and

the atmosphere.

Some of the infared radiation

passes through the atmosphere,

and some is re-emitted in all

directions by greenhouse gas

molecules. The effect of this is to

warm the Earth’s surface and

the lower atmosphere.

Most radiation is

absorbed by the Earth's

surface and warms it.

Infrared

radiation is

emitted by the

Earth's

surface.

6 DEATH BY DEGR EES

and over in the state now exceeds the national average,18 many Maine

residents could be hit hard by the effects of global warming.

Maine, like the rest of the country, needs to be deeply concerned about the

impact of climate change on the health of its population.

Are we already experiencing the effects of global warming?

No one knows better than Maine residents that there has always been the

occasional hot summer, or the unusually bad storm. Such events do not

necessarily indicate a long-term pattern. But trends in recent years correspond

closely to computer predictions of climate change, and may well be warning

signs. These include:

• More prevalent extreme weather conditions, exemplified by this year’s winter. Until

January 2000, much of the state experienced over 300 days without snow,

record high temperatures, and 2 1/2 inches below normal rainfall this winter.

19 In less than a week this dramatically changed, as a deep freeze settled

over New England, plummeting the wind-chill by as much as 100 degrees.20

• A spate of heat waves. Nationwide, the number of heat-stressed days has

approximately doubled during the past 50 years. New England is no exception.

Last spring, the driest April on record unfolded into one of the worst

droughts in history. It killed more than 270 people in the Northeast.21

• Rising sea levels along Maine’s coast. For the last 2,000-3,000 years, sea levels

rose about .8mm (.0026 feet) per year. Now that rate has doubled in most

areas, and even tripled around cities such as Eastport.22 This has led to

growing concern among Maine’s coastal communities about property

damage, coastal erosion, and drinking water contamination.23

Such trends are further brought to light in countless scientific reports.

Of note most recently, the National Academy of Sciences presented a 71-page

document that states there is no question Earth’s warming has accelerated

during the past two decades.24 On January 19, 2000, NASA’s Jet Propulsion

Laboratory issued a release stating that the persistence of La Niña and

El Niño events, which cause warmer and cooler than normal sea-surface

temperatures, may be part of a larger, long-lasting climate pattern.25

The following sections describe the specific health effects that are predicted

to result from global warming over the next 50 or 100 years, together with

supporting evidence. In some cases, there is a high level of certainty about the

predictions. In others, the evidence is less definitive. For all cases, there is

reason for concern.

The Emerging Health Crisis of Climate Change in Maine 7

More Extreme Weather Events Leading to More

Heat-Related Illness, Drownings, Electrocutions, and

Other Accidental Deaths

Global warming means not only warmer temperatures, but also more

unpredictability in weather patterns and more extreme weather conditions.26

The concentration of greenhouse gases that cause global warming increases

heat and moisture in the atmosphere. Heat and water vapor create instability,

leading to more frequent, and possibly more severe, weather activity.27 In

addition, the effects of changing weather patterns associated with melting

polar ice are expected to be felt more strongly in northern areas, such as

Maine.28

All of this could mean more ice storms, floods, hurricanes, Nor’easters,

droughts, heat waves and other natural disasters. Although Maine is

accustomed to rapid and extreme swings in weather conditions,29 the events

forecasted to occur with global climate change may be surprising and severe.

Already Maine sustains incredible damage from natural disasters. In 1998,

for example, Maine was the eighth highest-ranked state in the country for

receiving federal disaster funds.30 Insurance losses and federal disaster aid

allocated to Maine that year totaled $144,048,658.31

Extreme weather conditions can have wide-reaching health impacts.

They can cause accidents, illnesses, injuries, and deaths. They can disrupt

electrical power supplies, compromise access to public service broadcasts, and

contaminate drinking water supplies, thereby placing populations in jeopardy.

Downed electrical power lines and leaks from natural gas, or propane, tanks

can cause fires, electrocutions, or explosions. Intense rainstorms can cause

floods that wash raw sewage into drinking water supplies and spread infectious

diseases such as salmonella, cryptosporidiosis, and giardiasis. Ice storms,

hurricanes, and droughts can intensify forest fires, possibly leading to injuries,

fatalities, and respiratory illnesses. Residents displaced from their homes by

floods and hurricanes also may experience psychological problems, ranging

from depression to post-traumatic stress syndrome.32

Depending on their severity, extreme weather events can tax, or even

cripple, emergency care systems. A survey of hospital emergency departments

in Maine found a 47 percent increase in the number of patients treated

during the ice storm of 1998.33 The loss of power that often occurs during

such storms can result in an inability to run oxygen machines and other

necessary medical equipment. This may endanger the health of many citizens,

particularly those at most risk.34

Direct Effects Of Heat On Health

While average global temperatures have increased by 1 degree Fahrenheit,

temperatures in Maine appear to be rising at a much higher rate. For

example, over the last century, the average temperature in Lewiston has

increased 3.4 degrees Fahrenheit.35 Already, there are 11 more frost-free days

in New England than there were two decades ago.36 This upward trend is

predicted to escalate. By 2100, average temperatures could increase by a full

8 DEATH BY DEGR EES

8 degrees F.37 To put this into perspective, for hundreds of millions of years,

average temperatures across the globe have varied by no more than five to

seven degrees. The average global temperature at the time of the last ice age

was only nine degrees lower than temperatures are today.

Heat waves also have been on the rise in New England for the last 20

years. In Portland, Maine the number of 3-day heat waves went from 4 in

1956–1965 to 21 in 1986–1995.38 In addition, the northeastern United States

is seeing a rise in maximum daytime temperatures, along with higher nighttime

minimum temperatures.39

Heat can directly affect health, as explained below. Often heat leads to

high humidity, which can interfere with the body’s ability to cool itself

through perspiration. In Boston, the nearest city in New England for which

heat wave projections have been made, one study predicts that a warming of

Air Conditioning: The Vicious Cycle

Although residents of warmer states seem to acclimate

to hot temperatures, one of the sad lessons of the heat

waves of the 1990’s is that people who are unused to

hot weather and who do not have air conditioning

suffer the most. In the deadly 1995 Chicago heat wave

that killed over 600 people, the highest casualties were

among elderly residents with no air conditioning.

Unlike previous heat waves, overnight temperatures did

not drop sufficiently to provide much needed relief.

Minimum nighttime temperatures increased abruptly in

the 1970’s and are on the rise, thus the cooling effect

of night air is no longer available during heat waves.40

About one-third of households in the Northeast do

not have any form of air conditioning.41 Maine, with its

occasional heat waves, could also therefore be

susceptible to increases in heat-related deaths.42

Considering that temperatures across many parts of

Maine, such as Lewiston, have already increased over

3 degrees this century,43 the potential for disaster is

certainly present. Already, nearby New Hampshire has

had to receive federal emergency funds, for 1999’s

summer heat wave, to assist its residents who are most

vulnerable to extreme climate changes.

Those who can afford air conditioning are likely to

use it more as the weather gets warmer. Demand for

air conditioning throughout New England and the

Northeast already was at record levels in the exceptional

heat during the summer of 1999.44 This certainly

was true as well for Maine, as evidenced by the

increased energy output during this time by the Wyman

Station power plant on Cousins Island near Yarmouth.

The hotter it gets, the more the demand for air

conditioning increases. The increased energy used to

provide air conditioning can result in more greenhouse

gas emissions in the atmosphere that may cause global

warming, as well as increased emissions of other air

pollutants from power plants. Taxed power plants

powering air conditioners emit fine particulate matter

(PM)45 and are believed to be the biggest (per measurable

point) source of air pollution concentrations along

the East Coast.46 In 1998, the Wyman Station plant ran

about twice as much as normal in July to meet a high

demand for power in New England. PM from the plant

was said to be heavy enough to coat cars, homes,

boats, and lawn furniture with thick layers of soot.47

PM is possibly the greatest consistent threat to

respiratory health. Health effects of inhaling PM include

premature death, increased hospital admissions and

emergency room visits, increased respiratory symptoms

and disease, decreased lung function, alterations in lung

tissue and structure, and changes to respiratory tract

defense mechanisms. Sensitive groups that appear to be

at greater risk from such effects include the elderly,

individuals with respiratory disease, such as asthma,

and children.

As weather heats up, people with respiratory

illnesses who do not have air conditioning are more likely

to keep their windows open to allow for air circulation.

Unfortunately, it is during the summer months that air

pollutant levels are at their highest, thus increasing the

chances of exposure to PM and ozone, another air

pollutant that increases as temperatures rise and can

exacerbate asthma and other respiratory conditions.

To make matters worse, a disproportionate number of

asthma sufferers are poor, and therefore are less likely

to be able to afford adequate air conditioning.48

The Emerging Health Crisis of Climate Change in Maine 9

3 degrees Fahrenheit could increase heat-related deaths during a typical

summer by 50–100 percent.50

Heat can lead to severe health problems such as heat cramps, heat exhaustion,

exertional heat injury, and heat stroke. In addition to heat and humidity,

risk factors for these conditions include advanced age, lack of air conditioning,

and use of certain medications. Vulnerable populations, including the

elderly, children, infants, and the infirm, will suffer the most. Cardiovascular

diseases, such as coronary heart disease, also are a risk factor.51 Maine

currently has the highest death rate from heart disease in New England.52

Heat cramps are muscle spasms that primarily affect people who exert

themselves through strenuous work or exercise. These cramps are believed to

be caused by mineral imbalances. Salt and water replacement usually relieves

them. A more severe condition is exertional heat injury, which commonly

occurs among runners who are not properly conditioned and hydrated. The

body can reach 102 to 104 degrees, with symptoms that include goosebumps,

chills, nausea, vomiting, and unsteady gait. In severe cases, people may have

incoherent speech, or even lose consciousness. Muscles, kidneys, and blood

cells may be damaged.

Heat exhaustion, or heat collapse, is the most common heat-related

condition. It occurs when the cardiovascular system cannot keep up with

heat demands. An affected person feels dizzy, weak, cold and clammy, and

has ashen skin and dilated pupils. The individual may require hospitalization.

53 At greatest risk are infants, small children, the elderly, those working

or exercising outdoors, persons with impaired mobility, and individuals

suffering from cardiovascular disease.54 When moved to a cool place, a victim

of heat exhaustion usually recovers.

FIGURE 2

Occurrence of deadly heat waves on the rise in Maine

Along with the increase in

average global surface

temperatures during the past

several decades, there has

been a dramatic increase in

the occurrence of deadly

heat waves. This graph shows

the rise in number of 3 and 4

day heat waves in Portland,

Maine over 10 year periods

from 1956–1995.49

Source: National Oceanic and

Atmospheric Administration .

No. of 3- and 4-day heat waves

1956–65 1966–75 1976–85 1986–95

21

18

15

12

9

6

3

0

3-day 4-day

4

3

13

7

15

9

21

14

10 DEATH BY DEGR EES

Heat stroke, the most severe of these conditions, can be fatal. If body

temperature reaches 106 degrees or above, damage to the kidneys, muscles,

heart, and blood cells is likely. Sweating stops altogether. Death may come

immediately, or could be delayed until several weeks later.55 The public health

burden of heat waves is compounded, as excessive heat increases the death

rate for other medical conditions.56

Hypothermia, Carbon Monoxide Poisoning, and Other Health

Problems Associated with Ice Storms

The ice storm of 1998 was one of the worst events I’ve ever lived through. I think a lot

of Maine residents would agree with me on that. Many of the health effects were

unexpected, such as people falling off of roofs or succumbing to carbon monoxide

poisoning. I hope that we never experience anything like this again. But the potential is

there, given current global warming patterns.

—ELIZABETH DESOMBRE, PROFESSOR OF ENVIRONMENTAL STUDIES & GOVERNMENT,

COLBY COLLEGE, WATERVILLE, MAINE

While average temperatures are expected to rise in Maine in the winter, the

increased variability of the climate may also mean winters with more days of

extremely low temperatures.57 Over the next several decades, the state can

expect much heavier precipitation in the winter. Some estimates for New

England forecast precipitation increases on the order of 25 to 50 percent.58

And certain models predict precipitation changes for Maine that include

little change in spring, an increase by 10 percent in summer and fall (with a

range of 5–15 percent), and an increase of up to 30 percent in winter

(with a range of 10–50 percent).59

As average temperatures increase, more of Maine’s winter precipitation

may fall in the form of rain, sleet and ice, increasing the likelihood of events

such as the ice storm of 1998, which caused an estimated $320 million in

direct costs for Maine, plus $300 million for repair of long-term forest

damage.60 Although the conditions necessary for the formation of ice storms

are hard to predict, some scientists expect that warmer winter temperatures

will lead to more ice storms in the future.61

Unexpectedly cold weather and large snowfalls can pose a variety of possible

health risks, such as accidents, hypothermia and cardiac-related deaths.

• Hypothermia, an unintentional lowering of the core body temperature to less

than or equal to 95 degrees Fahrenheit, is a deadly medical emergency.62

From 1979 to 1995, 1 out of approximately every 333,000 people in Maine

died from a hypothermia-related illness.63 Already, 1 individual in Maine

has died from hypothermia during the winter of 2000.64 Early signs of

hypothermia often are insidious. They include shivering, numbness, fatigue,

poor coordination, slurred speech, impaired mental state, blueness or

puffiness of the skin, and irrationality.65 Other clinical problems may include

blood, respiratory, renal and glandular abnormalities. Coma, low blood

pressure and cardiac irregularities characterize severe hypothermia.

The Emerging Health Crisis of Climate Change in Maine 11

• Heart failure is a disabling chronic disease that is the leading principal

diagnosis for hospitalization among older adults.66 People with heart problems

are vulnerable to temperature extremes because their cardiovascular

systems must work harder to keep their bodies regulated.67 The predicted

increase in the number and severity of ice storms could, therefore, lead to

more deaths due to cardiovascular disease. Already Maine has a high death

rate for this condition, with 276 individuals dying of heart failure in 1995

alone.68

The Ice Storm of 1998

The extreme weather events projected to occur as a

result of global climate change may be exemplified by

the severe ice storm that hit Maine, as well as much of

the northeastern United States and southeastern

Canada, from January 5 through January 9, 1998. No

one who lived in Maine at that time could forget this

storm, even long-time residents who have seen their

fair share of inclement weather.

The storm began innocently enough on a Monday

morning with freezing drizzle. As the day progressed,

the drizzle turned to freezing rain—a rain that did not

let up until late Friday.69 By Saturday morning, January

10, much of the state was dangerously encased in 1 to

9 inches of ice.70 The town of Gray declared a state of

emergency, and residents were asked to stay indoors

due to the risk of falling ice and other hazards. In

parts of northern Maine, more than two feet of snow

fell during the week and 6 to 10 inches of sleet were

reported in parts of north central Maine.71

Statewide, the storm knocked out power to about

365,000 customers, affecting 840,000 people, or

about 70 percent of the state’s population of 1.2

million. About one third of those that lost power were

without electricity for more than a week. For some, the

electricity was off for up to 3 weeks. During this time,

residents and those involved with the restoration efforts

had to contend with snow, additional freezing rain,

rain, slippery roads, falling ice and other debris, subzero

temperatures, strong winds, and dangerous wind

chills. For many homes, the lack of electrical power

also meant no heat, no running water, and no means

for cooking food.

Damage to property and public lands was

extensive, and still persists to this day. By late April

1999, the storm had damaged an estimated $300

million worth of timber and most of the maple trees

used for syrup were hurt severely, affecting the

economic well-being of many residents.72 Numerous

trees turned into "widow makers," whose dangling,

heavy limbs could fall and crush anyone who works,

walks or drives through wooded areas. At least 4

communication towers fell during the storm. In the Bar

Harbor area, a 1/2-inch guy wire was reported to be

encased in ice 9-inches in diameter.73 At least 5 deaths

were attributed to the storm. Two men died in separate

incidents from carbon monoxide poisoning from

inadequately ventilated generators. Carbon monoxide

poisoning actually reached epidemic proportions in

Maine at this time, with over 400 people treated at local

hospitals. One man died when a tree fell on him as he

was cleaning up debris. Tragically, an elderly man died

of hypothermia after he fell down a flight of stairs in his

dark, unheated home. Yet another man was crushed by

the roof over a gas station island which was weighed

down with ice and snow from the storm.74

The ice storm led to further accidents, as well as

illnesses. A survey of three hospitals after the storm

showed a marked rise in bone fractures, neck injuries,

eye injuries, non-fracture muscle and bone injuries,

cases of cold exposure, burns, lower respiratory tract

illness, cardiac disease, acute gastrointestinal distress

and even increases in alcohol, substance abuse and

mental health problems.75 A survey among residents

further revealed incidents of vomiting, cough with fever

and severe headaches with dizziness. The direct cause

of these conditions was not specified. Many of these

people dangerously were left without power or

telephone service for almost the entire month.76

The storm left a heavy price tag in its wake, not

only in terms of the damage to human health and

property, but also economically. Numerous disaster

shelters were set up throughout affected areas.

President Clinton declared a federal disaster and more

than $13.7 million was provided in federal assistance

to Maine.77 Overall, the storm cost the United States

$1.4 billion and $3 billion in Canada.78

12 DEATH BY DEGR EES

Most of us are aware of the risks posed by heart failure and hypothermia,

but the ice storm of 1998 showed that a number of less familiar problems

result from such weather events. After the ’98 storm, both the Maine Bureau

of Health and the Centers for Disease Control and Prevention developed a

community needs survey to assess the potential health hazards to residents of

the state who remained without power.79 The assessment revealed that individuals

experienced a variety of health problems following the storm, including

vomiting, diarrhea, cough with fever, severe headaches with dizziness,

burns, lower respiratory tract disease and severe cuts.80 Other than the ice

storm itself, the report does not list the specific causes of these conditions.

The devastating ’98 storm further showed the health risk posed by carbon

monoxide, as carbon monoxide poisonings reached epidemic proportions

statewide. Between 300 and 400 people were treated at area hospitals, possibly

the largest outbreak of carbon monoxide poisoning ever in the nation.81

Carbon monoxide poisonings can occur during blizzards when people sit in

idling automobiles with exhaust pipes blocked by snow.82 Poisonings may also

occur during power outages, when people often use unvented residential

appliances such as stoves and heaters.83 Inadequately ventilated generators

pose another risk, and led to the deaths of two Maine men in 1998. Kerosene

and propane-fueled space heaters, gas-fueled log sets, and cooking devices

used improperly for heating can expose people to potentially hazardous levels

of carbon monoxide, as well as other toxic gases.84

Carbon monoxide is an odorless, colorless gas that can attach itself to

hemoglobin, impairing the oxygen-carrying capacity of the blood and starving

a body’s tissues and organs of oxygen.85 The poor and the elderly especially

are vulnerable to carbon monoxide poisoning. As of 1996, 11.2 percent of

Maine’s population lived below the poverty level,86 many of whom were

youths under the age of 18.87 The poor are less able to afford proper heating

systems, and often live in crowded housing with inadequate ventilation,88

factors that heighten the risk for carbon monoxide poisoning. The elderly are

vulnerable due to decreased lung capacity,89 pre-existing health conditions,

and other factors. 13.9 percent of Maine’s population is 65 years old and

over,90 a figure that increases every year.

Health Threats From Snowfall Extremes: The Winter of 1999–2000

Carbon monoxide poisoning, hypothermia, heart failure and weatherrelated

accidents also may occur as a result of extreme snowfall. Climate

change models predict more variability in snowfall conditions, which can lead

to such extremes. These conditions are evidenced by the winter of 1999–

2000. Already, this year’s winter promises to break many records. For

example, only trace amounts of snow fell in the city of Portland during

December, 1999. Normal snowfall for that time of year is 17 inches.91 This is

the smallest quantity of snow in 119 years of December snowfall records.92

Snow finally came on January 16, 2000, but, at 8 inches, was heavy, and

accompanied by bitter cold and strong winds. Temperatures in the single digits

and wind gusts of 30 to 50 miles per hour made the temperature feel as cold

as 50 degrees F below zero.93 3,500 Maine residents lost power in the cities of

Belgrade, Mount Vernon, Manchester, Oakland and Rome. Another 500

The Emerging Health Crisis of Climate Change in Maine 13

customers lost power in Denmark and Sebago.94 Hazardous road conditions

affected drivers. At least one death was attributed to the harsh snowfall and

storm.95 Snow and ice conditions increased the number of distress calls for

inadequate heat.96

More Illnesses, Injuries And Fatalities Related to Precipitation,

Floods, Thunderstorms and Hurricanes

Over the next several decades,

precipitation in Maine is projected to

show little change in spring, increase

by 5–15 percent in summer and fall,

and increase by 10 to up to 50 percent

in winter.97 The amount of rain

on extremely wet days also is predicted

to increase. Such heavy rainfalls

can cause flooding, especially

when combined with sea level rise,

which is already a problem

throughout much of Maine.

Floods cause an average of 146

deaths per year nationwide, most of

which are due to drownings associated

with motor vehicles in flash

flood conditions.98 Monetary damages associated with floods usually are steep.

Just one flash flood in 1997 at North Monmouth caused $250,000 damage to

roads and $100,000 damage to homes.99 Floods also may result in cases of

infectious disease, through contamination of drinking water supplies by

bacteria and parasites. The most common of these illnesses, diarrhea, usually

lasts only a few days. For individuals with weakened immune systems, however,

this condition can be long-lasting and even fatal.

Floodwaters can contain fecal material from industrial and agricultural

byproducts, and overflowing sewage systems. Maine’s farming communities,

in particular, face risks when pastures and crop fields are flooded. Although

skin contact with floodwater does not, by itself, pose a serious health risk,

there is a threat of disease from eating or drinking anything contaminated

with floodwater. Floods may cause not only physical, but also mental, illnesses.

Residents displaced from their homes may experience psychological

problems, ranging from depression to post-traumatic stress syndrome.100 These

problems could hit hard in Maine, since numerous residents, especially the

elderly, have lived in the same region and home for much of their lives.

In addition to an increased risk for floods, climate change may also

heighten chances for more turbulent thunderstorms, due to predicted increases

in atmospheric instability. As it stands, severe thunderstorms already

are cause for concern in Maine. For example, a thunderstorm in the town of

Westbrook during August, 1998, created extensive damage.101 Many homes

and vehicles were struck by falling trees. Wind gusts of up to 70 miles per

hour left more than 30,000 homes without electricity. The cost for repairs

totaled well over 2 million dollars.

14 DEATH BY DEGR EES

Lightning from such events causes deaths and injuries in Maine each year.

On just one day—February 22, 1997—a lightning storm sent nearly a dozen

people to hospitals in the towns of Oxford and Greenville.102 Even more

injuries and fatalities due to lightning are expected to occur as a result of

global warming.

More Droughts Predicted

We have begun to experience drought conditions in the summer, which not only affect

our ability to grow crops, but also potentially impact our access to clean drinking water

from our wells. With drought, sometimes water in the wells gets so low that "septic tank

water" or saltwater—if the homes are on the coast—can intrude.

—PAM PERSON, PROGRAM DIRECTOR, COALITION FOR SENSIBLE ENERGY,

AND CO-CHAIR, MAINE GLOBAL CLIMATE CHANGE INC.

It may seem odd to think about droughts alongside floods and increased

rainfall, but a variable and unstable climate that can shift from one extreme

to another is precisely what global warming is likely to bring. The climate

shifts predicted by some global climate change models may increase the

frequency and severity of New England droughts.104

On average, New England experiences moderate drought conditions about

once every ten years.105 The worst episode this century was in the mid-1960’s.

More recently, a prolonged drought occurred in the summer of 1997. In

No. of days after Dec. 31

FIGURE 3

Ice Out on Moosehead Lake, Greenville, Maine

The date of "ice out" (the

date at which ice melts) on

Moosehead Lake has been

reported since 1848. The

data shown assigns a

numbered day of the year to

each reported date, based

upon the number of days

after December 31st. For

example, January 1 = 1 and

February 1 = 32. The trend

line indicates a tendency to

earlier dates, suggesting less

severe winters and earlier

spring conditions, both of

which are predicted to occur

as a result of global

warming.103

Source: Publius Research

1848 1868 1888 1908 1928 1948 1968 1988

100

110

120

130

140

150

160

The Emerging Health Crisis of Climate Change in Maine 15

addition to economic losses, drought can result in water shortages, which can

impair local sewer systems or force individuals to curtail their use of water for

hygiene, washing food, and managing crops. Most of Maine experienced a

severe drought in the summer of 1999, accompanied by reports of wells

running dry and water shortages. More than 60 percent of Maine households

draw their drinking water from groundwater supplied from private or public

wells or springs.106 These individuals

may be particularly vulnerable to the

effects of drought.

Droughts also concentrate

microorganisms in water supplies

and encourage pests such as aphids,

locusts and whiteflies that can

damage crops.107 A pattern of drought

interrupted by sudden rains can lead

to large increases in rodent populations

that can carry diseases such as

hantavirus.108 Lastly, drought conditions

can dry out forests, increasing

the risk for forest fires.

Climate Change, Water

Quality and Disease

Research shows that climate

change will have major effects on

precipitation, stream flows, storm

surges, runoff, water temperatures,

and evaporation, thereby affecting

Maine’s water supply. Both the

quantity and quality of available

water could be at risk. Increasing

saltwater intrusion from rising sea

levels, for example, may impact

rivers and aquifers.109

There remains considerable uncertainty

as to specifically how regional

precipitation and waterways could be

affected by global climate change.

Certain facts, however, are clear. Low

stream flows can cause substances in

water to concentrate, which may

lead to more polluted waters. On the

other end of the spectrum, excess

water runoff can bring more pesticides,

along with agricultural and

human wastes, into the water supply.

Threats to Groundwater

Groundwater, or water that is located beneath the surface of the

ground in fractures in bedrock and between grains of sand and

gravel deposits, is a valuable resource in Maine. Over sixty

percent of all households in the state get their drinking water from

these underground sources, primarily through wells. Agriculture

relies upon groundwater for crop irrigation and livestock watering.

Industries use groundwater in food processing, mining, metal

finishing and other processes. Individuals and municipalities use

groundwater for drinking water and waste disposal, garden and

lawn watering and watering of golf courses.110

Given its importance in Maine, there is particular concern

about what effect global warming will have on the quality and

quantity of this water. Changing climate is expected to increase

evaporation and precipitation.111 Both of these conditions could

damage Maine’s groundwater. The first could dry up wells, a

serious problem in a state that is predicted to experience longer

and hotter summers accompanied by drought. The second could

cause flooding, which perhaps is even more dangerous.

Flooding can contaminate groundwater with illness-causing

bacteria and parasites. Fecal material from overflowing sewage

systems, industrial and agricultural byproducts and saltwater also

can contaminate groundwater. Pollutants may come from landfills,

road salt storage, animal wastes, septic systems, underground

petroleum storage tanks and the misuse and disposal of chemicals.

112 Even without floods and other events predicted to occur

more often as a result of global climate change, these pollutants

are causing problems for Maine’s groundwater. A survey of wells

by the Department of Environmental Protection in Maine revealed

that 270 of the state’s wells are contaminated and 342 are

threatened with the risk of contamination.113

Contaminated groundwater can have serious health and

economic impacts on individuals and municipalities. Drinking

contaminated groundwater may cause significant health problems,

including nervous system disorders, kidney and liver disorders and

cancer.114 The costs of cleaning contaminated groundwater can be

staggering. In many cases, the water will not be usable again as a

drinking water supply. In addition, property values in the affected

areas may fall sharply.115 At present, such problems are under

control in Maine. But if climate change projections hold true, tragic

consequences are in store for residents who rely upon groundwater.

16 DEATH BY DEGR EES

Extreme weather events that cause flooding or disruptions in water

supplies may bring on gastrointestinal disease. Two of the greatest threats are

from giardia and cryptosporidium.

• Giardiasis: Giardiasis is an illness caused by an one-celled microscopic

parasite that lives in the intestines of people and animals. It survives well

in water. During the past 15 years, Giardia lamblia has become recognized

as one of the most common causes of waterborne human disease in the

United States.116 In 1994 there were 335 cases of giardiasis in Maine,117 but

the true number of cases in the state was probably several times higher. In

1999, 240 cases were reported.118 Diarrhea, abdominal cramps and nausea

are the most common symptoms of giardiasis.

• Cryptosporidiosis: Another major threat to the United States water supply is

from an organism called Cryptosporidium, which is small, difficult to filter,

resistant to chlorine and ubiquitous in many animals.119 Symptoms of the

illness include diarrhea, stomach cramps, upset stomach, or slight fever.

Cryptosporidiosis can be serious, long lasting and sometimes fatal for

people with AIDS, and others whose immune systems are weakened.120 In

1999, there were almost 3,500 cases of cryptosporidiosis in the United

States. Incidents of the disease have been rising in Maine. In 1994 there

were 22 reported cases, while 1999 had 30.121

Food Contamination

Warmer, moister weather encourages the spread of diseases caused by food

contaminated with toxic E. coli, salmonella, cyclospora and hepatitis-A.122

Hepatitis A is a liver disease with symptoms that include jaundice,

fatigue, abdominal pain, loss of appetite, intermittent nausea, and diarrhea.

An estimated 125,000–200,000 total infections of Hepatitis-A occur each year

in the United States, of which about two-thirds can cause clinical disease and

approximately 100 are fatal.123 Hepatitis-A usually is transmitted by fecal-oral

routes of exposure from food and waterborne sources. An outbreak of this

disease occurred in Maine in 1997, and sent 66 people to local hospitals.124

E. coli and salmonella also have jeopardized health in Maine. In 1998,

for example, 37 cases of E. coli were reported in the state.125 1995 saw 66

cases of E. coli. Salmonella has been an even greater problem in the state.

In 1998 there were 165 reported salmonella cases. Maine had 192 cases in

1994.126 The predicted warmer, moister weather could bring these numbers up

even higher in the coming years.

Red Tides And Seafood Poisonings

Certain seafood-related health problems arise when poisonous algae,

known as dinoflagellates, bloom along New England shores in the spring or

fall. Global warming is predicted to increase the occurrence and severity of

such blooms. The harmful algae often stain water red—hence the expression

"red tides." In 1999 red tides resulted in two precautionary closures for

shellfishing. The first was for mussels in the southern part of the state.

The Emerging Health Crisis of Climate Change in Maine 17

The second occurred in northern Maine, near Canada, and applied to soft

shell clams.127

Nationally, such harmful algal blooms (HAB’s) appear to be on the rise and

seem to be expanding throughout the United States.128 Before 1972, there

were only isolated HAB outbreaks around the southern coast of Maine.129

Since that time, HAB events have occurred along the entire New England

coastline. Red tides, and other HAB’s,

impact human health when individuals

consume shellfish that previously

fed in infected waters. Raw or cooked

shellfish can then pass the toxins to

humans, causing shellfish poisoning.

During the 1980’s, Maine had over

8,000 reported cases of shellfish

poisonings.130 Luckily, none proved to

be fatal. The number of cases has

dramatically reduced since that time,

due to effective monitoring and

public education. The threat of

illness, however, remains. As described

below, there are five principle

types of seafood/shellfish poisoning.

• Amnesic Shellfish Poisoning (ASP):

ASP can be life threatening. It may

become evident up to 24 hours

after an individual consumes toxic

shellfish. Symptoms include

nausea, vomiting, abdominal

cramps and diarrhea. In severe

cases, neurological symptoms also

appear, such as dizziness, headache,

seizures, disorientation,

short-term memory loss, respiratory

difficulty and coma.131 In

1987, four victims died after

consuming toxic mussels from

Prince Edward Island, Canada.132

Fish and crab also may cause ASP.

From 1985 to 1995, 6 to 10 ASP

events occurred along the coast of

Maine,133 causing shellfishing

closures.134

• Ciguatera Fish Poisoning (CFP): CFP

produces all of the above symptoms,

as well as reversal of temperature

sensation, muscular

aches, anxiety, sweating, and a

Endangered Salmon

Maine’s fisheries are among the most valuable in the United

States. In New England they are second only to those of Massachusetts.

Lobsters, ocean perch, pollack, cod, clams and shrimp

are among the catch. Salmon used to make up a big portion of

this catch, but no more. On November 18, 1999, the federal

government proposed an endangered species listing for Atlantic

salmon in Maine.135

What happened to the salmon? While factors such as dams

and over-fishing can reduce fish populations, a report issued by

the Maine Atlantic Salmon Commission suggests that one of the

principle reasons for the salmon’s decline is sea surface temperature

changes. Atlantic salmon thrive in 4 to 10 degree Celsius

waters, but beyond this range, their survival rate appears to be

compromised.136 Right now, small numbers of adult salmon are

returning to Maine to spawn, and young smolts in Gulf of Maine

rivers are surviving at a lower rate than expected.137

Global warming likely is the culprit. The EPA projects that

global warming may change, and perhaps already has, the

temperature and chemical composition of the waters that fish

inhabit.138 The amount of oxygen in the water may decline, while

pollution and salinity levels increase139 and can literally poison the

fish to death.

Consumers of contaminated salmon and seafood face health

risks. High water pollution and toxic algal blooms heightened by

global climate change increase the possibility for developing

ciguatera, a frightening illness that may cause paralysis and even

death. In addition to the number of direct physical problems

caused by global warming’s effect on seafood, there is great

stress on Maine’s fisherman, who rely upon good catches to make

a living. And it is not just the fishermen themselves. There are

countless others who work in processing plants throughout the

state.

A drop in the number of salmon, shrimp and other catches

can lead to a drop in the income of these individuals, many of

whom are already living from paycheck to paycheck. Lack of

income further leads to an increased risk of health problems, not

only because of increased mental stress, but also because people

are not able to afford health insurance. As it stands, 12.7 percent

of Maine’s population is without health coverage.140 Many of these

individuals are children141 and the elderly, people who are

vulnerable to health problems associated with climate change.

18 DEATH BY DEGR EES

numbness and tingling of the mouth and digits. Paralysis and death have

been documented.143 There is no antidote, but survivors have recovered

after taking the drug manitol and undergoing supportive therapy.144

• Diarrhetic Shellfish Poisoning (DSP): DSP produces gastrointestinal symptoms,

usually beginning within 30 minutes to a few hours after consumption

of toxic shellfish.145 Although the illness is not fatal, it can lead to

incapacitating diarrhea, nausea, vomiting, abdominal cramps and chills.

• Neurotoxic Shellfish Poisoning (NSP): This condition is nearly identical to

ciguatera, but also causes respiratory problems, such as asthma-like

episodes. It is less severe than ciguatera, and no deaths have yet been

reported.146 It is, however, a debilitating and frightening illness.

• Paralytic Shellfish Poisoning (PSP): PSP is extremely deadly, as symptoms

appear rapidly and severely. They include tingling, numbness, burning,

drowsiness, fever, rash and staggering. Respiratory arrest occurs within

24 hours of consuming toxic shellfish in the most severe cases. There is no

known antidote.147 6–10 PSP events occurred along Maine’s coast from

1985–1995.148 Shellfishing closures and public education efforts prevented

any serious outbreaks of PSP poisonings.149

FIGURE 4

Expansion of HAB (Harmful Algal Blooms) in the Northeastern US

These maps depict the HAB

(Harmful Algal Bloom)

outbreaks known before 1972

(top) and after (bottom) 1972

to 1995. As global climate

change models have predicted,

HAB events appear to be

spreading and increasing in

number. The maps shown do

not provide a compilation of all

events, but rather give an

indication of major or recurrent

HAB episodes. In addition to

the toxic impacts shown, harmful

micro and macroalgal species

have caused whale and other

marine mammal mortalities,

habitat destruction and a

general decline in coastal

aesthetics in many U.S. coastal

areas, including those found in

Maine, during the last 20

years.142

paralytic

shellfish

poisoning

paralytic

shellfish

poisoning

fish kills

brown tide

amnesic

shellfish

poisoning

Pre-1972 Post-1972

The Emerging Health Crisis of Climate Change in Maine 19

Air Pollution, Respiratory and

Cardiovascular Disease

Projected climate changes could lead to exacerbation of respiratory disorders associated

with reduced air quality in urban and rural areas and effects on the seasonality of

certain allergic respiratory disorders.

—INTERNATIONAL PANEL ON CLIMATE CHANGE,

REGIONAL IMPACTS: NORTH AMERICA, 1998.

Two air pollutants are affected by heat: ozone and volatile organic

compounds (VOC’s). Each has adverse health impacts. In addition, climate

changes can affect pollen levels, which exacerbate allergies.

Smog

Ground-level ozone is the major component in what we commonly call

smog, the most pervasive outdoor air pollutant in the United States. Smog is

at its worst on hot, sunny days, which likely will become more numerous

with global warming.

Ozone, or smog, is a toxic and irritating gas that, even in small amounts,

can affect lungs and health. It is formed when nitrogen oxides and volatile

organic compounds (VOCs), emitted from motor vehicles, power plants,

refineries, factories, and other combustion and industrial sources, are heated

by sunlight.150 Given that cars are a source of VOCs and that the number of

vehicle miles traveled in Maine continues to rise above the national average,

151 high ozone days, and the health problems they create, are also likely to

increase. Warmer temperatures increase the concentration of these pollutants

in the atmosphere.152

Exposure to elevated ozone can cause serious coughing, shortness of

breath, pain when breathing, lung and eye irritation, and greater susceptibility

to respiratory infections such as bronchitis and pneumonia.153 Numerous

studies have shown that higher ozone levels cause more asthma attacks,

increase the need for medication and medical treatment, and result in more

hospital admissions and visits to emergency rooms.154 Even moderately exercising

healthy adults can experience a 15 to 20 percent—or higher—reduction

in lung function from exposure to low levels of ozone over several hours.155

In addition to the effects on those suffering from respiratory illnesses, some

healthy people simply are more sensitive to ozone than others, and experience

more health effects from ozone exposure than the average person.156

Maine violated the proposed EPA eight-hour standard for ozone 29 times

during 1999.157 This means that the state’s air quality had ozone levels

exceeding 85 parts per billion (ppb) on those occasions.158 During this same

year, Maine had three 1-hour exceedances, where ozone levels were higher

than 125 ppb.159

Ozone causes breathing difficulty for 395,000 people in Maine—

approximately one third of the state’s entire population.160 These individuals

are most commonly the elderly, children, and those who have respiratory

ailments.161 From April to October of 1997, ozone-related illnesses, such as

20 DEATH BY DEGR EES

respiratory and cardiovascular problems, sent thousands of people to hospitals

in Maine.162 Since 1980, yearly state ozone health warning level exceedance

days, for 8 hour violations above 85 ppb, always numbered at least 20, and

were usually way above that figure.

Numerous studies link ozone with aggravation of asthma, impaired

immune function, greater susceptibility to respiratory infections (such as

bronchitis and pneumonia) and lung tissue damage. The symptoms include

coughing, shortness of breath, and eye and throat irritation.163 Of these

conditions, asthma is a special concern.

Asthma is reaching epidemic proportions in the United States, particularly

among children. A leading cause of absences from school, asthma can reduce

lung capacity and, if left untreated, can be fatal.164 Children’s airways are

smaller than those of adults, which makes them more vulnerable to asthma.

Adding to their vulnerability is the fact that children breathe more rapidly

than adults. When someone suffers repeated asthma attacks, the pathways of

the lungs become so narrow that simple breathing is as difficult as "sucking a

thick milk shake through a straw."165 The prevalence of asthma in children

under age 18 rose 72 percent in the 12 years from 1982 to 1994, while the

death rate from asthma for children 19 years and younger in the United

States increased by 78 percent from 1980 to 1993.166 Asthma accounts for one

in six pediatric emergency room visits in the U.S. One out of every twelve

children in Maine has asthma.167 Children are not the only members of the

population who are vulnerable to asthma. 40,000 Maine adults have

asthma.168 In addition, adults who smoke increase their risk for developing

respiratory disorders, such as asthma.169 21.9 percent of people over the age of

55 in Maine smoke.170

Physicians do not fully understand what causes asthma, but warmer

weather likely will make it worse. One study found that warmer average

temperatures are associated with increased asthma prevalence, possibly

because higher temperatures are associated with higher levels of allergen

exposure.171 More generally, however, asthma is associated with air pollutants

such as ozone and particulate matter.

Volatile Organic Compounds (VOC’s)

Another set of air pollutants consists of VOC’s that are emitted by large

power plants and municipal waste combusters, as well as by small sources,

such as dry cleaners, printers, cars and trucks. VOC’s include a variety of

hazardous air toxins, including benzene, toluene, xylenes and heavy metals

such as cadmium, mercury, chromium and lead. These hazardous air pollutants

are associated with cancer as well as adverse neurological, reproductive,

and developmental effects. Higher temperatures cause VOC’s to evaporate and

disperse more rapidly into the atmosphere.172

Pollen

When the thermometer starts rising on warm days, pollen counts tend to

rise as well. In 1999, Maine had 16 severe pollen count days, and numerous

The Emerging Health Crisis of Climate Change in Maine 21

other days with high pollen and mold

spore counts.173 Many scientists

believe that rising temperatures will

create favorable conditions for an

even wider variety of pollenproducing

plants, leading to an

increase in levels of airborne pollen

and spores that aggravate respiratory

disease, asthma, and allergic disorders.

174 Hay fever sufferers in Maine

are likely to experience more attacks,

during more months of the year.

Sea Level Rise and

Related Health Risks

The warming is moving down the

Antarctic Peninsula and is probably

responsible for some of these ice shelves on

both sides of the Peninsula breaking up in

recent years . . . And if we already see the

effects of warming on the Peninsula of the

West Antarctic Ice Sheet with the breaking

up of these ice shelves, then those ice

shelves at the northern margins of the

East Antarctic Ice Sheet, extending for

8,000 km over an enormous front, are a

much greater concern.175

—TERENCE J. HUGHES,

INSTITUTE FOR QUATERNARY STUDIES,

UNIVERSITY OF MAINE

The sea level along much of the

United States coastline has been

rising at a rate equal to 10–12 inches

per century.176 Most of the rise has

occurred as warmer temperatures

cause the ocean to expand. Melting

glaciers and Antarctic ice shelves also

contribute to the rise. In 1996, a

Rhode Island-sized ice shelf broke off,

melted and turned to sea water.177

Global warming could increase the

rate of sea level rise due to further

expansion of the sea’s surface layer and glacial melting.178 The Environmental

Protection Agency (EPA) and other organizations expect the sea level along

The State of the Science

Although the average temperature worldwide is increasing, hence

the term "global warming," the story becomes more complicated

at the local level. One reason is that the warmer atmosphere

holds greater amounts of water, resulting in more precipitation.

Another is that warmer air means changes in wind patterns. The

resulting weather changes will vary from place to place. In

general, we can expect more extremes—more heat waves, more

storms, wetter climates in some places, drier climates in others,

and even cooler temperatures in certain areas. Many scientists,

therefore, prefer the term "global climate change" to "global

warming." In this report, we use the two terms more or less

interchangeably.

Our current understanding of the potential impacts of climate

change is limited by a number of factors. Climate models that

project climatic changes and their impacts are still being developed

and perfected. Natural climate variability and other factors

such as air quality, land use, population, water quality, health

care infrastructure and the economy can also impact projections.

A few scientists even argue that countervailing climatic forces,

such as sulfur dioxide, actually are cooling the atmosphere.

However, the majority of climate scientists agree that greenhouse

gases produced by humans are changing Earth’s atmosphere and

that now is the time to take action on a global level.

Forecasting models are gaining credibility every day as

weather and other environmental occurrences confirm projected

scenarios. In addition, scientists continue to uncover data that

supports the occurrence of climate change. For example, a study

published in the summer of 1999 in the scientific journal Nature

examined the Antarctic ice cores. Scientists found that atmospheric

temperatures historically correlate with atmospheric

concentrations of the greenhouse gases carbon dioxide and

methane. Today, concentrations of these gases appear higher

than they have been in the past 450,000 years.179

Even if certain individuals are able to adapt to changes

caused by global warming, some populations will remain susceptible.

These individuals include infants, children, the elderly and

the infirm. Maine’s elderly population continues to grow in

numbers higher than the national average,180 so the state will be

among those most vulnerable to climate change.

Clearly the availability and continued development of better

information on the potential impacts of climate change, and the

interaction of these impacts with other important factors, is critical

if society is to understand the science of climate change and to

prepare for the changes global warming will bring.

22 DEATH BY DEGR EES

the Gulf and Atlantic coasts to rise an

additional foot by 2050, possibly as

early as 2025. It is likely that sea

level actually will rise by two to four

feet over the next century.187

Until recently, sea level in Maine

rose about .0026 feet per year. This

rate lasted for thousands of years, but

has begun to dramatically change in

the last several decades. Now, that

rate has almost tripled, according to

measurements taken in Portland and

Eastport,188 and is even higher in

areas such as Rockland.189 Sea level

rise can result in flooding of lowlying

property, loss of coastal wetlands,

erosion of beaches, saltwater

contamination of drinking water, and

decreased longevity of low-lying

roads, causeways and bridges. It also

increases the vulnerability of coastal

areas to storms and associated

flooding.190 Each of these possibilities

brings with it a number of health

risks, including gastrointestinal

distress from drinking contaminated

water, car accidents due to damaged

roadways, drownings associated with

storm surges and psychological

distress from loss of income and

property.

Possible responses to sea level rise

include allowing the sea to advance

and adapting to it, and raising the

land (e.g., by replenishing beach

sand, elevating houses and infrastructure).

Both of these responses

will be costly, either in out of pocket

costs or in lost land and structures.191

For example, the EPA reports that the

cumulative cost of sand replenishment

to protect Maine’s coastline

from sea level rise by 2100 is estimated

at $200–$900 million.192 Hard

barriers also are fallible, as evidenced

by the destruction of a 230 foot sea

wall in a storm at Kennebunk on

October 10, 1998.193

Maine’s Battered Southern Coast

For hundreds of years, Maine’s 3,500 mile coast has drawn

explorers, settlers and visitors to the state. Few can resist the

coast’s rugged, natural beauty, which perhaps explains the

number of homes located in towns and cities along the shoreline,

not to mention the prevalence of hotels and recreation centers that

cater to tourists who bring valuable income to the state. The

Atlantic Ocean continuously beats against the coast, but the rocky

shoreline appears strong and invincible, ready to withstand any

torment.

Unfortunately, even Maine’s coast is little match for the sea

level rise and coastal erosion predicted to occur as a result of

global climate change. Increased precipitation and melting

glaciers and ice shelves already appear to be causing the Atlantic

to swallow up portions of the coast. Nearby Massachusetts loses

65.4 acres per year of its shoreline due to coastal erosion, and

Maine’s rate of loss could be just as great.181 At Rockland, for

example, sea level already is rising 3.9 inches per century, and is

likely to rise another 14 inches by 2100.182 Steps can be taken to

reduce damages, but these are often expensive and ineffective.

The estimated cost for such measures is between $200 to 900

million.183

The risks associated with these measures are evidenced by

what happened in Maine on October 10, 1998. That day, heavy

rain accompanied by strong winds spread over the southern part

of the state. By afternoon, rivers, streams and low areas began to

flood. Large and powerful waves caused astronomically high tides

that eroded sections of the coast. The Kennebunk sea wall,

erected to protect residents from such events, proved to be of little

help and, in fact, became a hazard itself. 230 feet of the concrete

and steel wall collapsed, causing it to slide forward and drop

onto the beach.184 Storm surges increased the risk for drownings

and other related injuries, but miraculously, residents escaped

harm. The President declared both Cumberland and York Counties

federal disaster areas.

The effects of sea level rise and coastal erosion are not

always so dramatic. Often they occur at a relatively slow pace,

gradually eating away sections of Maine’s treasured coast and, in

the process, causing stress and concern for residents. This is

evident in areas such as Camp Ellis in Saco, where a committee

has formed to address the ever-increasing problems.185 The town

manager of Wells, situated along Maine’s southern "Gold Coast,"

has issued a statement voicing concerns about problems affecting

the town due to climate change and sea level rise. The situation is

so bad along the coast that people are allowed to build homes

there only if they take out "rolling easements," in which prospective

homeowners are given permission to build, but on the

condition that they will remove the structure if and when it is

threatened by an advancing shoreline.186

The Emerging Health Crisis of Climate Change in Maine 23

A Plague of Ticks and Mosquitoes

Because of the heating of the atmosphere, disease-bearing insects are breeding faster and

living longer at higher altitudes and latitudes. Witness the rapid increases in malaria,

yellow fever, hantavirus and lyme disease in the northern latitudes. Most remarkably,

there is no debate over climate change in any country except the United States.194

—ROSS GELBSPAN, JOURNALIST, IN AN ARTICLE FOR THE BOSTON GLOBE

In the warmer and wetter days to come, insects and rodents likely will

multiply in number, increasing the human health risks for diseases they can

spread. In terms of vector-borne illness—meaning diseases carried by a host,

such as a mosquito or tick—the rate of insect biting and the rate of maturation

for the disease-carrying microorganisms depend on temperature. Both

rates will increase with warmer weather.195 In fact, field and laboratory studies

have shown that temperature is the most important determining factor with

respect to transmission of a viral agent by a vector.196 Within a certain range,

warmer temperatures also enable such disease vectors to spread to higher

elevations and more temperate latitudes.

Lyme disease, carried by ticks, is endemic to several regions of the

United States, and accounts for more than 95 percent of all reported cases of

vector-borne illness in the country.197 Lyme disease is dramatically on the rise

in Maine. In 1994, lyme disease cases totaled 33. In 1998 this figure more

than doubled to 76 cases.198 A warming trend could increase Maine’s tick

populations, while warmer winters will permit people to enter tick-infested

habitats earlier in the season, thereby increasing the risk for transmission of

the disease.199 Ticks in New England also carry babesiosis (animal malaria),

ehrlichiosis (a treatable bacterial disease), and a virus that can cause

encephalitis.200

Other more exotic and frightening diseases also could become more prevalent

as the weather gets hotter and wetter. Many of the organisms and processes

linked to the spread of infectious diseases are especially influenced by

climate variations such as temperature, precipitation, and humidity. Therefore,

climate change can be expected to cause shifts in the patterns of infectious

diseases and where they are seen worldwide. 201 For example, public health

officials throughout the world are seeing an alarming resurgence of parasitic

diseases, such as malaria, and arboviruses (viruses borne by arthropods), such

as dengue fever.

Disease outbreaks are occurring more frequently in the United States due

to factors such as increased immigration and travel abroad by Americans who

bring diseases home. Once a parasite that causes a disease is brought into a

state by travelers, a warmer climate fosters faster growth of the parasite, as

well as the host organism, thus increasing the risk of local transmission. Some

diseases that may pose new threats in Maine are West Nile virus, hantavirus,

and malaria.

One of the most recent and disturbing new disease outbreaks was the West

Nile virus in the New York City area in 1999. Until the summer of 1999, the

virus had never been reported in the Western Hemisphere.202 Fifty-six cases

were identified as of October 19, 1999, resulting in seven deaths, and the

24 DEATH BY DEGR EES

Centers for Disease Control feared the virus could travel beyond New York to

other states.204 The virus is carried mainly by mosquitoes, but also by ticks, and

is passed along to birds and humans.

Malaria in Maine? It sounds unlikely, but consider this: Maine had 3 cases

of malaria in 1999 and 5 cases in 1998, from residents who had contracted

the illness while traveling.205 A relationship has been observed between some

exceptionally hot and humid weather and isolated spreading of malaria.206

And, some scientists estimate that an increase in average global temperatures

of several degrees by the year 2100 will increase the capacity of mosquitoes to

transmit the disease 100-fold in temperate countries.207

Even hantavirus, a deadly disease carried by deer mice, is not inconceivable

in Maine. Nearly half of all hantavirus cases result in death. The geographical

range of the deer mouse extends into New England and currently, cases have

been reported as far north as Rhode Island.208

FIGURE 5

Warmer weather promotes breeding by disease-carrying mosquitoes

This graph shows the

correlation between

temperature and the

rate at which

mosquito larvae

mature.203

Source: Focks et al 1993.

Rate (hr)

0.00

0.015

0.010

0.005

Temperature (°F)

59 68 77 86 95 104 113 122

The Emerging Health Crisis of Climate Change in Maine 25

Economic and Physical Stresses Could Result from

Impacts on Forestry, Agriculture, and the Syrup

Industry

Maine’s nickname, The Pine Tree State, reveals just how important stands

of timber are to residents. Forests, valuable both for ecological and economic

reasons, cover nearly 89 percent of the state. White pine hardwood, spruce fir

and northern hardwood types dominate, and are the basis of two major

industries: paper and allied products and lumber and wood products.209 In fact,

forestry is tied to the three most valuable industries in the state: paper and

allied products, tourism, and lumber and wood products. Climate change is

predicted to affect the range of forested land and the type of trees able to

grow, thereby putting all of these industries at risk. Because of this potential

impact to Maine’s major industries, a large portion of Maine’s population

could be subjected to economic and psychological stress.

Economics ties the health of the forests to human health, given the rising

costs of health insurance and medical care. And impacts on the economy

could increase Maine’s already high percentage of citizens without health

insurance coverage. Therefore, those employed in these industries could be hit

hard.

The same economic and physical stresses could affect Maine citizens

engaged in the maple syrup industry, particularly those residing in the White

Mountains. Climate change could threaten the now-thriving industry by

raising overall temperatures and increasing night warming. If this forecast

holds true, the flow of sap in the White Mountains could severely drop,

forcing numerous maple syrup producers out of business.210

The population of Maine that fills over 60,000 full and part-time jobs in the

agriculture and agrifood industry211 could also suffer. Climate change is the

primary determinant of agricultural productivity.212 Thus, the variable weather

conditions predicted to occur due to global warming could have a significant

impact on Maine farmers and the state’s economy. Maine’s two major crops,

potatoes and hay, are especially vulnerable.213 Growers of such crops could be

forced to alter their farming practices, or face economic losses. Like those

involved in forestry or the syrup industry, these individuals could suffer

economic and psychological stress that could compromise their ability to

afford proper housing, food and medical coverage for themselves and their

families.

More Injuries and Fatalities Predicted to Occur

Because of Forest Fires

Temperature increases and related weather extremes predicted to occur as a

result of global warming, such as drought, could wreak havoc on Maine’s

timber stands. Droughts dry forests, paving the way for forest fires, that, at

present, already are a big problem in the state. In 1999 during just one week

in April—which is a relatively low fire season month—over 85 wildfires were

reported in Maine.214

26 DEATH BY DEGR EES

Forest fires pose numerous public

concerns. They can have a devastating

effect on timber production and

wildlife. They may destroy homes

and other high value property.

Wildfires can kill young trees that

represent the timber for tomorrow.215

From a health standpoint, they may

cause injury and fatalities to

firefighters and nearby residents.

Smoke, which can cover a wide area,

may increase respiratory illness, such

as asthma and chronic obstructive

pulmonary disease, for many people,

particularly those with pre-existing

respiratory conditions.216

Where Physicians for Social Responsibility (PSR) Stands

Physicians for Social Responsibility (PSR), the active conscience of American medicine,

uses its members’ expertise and professional leadership, influence within the medical

and other communities, and strong links to policy makers to address this century’s

greatest threats to human welfare and survival.

While we recognize that uncertainties exist in the measurement of global warming

—just as all scientific measurement is uncertain—we are moved to action for several

compelling reasons. First, the overwhelming consensus among scientists is that Earth’s

temperature is increasing and weather patterns are changing in ways potentially

harmful to human health. This fact is overlooked in statements funded by the energy

industry that attempt to minimize the severity of global warming. Second, just like

businesses, governments, and responsible individuals, PSR feels the need to act

decisively in the face of uncertainty to protect those whose welfare has been entrusted

to us.

We cannot say exactly when to expect a noticeable increase in floods, or in

deaths from asthma among people living in smog-congested cities. No one can. But as

Surgeon General Luther Terry stated in his 1962 report on motor vehicles and air

pollution, the need for further research should not stop us from taking "all practicable

steps to minimize" the hazard. We are certain that fossil fuels play a role in global

warming, one step that we can control. For the sake of our own well-being, and that of

future generations, we need to act now.

PSR is working to create a world free of nuclear weapons, global environmental

pollution, and gun violence. In 1985, PSR shared the Nobel Peace Prize with

International Physicians for the Prevention of Nuclear War.

The Emerging Health Crisis of Climate Change in Maine 27

What You Can Do

As a person becoming ill develops a fever as a sign, this planet has begun to show signs

of illness, and human illness or death is certain to follow. History is full to overflowing

with examples. The best action that can be taken to avoid tragedy, whether managing

the illness of one or many, the earth or humanity, is early intervention.

—LANI GRAHAM, MD, MPH; FORMER DIRECTOR, MAINE BUREAU OF HEALTH

Our new data and understanding now point to the critical situation we face: To slow

future change, we must start taking action soon.

—D. JAMES BAKER, ADMINISTRATOR,

U.S. NATIONAL OCEANIC AND ATMOSPHERIC ADMINISTRATION

Can residents of Maine do anything to reverse the trends before global

warming creates a perpetual state of emergency? Yes, they can. The

number one priority is to lower the use of fossil fuels. Opportunities for

doing so are everywhere.

To be sure, questions remain about the exact causes of global warming

and how seriously it threatens human health, but enough is known about

global warming to require action now. Its potential to cause harm is

indicated by the insurance industry’s decision to create a $200 billion

reserve to pay for damages expected to be caused by the increase in

hurricanes and other extreme weather events.217 Moreover, the energy

conservation techniques recommended here to protect against global

warming are basically the same as those desperately needed to cut air

pollution. The quality of our children’s lives will depend upon the actions

we take today.

There is a lot you can do, starting now, to bring down consumption of

fossil fuels.

1Demand that electric utilities use low-carbon technologies and renewable

energy. Maine still has some dirty power plants that need to clean

up their act. Support efforts that require all power plants to meet

federal air pollution standards.

2 Get your own house in order. Use energy-efficient light bulbs. Install a

solar thermal system to help provide your hot water (carbon dioxide

reduction: 720 pounds per year). Recycle all of your home’s waste

newsprint, cardboard, glass and metal (carbon dioxide reduction: 2,480 lbs./

yr.). Leave your car at home for one or two days a week and you will save

tons of carbon dioxide emissions. Lower your thermostat in winter and raise

28 DEATH BY DEGR EES

it in summer, thereby reducing the demand for electricity and the burning of

fossil fuels.

3If you are buying a new car, go for a more energy-efficient one.

Encourage auto makers to develop and sell cars, trucks and sport

utility vehicles (SUV’s) with better mileage and higher fuel efficiency

(CAFE) standards. At a web site newly launched by the EPA and the U.S.

Department of Energy (http://www.fueleconomy.gov), you can do a sideby-

side comparison and select the most energy-efficient vehicle that meets

your needs.

4Urge the businesses you patronize to become energy-efficient. U.S.

businesses spend about $100 billion on energy each year to operate

commercial and industrial buildings. By using energy efficient products

and procedures, organizations could reduce their energy use by 35 percent,

or $35 billion nationally. There are now numerous programs in place to help

businesses change their energy usage and save money at the same time. Put

your favorite businesses in touch with EPA’s Energy Star Buildings program

(1-888-STAR-YES, http://www.epa.gov/greenlights), and Climate Wise

program (1-800-459-WISE, http://www.epa.gov/climatewise).

5Carpool, and drive less. Nationally, cars contribute 30 percent of

greenhouse gases in the air. In Maine, emissions from cars contributed

a hefty 47 percent in 1990, a figure that is actually on the rise, due to

increased use in light trucks and sport utility vehicles. Do your part, by

carpooling and using public transportation whenever possible.

6 In this election year, work for candidates who are serious about

reducing emissions of carbon dioxide and other greenhouse gases.

Support senators who have taken a stand in favor of ratifying the

Kyoto Protocol to the Framework Convention on Climate Change. Tell the

members of Congress that we are not afraid of higher fuel efficiency (CAFE)

standards—for cars, SUV’s and light trucks—and they should not be either!

7 Work with local groups and chapters of national organizations to

promote awareness of global warming and related issues in Maine.

These include: the Maine Chapter of Physicians for Social Responsibility

(207-772-0680), Maine Global Climate Change, Inc. (207-469-6770),

American Lung Association of Maine (800-499-5864), American Heart

Association (800-242-8721), Independent Energy Producers of Maine

(207-626-0730), Coalition for Sensible Energy (207-469-6770), Sierra Club

Foundation, Maine Chapter (207-761-5616), National Resources Council of

Maine (207-622-3101), Friends of Casco Bay (207-799-8574), Maine

Audubon Society (207-781-2330), Maine Cardiovascular Health Council

(207-622-7566), Maine Organic Farmers and Gardeners Association

(207-568-3141), Consumers for Affordable Health Care Foundation

(207-622-7083), Maine Peace Fund (207-772-0680), Bicycle Coalition of

Maine (207-288-3028), Conservation Law Foundation, Inc. (207-594-8107),

The Emerging Health Crisis of Climate Change in Maine 29

China Region Lakes Alliance (207-445-5021), A.E. Howell Wildlife Conservation

Center (207-532-6880), Forest Society of Maine (207-945-9200), Friends

of Acadia (207-288-3340), The Island Institute (207-594-9209), Maine Coast

Heritage Trust (207-729-7366), Natural Resources Council of Maine

(207-622-3101), The Nature Conservancy, Maine Chapter (207-729-5181)

and many others.

8Encourage local, state and national decision makers and politicians to

support the Earth Day Clean Energy Agenda. On April 22, 2000, the

thirtieth annual Earth Day will be celebrated all around the country.

This year the Earth Day message includes the Clean Energy Agenda that calls

for clean power, clean air, clean cars and clean investments. A transition to

energy efficiency and renewable energy will go a long way in combating

global warming. Physicians for Social Responsibility is a member of the Earth

Day Network (EDN), a global alliance of environmental organizations working

together to battle climate change. Our Death by Degrees report can be used as

a tool to educate everyone about the potential health effects of global warming

as part of a message for the need for cleaner energy. Contact the Earth

Day Network (206-264-0144) or see the web site (http://www.earthday.net)

for more information about Earth Day 2000 and to find out what events are

planned in your area.

30 DEATH BY DEGR EES

NOTES:

1. Manning A, 90’s Were Warmest Years In

Centuries, USA Today, January 11, 1999.

http://www.usatoday.com/weather/clisci/

wc042398.htm.

2. Intergovernmental Panel on Climate Change

(IPCC), The Regional Impacts of Climate Change;

An Assessment of Vulnerability (1998). http://

www.epa.gov/globalwarming/reports/pubs/

ipcc/chp8/america15.html.

3. IPCC, Climate Change 1995, Second Assessment

Report, Working Group I Summary for Policy

Makers (1996).

4. IPCC, Climate Change 1995, Impacts,

Adaptations and Mitigation of Climate

Change: Scientific Technical Analyses,

Working Group II to the Second Assessment

Report at 561–584 (Cambridge University

Press 1995).

5. Johnson J, Maine, in Compton’s Encyclopedia

Online v3.0. Available to AOL ISP subscribers

at: http://comptonsv3.web.aol.com/search/

fastweb?getdoc+viewcomptons+A+4834++Maine.

6. National Climatic Data Center (NCDC), Mean

Number of Days With Maximum Temperature 90

Degrees or Higher, data through 1998. http://

www.ncdc.noaa.gov/ol/climate/online/ccd/

max90temp.html.

7. NCDC, query results on extreme weather

events in Maine between 1/1/97 and 9/30/99.

http://www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~storms.

8. U.S. Environmental Protection Agency (EPA),

EPA Launches Global Warming Meetings, June

26, 1997. (Notes provided by the Maine EPA).

9. Epstein PR, The impact of climate change on

human health in "New England Regional

Climate Change Impacts Workshop: Workshop

Summary Report," Sept. 3, 1997.

10.EPA, Climate Change and Maine. September

1998. http://www.epa.gov/globalwarming/

impacts.

11.Ibid.

12.Testimony of Senator Sharon Treat, State of

Maine, Before the Senate Subcommittee on

Clean Air, Wetlands, Private Property, and

Nuclear Safety, June 24, 1999. http://

www.senate.gov/~epw/tre_6-24.htm.

13.Conversation with Elizabeth DeSombre,

Professor of Environmental Studies and

Government at Colby College. January, 2000.

14.Longstreth J, Public Health Consequences of

Global Climate Change in the United States—

Some Regions May Suffer Disproportionately,

Environmental Health Perspectives, Volume

107, Supplement 1, February 1999.

15.Ibid.

16.Ibid.

17.Ibid.

18.U.S. Census Bureau, Maine data for the years

1990–1997. http://www.census.gov/statab/

www/states/me.txt.

19.Conversation with Tom Berman, Forecast

Officer, National Weather Service Forecast

Office, Gray, Maine. January, 2000.

20.Gelbspan R, Chilling evidence of climatic

meltdown, The Boston Globe, January 21, 1999.

21.Ibid.

22.Maine Department of Environmental

Protection (Maine DEP), Global Climate Change

("Global Warming"). http://janus.state.me.us/

dep/air/global.htm.

23.Carter J, (Panel Member of Maine’s Citizens

and Communities and Town Manager,

Wells, Maine); Speaker’s Outline; Global

Climate Change in Maine—The Risks and

Opportunities, a conference held April 7&8,

1999 in Lewiston, Maine.

24.Hebert J, Scientists Report Warmer Earth. Written

for The Associated Press, released on January

13, 2000.

25.Media Relations Office, Jet Propulsion

Laboratory, La Niña’s Persistence May Be Part of

Larger Climate Pattern. Released on January 19,

2000.

26.IPCC, The Regional Impacts of Climate Change:

An Assessment of Vulnerability (1998), supra n 2.

27.Longstreth J, supra n 14.

28.Hadley Center for Climate Prediction and

Research, Climate change and its impacts:

a global perspective (1997). http://www.metoffice.

gov.uk/sec5/CR_div/Brochure97/

future.html.

29.Climate Change Research Center, New

England’s Changing Climate, Weather, and Air

Quality, http://www.neci.sr.unh.edu/

neccwaq.html.

30.U.S. Public Interest Research Group (USPIRG),

Flirting With Disaster: Global Warming And The

Rising Costs of Extreme Weather, October 27,

1999.

31.Ibid.

32.Gerrity ET and Flynn BW, Mental health

consequences of disasters, in Noji E, ed. The Public

Health Consequences of Disasters, New York:

Oxford University Press, 101–21 (1997).

33.Centers for Disease Control and Prevention

(CDC), Community needs assessment and

morbidity surveillance following an ice

storm—Maine, January 1998. MMWR, 47(17):

351–354 (May 8, 1998).

34.Conversation with Pam Person, Program

Director, Coalition for Sensible Energy and

Co-chair, Maine Global Climate Change, Inc.

January 2000.

35.EPA, Climate Change and Maine, supra n 10.

36.Epstein, supra n 9.

37.Ibid.

The Emerging Health Crisis of Climate Change in Maine 31

38.NOAA Air Resources Laboratory, Trends in

U.S. Extreme Heat Indices, updated June 27,

1999. http://gus.arlhq.noaa.gov/milestn/

mile3.html.

39.Easterling DR, in EPA Launches Global Warming

Meetings, June 26, 1997.

40.Epstein, supra n 9.

41.U.S. Census Bureau, Table No. 1223,

Appliances and Office Equipment Used by

Households, by Region and Family Income: 1997,

in Statistical Abstract of the United States:

1998.

42.EPA, Climate Change and Maine, supra n 10.

43.Ibid.

44.As the heat goes on, so do power switches;

CMP sets a record for power use amid the hot

weather’s assault, The Portland Press Herald,

1A, July 23, 1998.

45.Environmental Health Perspectives 103:12,

December 1995. http://

ehpnet1.niehs.nih.gov/docs/1995/103-12/

forum.html#climate.

46.Ibid.

47.Pochna P, Neighbors Claim Rise in Plant’s

Pollution, Casco Bay Online News, August 24,

1998. http://www.cascobay.com/news/

news82498.html.

48.Asthma hospitalization rates and socioeconomic

status in New York State (1987–1993)

in J Asthma 36:239–51 (1999).

49.NOAA. http://gus.arlhq.noaa.gov/. The data

in this figure was developed by NOAA

scientists for the purpose of determining

trends in extreme heat events. Extremes are

defined using threshold values of temperature

and apparent temperature. Extremes vary

from one city to another because people

acclimate to local conditions. Therefore,

extremes must be defined locally. (Dian

Gaffen, Trends in U.S. Extreme Heat Indices—

updated

6/27/99). http://gus.arlhq/noaa.gov/milestn/

mile3.htm.

Threshold values are defined as apparent

temperature values that are exceeded on only

15 percent of days in July and August (Ibid).

Apparent temperature, or heat index, is a

combination of air temperature and humidity

(NOAA Climate Variability and Trends Group,

Climate Extremes and Health (updated

8/17/99). http://www.arlhq.noaa.gov/ss/

climate/research/extremes.htm. Therefore,

when apparent temperature exceeds the 85th

percentile threshold value, an extreme heat

stress day has occurred. For the purposes of

Figure 2, a heat wave occurs when three or

four consecutive days reach extreme

temperatures.

50.EPA, Climate Change and Maine, supra n 10.

51.Hahn RA et al, Cardiovascular disease risk

factors and preventative practices among

adults—United States, 1994: A behavioral risk

factor atlas, MMWR, 47(SS-5):35–69

(Dec 11, 1998).

52.Carter J, Maine Greens Address the Health Issues:

Health Care, November 1994.

53.CDC, Heat related deaths—United States 1993,

MMWR, 42(28):558-560 (Jul 23, 1993).

54.World Health Organization, Climate Change and

Human Health (McMichael AF et al, eds.)

1996.

55.CDC, Heat related deaths- United States 1993,

MMWR, 42(28):558-560 (Jul 23, 1993).

56.Ibid.

57.World Health Organization, "Potential health

effects of climate change." (1990). http://

www.ciesin.org/docs/001-007/001-007.html.

58.EPA, Climate Change and New Hampshire

(1997). http://www.epa.gov/globalwarming/

impacts/stateimp/newhampshire/index.html.

59.EPA, Climate Change and Maine, supra n 10.

60.Global climate change data provided by Deb

Garrett of the State of Maine Department of

Environmental Protection.

61.Preliminary summary of 1999 workshops.

New England Regional Assessment, courtesy

of Barrett Rock, University of New Hampshire.

62.CDC, Hypothermia-Related Deaths—Georgia,

January 1996—December 1997, and United

States, 1979–1995, MMWR, 47(48):1037–1040

(Dec 11, 1998). http://www.cdc.gov/epo/

mmwr/preview/mmwrhtml/00055930.htm.

63.Ibid.

64.Conversation with Catherine St. Pierre,

Planning Research Associate, Maine Office of

Data Research and Vital Statistics (February

2000).

65.CDC, Hypothermia-Related Deaths—

Georgia, January 1996–December 1997, and

United States, 1979–1995, supra n 62.

66.CDC, Changes in Mortality from Heart

Failure—United States, 1980–1995, MMWR,

47(30):633–7 (Aug 7, 1998). http://

www.cdc.gov/epo/mmwr/preview/

mmwrhtml/00054249.htm.

67.EPA, Global Warming Impacts—Health. http://

www.epa.gov/globalwarming/impacts/health/

index.html.

68. CDC, Changes in Mortality from Heart

Failure, supra n 66.

69.NCDC, Climate Data: Ice Storm, January 5–10,

1998. http://www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~123665.

70.Ibid.

71.Ibid.

72.Ibid.

73.Ibid.

74.Ibid.

75.CDC, Community Needs Assessment and

Morbidity Surveillance Following an Ice

Storm—Maine, January 1998, supra n 33.

32 DEATH BY DEGR EES

76.Ibid.

77.Federal Emergency Management Agency,

News Report—Weekly Federal/Maine Ice Storm

Recovery Wrap-Up (As of Monday, March 2,

1998). http://www.fema.gov/dix98/

meis083.htm.

78.NCDC, Narrative—April 12, 1999 Update.

http://www.ncdc.noaa.gov/ol/reports/

janstorm.html.

79. CDC, Community Needs Assessment and

Morbidity Surveillance Following an Ice

Storm—Maine, January 1998, supra n 33.

80. Ibid.

81. NCDC, Event Details: January 1998 Ice Storm.

http://www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~123665.

82. CDC, Carbon monoxide poisonings associated

with snow-obstructed vehicle exhaust

systems—Philadelphia and New York City,

January 1996, MMWR, 45(01):1–3

(Jan 12, 1996).

83. CDC, Community needs assessment and

morbidity surveillance following an ice storm,

supra n 33.

84. CDC, Use of unvented residential heating

appliances—United States, 1988 –1994,

MMWR, 46(51);1221–1224 (Dec 26, 1997).

85. Mayo Clinic, Carbon monoxide: How to protect

your family. http://www.mayohealth.org/

mayo/9812/htm/co.htm.

86. U.S. Census, Maine Population Statistics. http://

www.census.gov/statab/www/states/me.txt.

87. U.S. Census, Model-Based Income and Poverty

Estimates for Maine in 1995 (statistics listed for

population as of July 1996). http://

www.census.gov/hhes/www/saipe/estimate/

cty/cty23000.htm.

88. Longstreth J, Public Health Consequences of

Global Climate Change in the United States—

Some Regions May Suffer Disproportionately, supra

n 14.

89. Ibid.

90. U.S. Census, Maine Population Statistics, supra n

86.

91. National Weather Service, Portland, Maine,

Climate Data For The Month Of December 1999.

http://www.state.me.us/mema/weather/

pwmclmpwm.

92. Ibid.

93. The Associated Press, Skiers stay off trails in

bitter cold, in The Bangor Daily News, January

18, 1999. http://www.bangornews.com/News/

20000118000000Skiersstay.html.

94. Ibid.

95. Alpert L (for the Associated Press), Bitter Cold

Hammers Northeast, January 18, 2000.

96. Ibid.

97. EPA, Climate Change and Maine, supra n 10.

98. CDC, Flood-related mortality—Georgia,

July 4-14, 1994. MMWR, 43:526–30

(Jul 29, 1994).

99. NCDC, Climate Data for Flash Flood, April 16–17,

1999, North Monmouth. http://

www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~90997.

100.Gerrity ET & Flynn BW, Mental health

consequences of disasters, supra n 32.

101.NCDC, Climate Data for Thunderstorm Wind in

Westbrook on August 24, 1998. http://

www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~123747.

102.NCDC, Storm Events in Maine from January 1,

1997 to September 30, 1999. http://

www4ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~storms.

103.Publius Research. http://www.maine.com/

users/publius/iceout.htm.

104.Preliminary Summary of 1999 Workshops,

supra n 61.

105.Ibid.

106.Maine Department of Human Services,

Groundwater Assessment.

107.Epstein PR, The impact of climate change on

human health in New England, supra n 9.

108.Ibid.

109.Frederick KD et al, Water and global climate

change (Pew Center 1999).

110.University of Maine Cooperative Extension,

Safe Home Program Report, Bulletin #7119-I

DEPLW-100-A99-I.

111.EPA Global Warming Impacts- Water

Resources. http://www.epa.gov/

globalwarming/impacts/water/index.html.

112.University of Maine Cooperative Extension,

supra n 110.

113.Hunter B, Maine DEP Groundwater

Assessment—"Leaking underground and

above ground storage tanks."

114.University of Maine Cooperative Extension,

supra n 110.

115.Ibid.

116.CDC, Giardiasis Fact Sheet. http://

www.cdc.gov/ncidod/dpd/giardias.htm.

117.DHS EPI, Summary of Trends in Select Reportable

Diseases Annual Frequency and Five Year Mean/

Median, Maine 1994-1998, based on MMWR year.

118.Ibid.

119.Guerrant RL, Cryptosporidiosis: an emerging,

highly infectious threat. CDC Synopses. http://

www.cdc.gov/ncidod/EID/vol3no1/

guerrant.htm.

120.CDC, Cryptosporidiosis Fact Sheet. http://

www.cdc.gov/ncidod/dpd/crypto.htm.

The Emerging Health Crisis of Climate Change in Maine 33

121.CDC, Notifiable Diseases/Deaths in Selected

Cities Weekly Information, December 24,

MMWR, 48(50);1155-1162 (Dec 24, 1999).

http://www.cdc.gov/epo/mmwr/preview/

mmwrhtml/mm4850md.htm.

122. Epstein, supra n 9.

123. CDC, Viral Hepatitis-A Fact Sheet. http://

www.cdc.gov/ncidod/diseases/hepatitis/a/

fact.htm.

124. DHS EPI, supra n 117.

125. Department of Maine Health Services,

Summary of Trends in Select Reportable Diseases

Annual Frequency and Five Year Mean/Median,

Maine 1994–1998.

126. Ibid.

127. Conversation with John Hurst, Director of

Biotoxin Monitoring, Maine Department of

Marine Resources; February 2000.

128. Woods Hole Oceanographic Institution,

Harmful Algal Blooms in your region. http://

www.redtide.whoi.edu/hab/

HABdistribution/habexpand.html.

129. Justice G, Shellfishing bans lifting as season

of red tide ebbs, The Boston Globe, p. 76, July

9, 1993. Morris J, Midnight poachers

ignoring red tide; officials fear market

consequences, The Union Leader, p. A1,

June 13, 1993.

130. Conversation with John Hurst, supra n 127.

131. Natural Office for Marine Biotoxins and

Harmful Algal Blooms, The Harmful Algae

Page: Human Illnesses Associated with Harmful

Algae. http://www.redtide.whoi.edu/hab/

illness/illness.html.

132. Ibid.

133. Woods Hole Oceanographic Institution,

chart: ASP events in the United States of

America. http://www.redtide.whoi.edu/hab/

HABdistribution/ICESmap/USASP.gif.

134. Conversation with John Hurst, supra n 127.

135. US Fish & Wildlife Service News Release,

Federal Government Proposes Endangered Species

Listing for Atlantic Salmon in Maine, November

18, 1999. http://northeast.fws.gov/newsrel/

mesalmon.html.

136. Maine Atlantic Salmon Commission, Atlantic

Salmon Stocks Report. http://news.fws.gov/

salmon/asalmon75.html.

137. US Fish & Wildlife Service, supra n 135.

138. EPA Global Warming Impacts—Fisheries.

http://www.epa.gov/globalwarming/

impacts/fisheries/index.html.

139. Ibid.

140. U.S. Census Bureau, Health Insurance

Coverage: 1998—State Uninsured Rates. http://

www.census.gov/hhes/hlthins/hlthin98/

3yr98.html.

141. U.S. Census Bureau, Low Income Uninsured

Children By State: 1996, 1997 and 1998. http://

www.census.gov/hhes/htthins/huc98.html.

142. http://www.redtide.whoi.edu/hab/

HABdistribution/habexpand.html.

143. Conversation with John Hurst, supra n 127.

144. Ibid.

145. Ibid.

146. Ibid.

147. Ibid.

148. Woods Hole Oceanographic Institution,

chart: PSP events in the United States of

America. http://www.redtide.whoi.edu/hab/

HABdistribution/ICESmap/USPSP.gif.

149. Conversation with John Hurst, supra n 127.

150. Spellman FR and Whiting NE, Environmental

Science and Technology, 185 (Governments

Institute 1999).

151. Maine Environmental Priorities Council,

Maine’s Environmental Issues—Air Quality,

Issues, cited in 1996 risk ranking.

152. EPA, Global warming: impacts- health. U.S.

http://www.epa.gov/globalwarming/health/

index.html.

153. EPA, Health and environmental effects of

ground-level ozone. Fact Sheet, July 17,

1997. htpp://ttnwww.rtpnc.epa.gov/

naaqsfin/o3health.htm.

154. Weisel CP, et al, Relationship between

summertime ambient ozone levels and

emergency department visits for asthma in

central New Jersey in Environ Health

Perspectives 103 Suppl 2:97–102 (1995).

155. EPA, Health and environmental effects of

ground-level ozone, supra n 153.

156. EPA, Office of Air Quality Planning and

Standards, Smog—Who Does It Hurt? What You

Need To Know About Ozone and Your Health.

http://www.epa.gov/airnow/health/

smog1.html#5.

157. USPIRG, Danger in the Air: Unhealthy Smog

Days in 1999, Table 1. Summary of 1999

Exceedances and Smog Days by State.

158. Ibid.

159. Ibid.

160. Testimony of Senator Sharon Treat, supra

n 12.

161. Ibid.

162. Clean Air Task Force, Adverse Health Effects

Associated with Ozone In the Eastern United

States, Exhibit 4-7 Ozone-related Adverse

Health Effects by State (mean cases

April–October 1997), October 1999.

163. EPA, Health and environmental effects of

ground-level ozone, supra n 153; Dickey JH,

No room to breathe. http://www.psrus.org/

breathe.htm

164. CDC, Asthma—a speaker’s kit for public

health professionals. http://www.cdc.gov/

nceh/programs/asthma/speakit/cover.htm.

34 DEATH BY DEGR EES

165. EPA, Office of Air Quality Planning and

Standards. Smog—Who Does It Hurt?, supra

n 156.

166. CDC, Facts about asthma. August 8, 1997.

http://www.cdc.gov/od/oc/media/fact/

asthma.htm.

167. Treat, S, supra n 12.

168. American Lung Association of Maine,

Helping you to manage and control asthma (fact

sheet). http://www.mainelung.org/

learn_with_us/asthma/asthma.htm.

169. CDC, Surveillance for Five Health Risks

Among Older Adults- United States,

1993–1997, MMWR, 48(SS08):89–130

(Dec 17, 1999). http://www.cdc.gov/epo/

mmwr/preview/mmwrhtml/ss4808a5.htm.

170. Ibid.

171. Hales S, et al., Prevalence of adult asthma

symptoms in relation to climate in New Zealand,

in Environ Health Perspectives, 106:607–10

(1998).

172. New Hampshire Department of Environmental

Services, Reducing toxic air pollutants in

New Hampshire. http://www.des.state.nh.us/

ard/toxpage.htm.

173. Southern Maine Medical Center, Pollen

Count Data, 1999.

174. Office of Science and Technology Policy,

Climate Change: State of Knowledge, Executive

Office of the President, October 1997, p. 12.

175. From an interview reprinted in Climate Alert,

v8, #3, May–June 1995, ph 202-547-0104.

176. U.S. EPA, Global warming trends: sea level.

http://www.epa.gov/globalwarming/climate/

trends/sealevel.html.

177. Maine DEP, Global Climate Change, supra

n 22.

178. Titus JG, Greenhouse effect, sea-level rise

and barrier islands, in Coastal Management

20, (1990).

179. Petit JR et al, Climate and atmospheric history of

the past 420,000 years from the Vostok ice core,

Antarctica, published in Nature, 399:429–435

(June 3, 1999).

180. U.S. Census data for the state of Maine,

supra n 18.

181. Giese G, A Coast At Risk in "Maine

Launches Global Warming Meetings,"

June 26, 1997, Maine EPA.

182. U.S. EPA, Climate Change and Maine, supra

n 10.

183. Ibid.

184. NCDC, Climate Data: Coastal Erosion,

October 10, 1998, Kennebunk. http://

www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~123769.

185. City of Saco, Maine, Camp Ellis Beach

Erosion Study news summary. http://

www.sacomaine.org/document_archives/

other/camp_ellis_erosion.html.

186. EPA, Global Warming Impacts- Coastal

Zones. http://www.epa.gov/globalwarming/

impacts/coastal/index.html.

187. EPA, Global warming site-impacts: coastal

zones. http://www.epa.gov/globalwarming/

impacts/coastal/index.html.

188. Maine DEP, Global Climate Change, supra

n 22.

189. EPA, Climate Change and Maine, supra

n 10.

190. Ibid.

191. Ibid.

192. Ibid.

193. NCDC, Climate Data—Coastal Erosion on

October 10, 1998 at Kennebunk. http://

www4.ncdc.noaa.gov/cgi-win/

wwcgi.dll?wwevent~ShowEvent~123769.

194. From "Chilling evidence of climactic

meltdown," The Boston Globe, January 21,

1999.

195. Epstein PR, Climate ecology and human

health, Consequences, Volume 3, No. 2, 1997.

196. WHO, supra n 54 at 91.

197. CDC, Recommendations for the use of Lyme

disease vaccine recommendations of the

Advisory Committee on Immunization

Practices (ACIP). MMWR, 48(RR07):1–17

(Jun 4, 1999).

198. DHS EPI, supra n 117.

199. EPA, Climate Change and New Hampshire,

supra n 58: WHO, supra n 54 at 92.

200. Epstein, The impact of climate change on

human health in New England, supra n 9.

201. WHO, supra n 54 at 71.

202. Preston R, West Nile mystery, in The New

Yorker, p. 90, October 18 & 25, 1999.

203. Kovats S, et al, Global climate change and

environmental health: Proceedings of the

1997 annual conference of the Society for

Occupational and Environmental Health, in

Int J Occup Envir Health, 4:41–52 (1998)

citing Focks, et al, J Med Entomol 30:1003–17

(1993).

204. CDC, West Nile Virus Encephalitis—New

York, 1999, MMWR, 48(41):944-946, 955

(Oct 22, 1999).

205. CDC, Notifiable Diseases/Deaths in Selected

Cities Weekly Information, MMWR,

48(51);1183-1190 (Jan 7, 2000). http://

www.cdc.gov/epo/mmwr/preview/

mmwrhtml/mm4852md.htm.

206. Cited in IPCC, supra n 2.

207. Ibid.

208. CDC, Hantavirus pulmonary syndrome—

slide show. (1999).

209. Johnson J, supra n 5.

The Emerging Health Crisis of Climate Change in Maine 35

210. Hamburg S, Beech Trees Move Slowly in EPA

Launches Global Warming Meetings,

Doc. WGB97-0166.

211. Maine Department of Agriculture report.

http://www.state.me.us/agriculture/

homepage.htm.

212. Alexandrov VA & Hoogenboom G, Climate

variation and crop production in Georgia, USA

during the 20th Century.

213. Ibid.

214. Miller, A, Maine Forest Service Douses Burn

Permits, Wiscasset Newspaper, April 29,

1999. http://wiscassetnewspaper.maine.com/

1999-04-29/burning_permits.html.

215. Maine Forest Service, Forest Fires Control

Division report. http://www.state.me.us/

doc/mfs/ffchome.htm.

216. Duclos P, et al, The 1987 forest fire disaster

in California: assessment of emergency

room visits, in Arch Environ Health 45:53–8

(1990).

217. Cited in David Ignatius, Naysay now, pay

later, in The Washington Post, A19, August 18,

1999.

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