The Northern
Review 51 (2021): 69–104 https://doi.org/10.22584/nr51.2021.004
Research Article
Arsenic Lost Years: Pollution Control at Giant Mine from 1978 to 1999
Abstract: Arsenic pollution of the air, land, and
waters surrounding the Giant Gold Mine in Yellowknife, Northwest Territories,
has been an ongoing public health crisis since the mine was opened in 1948.
This article focuses on the story of Giant Mine from 1978 to 1999, paying
particular attention to environmental health policy reform in the mine’s later
years in the 1990s. I argue that regulatory action was delayed and ultimately
prevented by the inability of regulators to respond to the risks that
continuous exposure to low doses of arsenic posed to the community around Giant
Mine. This article uncovers a trail of government, activist, and industry
discourse that illuminates the extent to which the Canadian environmental
regulatory structure was paralyzed by a lack of certainty on how toxins like
arsenic interact with the human body.
Introduction
On January 28, 1998, the Northwest
Territories Water Board met to review Royal Oak’s request to renew its Water
Use and Waste Disposal permit for the operation of the Giant Gold Mine in
Yellowknife. When it came time for the Department of Indian Affairs and
Northern Development (DIAND) to present as the lead federal department of
environmental monitoring at Giant Mine, Dr. Bill Cullen stood to offer his
opinion. Cullen was a well-established arsenic expert, a University of British
Columbia researcher of inorganic and environmental chemistry who also advised
the United States Environmental Protection Agency on arsenic issues. After a
twenty-minute presentation on the characteristics and history of arsenic,
Cullen ended his testimony by summing up the problem of arsenic at Giant Mine:
So, where do we stand in terms of
Canada’s regulation? In 1978, there were research recommendations that research
was needed on the mobilization of large quantities of arsenic, the by-product
of all sorts of things. Then this situation was revisited again recently by the
Canadian Government in terms of—1993 regulations I think—and this resulted in
arsenic being declared a substance that had to be regulated and regulations are
in place. But one of the disturbing things about this as far as I am concerned,
is that the recommendations that are associated with this particular
act and other things are effectively the same as were made twenty years
or ten years ago. So really, progress in this area, I think has been distressingly
slow and I urge that everybody sort of get together with what I think is a very
important act of trying to do something about this. This is a pretty major problem.1
Cullen was referring to two
federal investigations: one by the Canadian Public Health Association (CPHA) in
1977, and one conducted in 1994 as part of a nationwide series of
investigations on the efficacy of the Canadian Environmental Protection Act.
Both studies had investigated the arsenic air and water effluent produced by
the gold roasting process used at Giant Gold Mine. The first study ended
several decades of heightened controversy by concluding that arsenic was no
longer a serious concern for the community of Yellowknife. Not quite thirty
years later, five decades of research, controversy, and regulatory discussion
surrounding arsenic emissions at Giant Mine had failed to solve the threat that
arsenic posed to the surrounding community’s health and safety. (Even though by
this time, regulations—which were and are, by definition, enforceable—had been
formally passed for reducing arsenic). Any expansions of scientific knowledge
and regulatory interest in the past half-century had resulted in only “distressingly
slow” progress, as Cullen had said. What can be asked is, in revisiting the
problem of residual and ongoing arsenic pollution at Giant in the 1990s, how
and at what point did the regulatory discussions of arsenic toxicity and public
health come about, and why did these discussions fail to make substantive
progress beyond where they began with the 1977 investigation?
This article argues that in the
1990s, despite government efforts to balance economic growth, jobs, and
environmental health concerns, the attempted regulation of arsenic at Giant
Mine served private industry’s interests above those of public health. Despite
increasing regulatory scrutiny and public awareness, this misalignment was
enabled by a regulatory process that was unable to negotiate unknowns of
carcinogenic pollutants—i.e., arsenic. Drawing on the content of public
hearings, government and community correspondence, and media publications, I
will demonstrate that regulator actions and discussions at the territorial
level relied on the projected economic certainties associated with keeping the
mine open, rather than more thoroughly considering the uncertainties of toxic
exposure and repercussions for public health.
In exploring the ultimate causes
of regulators’ failure to resolve questions of health and arsenic around Giant
Mine, my research will consider the incorporation of scientific data both in
regulatory decision making and in the influence of industry interests. This
article is organized into three main sections: the first section
addresses the causes of the 1977 arsenic debate, how the CPHA report that
followed left questions of arsenic exposure in the community unanswered, and
how the debates on arsenic and public health revolved around competing
scientific definitions of toxicity. The
second section describes the political, social, and environmental concerns that
arose in the 1990s as new scientific understandings of arsenic’s toxicity
renewed the regulatory debate between territorial and federal medical officers,
government leaders, and Giant Mine’s management and ownership. The third and
final section considers what happened at Giant Mine after arsenic was put on
the federal Priority Substances List, which necessitated further federal
oversight and intervention in the Giant Mine discussion.
Before
moving to the main body of evidence and analysis, a
review of the relevant literature is necessary. Giant Mine’s geographic location
in the Canadian North provides the wider context for this analysis, which
therefore includes northern political economy literature on resource projects
like Giant Mine, and discussions of northern industrialization as a modern
colonial dynamic.2 In
order to address the environmental health effects of industrial pollutants
wrought by such development, this article heavily relies on historians of
occupational and environmental toxins whose research concerns the evolving definitions
of toxicity in the wake of rising cases of chemical-induced illnesses in the
postwar era.3 As scholars
like Christopher Sellers, Nany Langston, and Linda Nash have discussed
extensively, early twentieth century toxicology’s primary tenet was “the dose
makes the poison,” a principle readily adopted by industry regulators.4 This concept meant that no
matter the chemical, person, or context of exposure, there was always a dosage
level or “threshold” below which a chemical exposure was rendered safe, and
that, by extension, there was always an acceptable level of industrial
pollution. Such exposures were categorized as below the Threshold Limit Values
(TLV).5
This emphasis on
specific doses of exposure—as originally scientifically established and
verified in controlled laboratory conditions—meant that establishing proof in
circumstances outside of the laboratory was often problematic.6 For the typical
individual or community, the interaction of exposures to different substances
in varying contexts at different rates obscured cause and effect. Translated
into environmental health, exposure to toxic substances can be difficult to
prove as the cause for human illnesses unless the symptoms are severe enough to
point directly to illness associated with high-dose poisoning. Low-dose,
long-term exposure, therefore, has historically defied provability, as Linda
Nash has discussed in the case of California orchard workers in the mid-1900s
who became ill after exposure to pesticides over weeks and months.7
As
Canada and the United States launched their parallel regulatory overhauls in
the 1960s and 1970s, “threshold modelling” began to lose its currency among
regulators at the newly established Environment Canada and the United States
Environmental Protection Agency. This was in no small part due to new
scientific research that revealed that highly carcinogenic synthetic chemicals
were proven to have no threshold—or even, in the case of endocrine-disrupting
synthetic hormones, to have increased potency
at lower doses.8 By the
1990s, TLVs were no longer the assumed model for understanding the mechanism for
all toxic exposures. The regulatory process was therefore cast into
uncertainty. How could a toxin be regulated if it could not be determined at
what level exposure was safe?9
Or, as historians would ask, what if there was simply no safe level, given the
widely accepted notion that pollution was necessary for economic and social
progress?10
Since the 1990s,
toxicological historians Soraya Boudia and Nathalie
Jas have argued that once thresholds were rejected
as a constant regulatory principle, regulators bypassed scientific uncertainty
by addressing political, social, and economic interests directly, rather than
relying on ironclad scientific proof.11 These historians
have categorized this shift as a movement from
“risk analysis” to “risk management” where, rather than definitively
identifying and eliminating health and environmental risks with certainty,
regulators and scientists sought to manage potential
or likely
risks.12
In so doing, scholars describe this regulatory tactic as one based in
principles of accountability, tethered less to what was scientifically
“correct” or
objectively safe, in favour of what was reasonable
given social demands and competing economic and industry interests.
Canadian
political scientists have used regulatory studies to interrogate a related
problem: why has pollution dangerous to health continued to proliferate despite
the overall increase in regulation—in every government sector environmental or
otherwise—since the 1960s?13
Scholars David Richard Boyd, Robert Paehlke, and
Douglas Torgerson point to long-standing structural issues of Canadian federal
enforcement power. Rather than regulations, Canada’s federal environmental
regulatory system prefers to offer recommendations and guidelines, giving
provincial governments discretion over whether or not to adopt them.14 Even today Canada still lacks
enforceable federal environmental standards concerning air and water quality.
With provinces left to navigate the ambiguities of toxin regulation on the
ground, a wide variety of regulatory mishaps and mismanagement have resulted,
as scholar Kathryn Harrison describes.15
Political scientists use the case of the Sudbury, Ontario, nickel smelters to
illustrate how early-1980s regulation failed to mitigate acid rain caused by sulphur dioxide emissions because provincial regulators were
too hesitant to enforce their own laws.16
In other cases, scholars cite the preference of provincial regulators to give
industries more freedom in order to promote economic growth out of a sense of
“symbiotic relationship.”17 More
generally, these works demonstrate that economic considerations had more weight
at the provincial level, leaving provinces more vulnerable to industry
influence.
Political
scientist Robert Gibson takes these veins of inquiry one step further. Drawing
from case studies such as lead poisoning in Toronto in 1965, Gibson argues that
in modern environmental policy, the uncertainty
inherent in toxicology short-circuits the standard logic of regulatory decision
making.18 Government administrations, Gibson argues, thrive
on certainty—something toxicologists can almost never offer, at least not to
the satisfaction of government bureaucrats’ standards of proof.19
It is difficult to build a case, beyond a reasonable doubt, that might force
any company such as Inco Limited, of the Sudbury nickel mine, to invest in
costly pollution abatement. The range and variables of human and
ecological exposures were too complex to determine sulphur
dioxide’s effect with certainty. Accordingly, no matter
how many studies have been done, there would always be uncertainties over the
effects of toxins on humans.20 Add to this the fact
that while provincial regulators can choose how they
negotiate pollution management with industry, regulators have little incentive
to form “adversarial” relationships with industry.21
Returning
to Yellowknife, recent research on Giant Mine has brought the history of this
“symbiotic relationship” into clearer relief. This article also builds on the
exhaustive research of Indigenous voices and colonialism at Giant Mine by Arn Keeling and John Sandlos,
extending their analysis into the unaddressed 1990s time period where, as possible,
the article incorporates undercurrents of historical environmental injustice
embedded in regulatory discourse around the extractive industries.22 By engaging with the
conclusions of historians of toxicology and political science, and the archival
findings of Sandlos and Keeling from the 1950s
through the 1970s, the article contributes fresh material as a hybrid of
Canadian environmental regulation and northern extractive-industry history,
which observes looming themes of environmental justice in the political
dynamics of community, state, and industry.
1977
Investigation: A Conclusion to Arsenic Controversy?
Controversy and debate around
arsenic emissions at Giant Gold Mine are almost as old as the mine itself. The
Yellowknife Giant Gold Mine was established in the Northwest Territories near
the beginning of the postwar mining boom in the Canadian Subarctic and across
North America.23 The expanded development of the Canadian
North in the 1930s drove the settlement of the present-day Northwest
Territories capital of Yellowknife around the staking of Con Gold Mine. As the
years went on, other large stakes were claimed and developed, including the
Negus Mine in 1939 and Giant Gold Mine, which began full operation in 1948
under the ownership of Giant Yellowknife Gold Mines, Ltd.24
The gold formation at Giant
required an environmentally destructive processing method that would, within
years, cause the death of people and animals around Yellowknife. Giant roasted
the raw ore to separate the gold from the arsenopyrite and pyrite sulfides to
which it was bonded. The byproduct
of this process was a highly toxic arsenic trioxide dust that
spewed out of the mill smokestack and sprinkled the nearby town of Yellowknife
and the surrounding communities. In the early 1950s, Con and Giant’s combined
air emission rate was 22,000 pounds of arsenic dust per day.25
By 1951, there were multiple reports of illness in the area—in particular, in
the Yellowknives Dene (Weledeh)
settlement on Latham Island, as well as the Yellowknives
Dene community on the east side of Yellowknife Bay. Both communities remained
off the City of Yellowknife’s drinking water supply, and instead gathered their
water from the lake and snow—sources eventually established as primary arsenic
exposure pathways.26 While there is some uncertainty about
the number of cases of acute arsenic poisoning in the Yellowknife area, there
were several reports of sick livestock, and at least one confirmed arsenic
poisoning of a child. (The Yellowknives Dene report
significantly more cases that were not included in government reports.)27 In response, the federal government began to warn locals of
the presence of arsenic in water. Additionally, both federal regulators and
Giant Mine representatives met in Ottawa and determined that, in order to reduce
arsenic emissions, a pollution control mechanism would need to be installed on
the Giant Mine stack.28
Giant agreed to install an
electrostatic precipitator, a filtration device installed over a mine stack
that captures metallic particles by generating a magnetic field.29
Though the precipitator successfully reduced arsenic emissions by almost 15,000
lbs a day in 1954, and then to 695 lbs per day after an additional air filtration system was
applied in 1958, this still amounted to a significant quantity of arsenic dust
accumulating on land and in waters in the Yellowknife region.30
Federal monitoring reports show
mean values of arsenic levels in vegetation that ranged from 18 to 2,228 parts
per million (ppm) throughout the 1950s and 1960s—what Giant Mine historians Arn Keeling and John Sandlos
refer to as “staggeringly high levels of arsenic contamination”—in comparison
to the 1 ppm value recommended by the United States Public Health Service.31 However,
according to archival evidence there was sparse discussion between the federal
and territorial health representatives over this period.32
A medical report published in 1970
would soon change this silence. Dr. A.J. de Villiers from the Department of
National Health and Welfare’s Occupational Health Division led a three-year
study of medical records and health surveys drawn from the population of
Yellowknife. Known as the “de Villiers report,” it concluded that several
symptoms of arsenic exposure—including “abnormal electrocardiographic changes,”
skin lesions, and acute respiratory disease—were prevalent in both mine workers
and community members in Yellowknife.33 This conclusion
suggested that the reductions or arsenic emissions in the 1950s had not been
significant enough to prevent the effects of long-term arsenic exposure at
lower doses. But the de Villiers report remained unknown to the public until an
anonymous person mailed a copy to the CBC Radio show “As it Happens” in 1975.
The broadcast that followed stirred widespread concern and extensive
controversy over why the results had not been made public before.34
The de Villiers report raised
numerous questions from the public and the medical community, and so was
followed by a back and forth series of studies between Health and Welfare
Canada and the National Indian Brotherhood (NIB), who collaborated with the NWT
Indian Brotherhood and the University of Toronto.35 In its
several studies on collections of community urine samples, Health Canada
determined that arsenic levels fell within “acceptable norms,” with 91.7% of
Yellowknife inhabitants who had no occupational exposure showing under 5 ppm in
hair follicle samples, and therefore “similar to levels in a non-exposed
population.”36 But the NIB was concerned for those in
Yellowknife who the Health Canada studies had left out—in particular, Yellowknives Dene children from Latham Island, and from Dettah on the east side of Yellowknife Bay.37
In response, NIB commissioned a study testing the hair follicle samples of
Giant workers as well as Dene and Dene children. The NIB results contradicted
those of Health Canada and concluded that all people sampled carried an
increased arsenic load and significantly more arsenic than the control group
sampled from Whitehorse. Of the Whitehorse group, no First Nations children had
1 ppm or more of arsenic in their hair samples. In the Yellowknife group of
First Nations children, all except two had more than 1 ppm.38
Dr. Robert E. Jervis, University of Toronto collaborator from the Department of
Chemical Engineering, concluded: “Our finding indicates a significant local
environmental contamination level in Yellowknife.”39
Responding to these contradicting
conclusions, in 1977 federal Minister of Health Marc Lalonde contracted an
independent study through the non-profit Canadian Public Health Association
(CPHA).40 The CPHA was to investigate whether or not arsenic
posed a serious health hazard to the Yellowknife community.41
After a year of synthesizing the past decade of environmental and health
studies data from the Yellowknife area and its inhabitants—data that
incorporated results from those living within the greater city limits of
Yellowknife, including Yellowknives Dene children
from Latham Island and Dettah—the CPHA Task Force on
Arsenic published their report. The report concluded that, based on exposure
indicated in samples from hair and urine, the greater Yellowknife community did
not display significant arsenic exposure.42
The Task Force’s conclusion most
crucially relied on their determination that arsenic trioxide had a “threshold
level.” In other words, they determined that arsenic, which was known to be
cancer-causing, could exist at certain low levels that were non-carcinogenic in
the environment and people’s bodies, regardless of the duration or chronic
nature of exposure.43 The CPHA argued against assertions
that low-dose exposure could be dangerous, stating: “This premise would apply
only if there were no threshold dose for cancer induction … The no-threshold
concept also ignores the body’s ability to detoxify arsenic in small doses.”44
Drawing from its conclusions that
thresholds did exist for all substances, the CPHA suggested occupational
standards at levels that contradicted those endorsed by the NIB and its
partner, the United Steel Workers (USW). These organizations knew that other
countries, including the United States, had established significantly lower
standard levels.45 At this time, the United States
Occupational Safety and Health Administration had set a 10 ppm occupational
ambient air standard for arsenic, which was far lower than the CPHA’s
recommended 30 ppm.46 Some in the toxicological medical
field also criticized the report for its failure to recognize the effects of
long-term low-dose exposure to arsenic.47 Dr. Hector Blejer, the CPHA toxicologist consultant appointed by the
USW and NIB, remained skeptical and commented that the report was “saying that
thus far no data really exists to prove one thing or the other” about arsenic’s
health effects in Yellowknife.48 Blejer
recognized the uncertainty at hand that the Yellowknife community’s safety had
yet to be proven.
There was also skepticism around
the CPHA report’s attendant forty-six recommendations, which described
precautions to be taken around drinking water and eating country foods, and
priorities for environmental cleanup and the continued health monitoring of
at-risk Yellowknife residents and workers.49 The USW and NIB
did support some aspects of these recommendations; they were, among other
things, to set a groundwork of regular evaluation of human health and
environmental standards and conditions.50 But Métis
Association Vice President Joe Mercredi pointed out
another glaring shortcoming when he stated that it was “not clear as yet who
will be enforcing the recommendations.”51
Mercredi’s question spoke
directly to larger questions of Canadian federal and provincial environmental
regulation. Both the federal government and the Northwest Territories
government lacked regulations for air emissions. At the time the CPHA report
was published, federal air emissions guidelines operated under the 1971 Clean
Air Act, which had enacted a system of suggested maximum emission limits,
general air quality objectives, and monitoring networks—but not enforceable
limits (i.e., regulations) for specific chemical substances.52 The Northwest Territories
also had no regulatory body for monitoring air emissions. There was no local or
territorial regulatory body equivalent to the NWT Water Board, which reviewed
permitting related to industrial projects and water effluent. Community members
in Yellowknife had good reason to wonder who or what would enforce the CPHA’s
suggested improvements to air emissions.
But
during and after the period of the CPHA investigation, the federal government
did consider setting an enforceable limit—i.e., a regulation—for arsenic air
emissions produced by gold roasters like Giant.53 In the mid-1970s, the federal Department of Fisheries
and Oceans (DFO) initiated a discussion of federal regulations after the
Department of National Health and Welfare reviewed the toxicological and health
effects of arsenic in its various compounds.54 Having found that “arsenic emissions could constitute
a significant danger to the health of persons,” federal regulators and industry
representatives formed the Gold Roasting Industry Task Force on Arsenic
Emissions.55 Indeed, while
the Yellowknife Task Force on Arsenic completed its official investigation in
late 1978, some members were simultaneously meeting with the Gold Roasting
Industry Task Force to weigh in on the proposed regulations.56
While
the Gold Roasting Task Force continued to discuss regulations, in 1980 Giant
Mine agreed to install new technology in the stack to proactively reduce
emissions that would meet the pending regulations.57 Reports also remarked that arsenic emissions had been
successfully reduced from 76.6 mg/m3
(milligrams per cubic meter) in 1975 to 14.07 mg/m3
in 1981, an 81.6% reduction which meant that Giant was already operating within
the proposed regulatory limit of 20 mg/m3.58
But
by the early 1980s, many members of the Gold Roasting Industry Task Force were skeptical
of the proposed regulations. Dan Billing, chair of the territorial government’s
Standing Committee on Arsenic, repeatedly emphasized that there was no need for
the enforcement of arsenic regulation at the federal level. Billing reasoned
that the CPHA report in Yellowknife had determined that there was “no risk.”59 There was, at least, no risk
of imminent death as in prior decades of Giant’s history, and combined with
Giant’s voluntary reductions to emissions, it seemed that regulatory urgency
had diminished.60 Thus,
while federal-level discussions of gold roaster arsenic emissions continued
several years beyond the resolution of the 1977 Yellowknife Task Force on
Arsenic, regulations never materialized.61 This was the last gasp of federal regulatory interest
in public health and arsenic air emissions around Giant Mine for the next
decade. The overall result of the 1977 investigation, then, was to put to rest
greater questions of public health and arsenic air emission regulation at the
federal level.
1990–1994: Giant Mine under
Ownership of Royal Oak, Ltd.
In
1990, the American corporation Royal Oak Resources Ltd. purchased Giant Mine
from owner Amour Inc. From the beginning of Royal Oak’s ownership, Giant’s
operation was fraught with problems. Royal Oak’s unpopular owner Margaret
“Peggy” Witte would eventually drive the company’s environmental record and labour standards to new lows, cutting costs at every
opportunity to create a more efficient mining operation. As this section will
discuss, even amidst Giant’s plummeting reputation, and as local community
members and federal investigations reinvigorated interest in public health and
pollution issues at Giant Mine, Government of Northwest Territories (GNWT)
regulators continued to allow Giant to exceed pollution levels. Arsenic
regulation was obstructed by a government that, to guide its own decision
making, relied on Giant’s operating limitations.
In
this policy vacuum, local activists reawakened regulatory interest in pollution
and public health at Giant in April 1991. Regulators were forced to refocus
their attention when Yellowknife activists Kevin O’Reilly and Chris O’Brien
contacted the NWT Minister of Renewable Resources, Titus Allooloo,
in a series of letters drawing attention to recent
studies on sulphur dioxide and arsenic at Giant that
called into question the safety of emissions.62 The studies
first pointed to the “premature yellowing and falling of leaves in a number of
species of trees within 5 km of the Giant Stack,” that appeared to result from
the sulphur dioxide produced by the mine roaster,
among other clearly visible signs of environmental degradation.63
Yet
while sulphur dioxide provided much of the initial
pressure to re-examine pollution at Giant, the request from O’Brien and
O’Reilly also asked questions about arsenic. The
activists’ intervention reminded the NWT Department of the Environment that
community concerns about arsenic had not fully dissipated since their
articulation in the 1970s. But their letters also reflected larger shifts in
the global awareness of arsenic toxicity and the long-term threat of
carcinogens. The timing of O’Reilly and O’Brien aligned with a wider
recognition of the fallibility of the threshold model that spread in the early
1990s; health organizations now officially recognized that some substances were
toxic at any level.64 In the case of arsenic, global
health-care leaders like the World Health Organization now had adequate data
drawn from long-term arsenic exposure cases, such as those of arsenic-tainted
tube wells in Bangladesh in the late 1980s where poisoning occurred on a scale
large enough to provide for statistically accurate epidemiology analysis.65 By the early
1990s, arsenic was widely cited as a carcinogen with low-dose prolonged
exposure associated with bladder, skin, and liver cancer.66
The recommended dose-rate arsenic exposure varied between countries—for
drinking water, the World Health Organization recommended ten parts per billion
(ppb) as of 1993, although the United States Environmental Protection Agency
did not adopt this recommendation until 2001.67 While some
toxicologists had said as much before and during the 1977 CPHA investigation,
there was now growing agreement within the scientific community of the 1990s
that arsenic, and all carcinogens, had no safe level of human exposure.68
Unfortunately, the NWT Department
of Renewable Resource’s response to the inquiry by O’Reilly and O’Brien was
delayed by a controversial workers’ strike from 1991 to 1993. Under the
oversight of Peggy Witte, Royal Oak had adopted increasingly harsh worker and
management policies after purchasing the mine in 1990: the company quickly laid
off long-time workers deemed superfluous, punished accident-prone workers, and
was charged with a number of mine safety violations as its non-striking
employees worked overtime underground, beyond the hours allowed by the
Northwest Territories Mine Health and Safety Act.69 On September
18, 1992, Giant made national news when a
bomb, planted by a striker, exploded in one of the underground chambers,
killing nine replacement workers.70
In spite of such radical actions that drew media attention, the strike
continued and only ended in November 1993 after the Canada Labour Relations Board intervened.71
With the immediate chaos around
the Giant strike, it was not until July 1993 that the Department of Renewable
Resources completed an investigative report on arsenic and sulphur
dioxide.72 The report drew ambiguous conclusions on arsenic.
Arsenic was a known carcinogen but lacked federal air quality guidelines to
establish ideal or maximum allowable doses.73 Consequently,
the report stressed that there was no urgent threat, stating: “the data, with
all its limitation, does not indicate the presence of an imminent health hazard
in Yellowknife as a result of emissions from the mine.”74
This conclusion avoided any concrete statements or extrapolations about the
overall or long-term threat of pollutants.
After examining the report for its
health implications, the NWT departments of health and the environment
downplayed arsenic’s threats in various reports and public statements.
Commenting on arsenic’s threat level, the NWT Department of Health stated:
While
arsenic is known to cause cancer, one must carefully consider the level of
exposure of the population when considering potential risks. It is important to
note that the levels reported in the Yellowknife area have dropped dramatically
since the mine opened, and now fall within the normal range of values found in
other Canadian cities.75
Through
statements like this, the Department of Health
attempted to normalize arsenic levels in Yellowknife. In the statement quoted
above, the Department of Health misrepresented the data on Yellowknife’s
airborne ambient arsenic: the NWT Renewable Resources 1989 report on “Air
Quality Monitoring in the Northwest Territories” found arsenic air
concentrations to be eight times higher than major Canadian cities.76
Likewise, as was reported during the strike, ambient air arsenic samples
indicated slightly higher arsenic concentrations in recent years than those
past.77
Because there
were no federal regulations of arsenic emissions, the territorial Department of
Health resorted to using the gold roaster regulations from Ontario, the only
province in Canada with enforceable limits for arsenic air emissions. The 1993
investigative report concluded, “total arsenic levels in Yellowknife air have
remained at levels well below the Ontario 24-hour limit of .3 micrograms/cubic
meter since 1988.”78 As it happened, the Ontario limit in 1993 was the same
regulation used as additional evidence in the early 1980s by the Gold Roasting
Task Force on Arsenic to determine that Giant’s stack arsenic effluent was
acceptable; it was also the standard that guided the federal determination that
there was no need to institute arsenic regulations within the Clean Air Act.79 The NWT Environmental Protection Division and
Department of Renewable Resources would continue to
cite the .3 microgram standard in territorial and federal discussions until at
least 1996.80
The use of the
Ontario limit illustrated several practical obstacles for the regulation of
Giant’s arsenic emissions in the 1990s. Progress around toxicological and
public health advances at Giant was blocked in large part by a federal system
whose governing body for the environment made suggested limits, rather than
enforceable ones (i.e., regulations), for maximum allowable industrial
emissions. In this way the Giant Mine case exemplifies what political
scientists have discussed in the context of the discretionary nature of the
federal environmental regulatory system being a barrier to public health protection.81 Even as
environmental regulation and bureaucracy had increased through the 1970s and
1980s, there was not in 1993, just as there is not in present day Canada, a federal law governing enforceable air
emissions standards for most substances.82 Indeed, the Northwest
Territories also still had no air regulations, to speak of, for roaster stacks.83
It
is also possible federal regulation of airborne arsenic
was further complicated by the atypical nature of Giant’s ore-processing
methods. At this time in history, Giant was one of the
few point sources of airborne arsenic in North America. In Canada, there
had only been four other roasters operating as far back as 1972.84 There were three in Ontario
(hence Ontario’s regulations), and one that had recently closed in British
Columbia.85 None of these
roasters were operating by 1994, as all had closed for environmental, economic,
or safety concerns.86
Giant was one of the last of an uncommon kind, which made for only a few dated
references for the capacity of its equipment under contemporary notions of
pollution reduction.
While the lack of direct
regulation and comparable industrial operations left the Department of
Renewable Resources searching for legitimate standards in response to the
request from O’Reilly and O’Brien, federal health regulators were increasingly
less convinced of the Ontario limit’s utility. Accordingly, they warned the NWT
Department of Health that the Ontario limit was dated and unreliable. In a
letter to Dr. Ian Gilchrist, the Medical Director of Northwest Territories
Health, the Director
General of Federal Environmental Health J.R.
Hickman commented as a medical professional on the 1993 report, making clear
that, while there were no imminent risks
associated with the levels of arsenic represented, the Ontario standard was an
unreliable one for comparison with Giant Mine. Hickman noted:
In comparing your 24-hour levels
to the Ontario standard of .3 micrograms per cubic meter, we would caution that
the Ontario standard was based on epidemiologic studies of cancer incidence in
workers in industrial settings of high exposure. It is our understanding that
this standard is under revision in order to take into
account more recent scientific findings.87
Hickman
stressed that the Ontario standard was as an occupational standard,
established for high-exposure industrial professions, not public or environmental
health. Occupational exposure standards have typically been established at
higher thresholds under the assumption that workers are exposed only while
working—that is, for shorter periods of time—compared to people in a community
near a contaminant point source where people would be exposed all of the time.88
Regardless, according to Hickman, the Ontario standard was in the process of
being revised to reflect more up-to-date scientific understanding. The Ontario standard, in other words, was not suitable for
establishing environmental standards to protect human health in any context.
Yet, despite the federal government’s warnings, the Department of
Renewable Resources and NWT Health continued to
use it.
However,
because there was still a consensus that “arsenic should be kept to the lowest
levels possible,” or “reduced wherever
possible,” territorial government officials
did ask Giant to lower emissions.89
Soon after the Department of Renewable Resources published the 1993
investigative report, officials from the territorial Department of Health and
Department of Renewable Resources began to meet with Giant officials and
encouraged them to reduce emissions as a “good corporate citizen.”90 Without regulations for
arsenic in Canada, all the territorial government could do was ask Giant to
comply voluntarily.91
Officials at Royal Oak Mines were not interested. According to July 1993 news
releases, Royal Oak refused to attempt lowered emissions rates, as “the
technology needed to cut that level of emission is still too expensive.”92 Giant made it clear that it
would not participate in emission reductions that could negatively affect their
bottom line.
Though
the federal Department of Health had cautioned the NWT Department of Renewable
Resources about using the Ontario limit, it did not intervene further other
than to review and respond to the NWT 1993 report.93 Correspondence between the Health Canada Priority
Chemicals Section and the Criteria Section, and the NWT Medical Directorate,
also reveal that the federal government did not consider direct interference,
in part because Environment Canada was investigating whether arsenic and all of
its non-organic compounds should be added to the pending 1994 federal Priority
Substances List. As Dr. Hickman of the Environmental Health Directorate
explained to the Director of NWT Health Dr. Gilchrist:
Arsenic
is currently under review as part of the CEPA [Canadian Environmental
Protection Act] Priority List Evaluations. Based on the outcome of this assessment,
which includes an assessment of both toxicity and exposure, an air quality
guideline will possibly be established.94
Finally,
in 1994, arsenic in all its forms was listed as a priority substance and
officially included under the Canadian Environmental Protection Act (CEPA). In
reference to the plan of action necessitated by this listing, the Priority
Substances List Assessment Report stated, “this approach is consistent with the
objective that exposure to non-threshold toxicants should be reduced, wherever
possible, and obviates the need to establish an arbitrary de minimis level of risk for determination of “toxic”
under the Act.”95
1994–1998:
New Investigations until Closure
After
Environment Canada officially placed arsenic on the Priority Substances List,
any situation concerning arsenic pollution entered the realm of federal
interests under CEPA. This designation came at the same time as
Environment Canada’s larger planned review of CEPA efficacy—for the first time
since the legislation’s initial enactment in 1988.96 In 1995, as a part of
Environment Canada’s broader mandate to reform and
improve CEPA, the House of Commons Standing Committee on Environment and Sustainable
Development was tasked with conducting public hearings in communities across
Canada to allow Canadian citizens to speak on their experience and concerns
with local environmental issues.97 Yellowknife was one of those communities.98
In the report
that followed, the CEPA committee was highly critical of the current and past
state of arsenic management around Giant Mine. Committee members were perplexed
that arsenic could be such a historically troublesome issue in Yellowknife, yet remain unresolved even as toxicological
breakthroughs had been integrated into federal government recommendations over
the previous five years. In particular, the committee pointed to the contradicting
conclusions between federal regulators and NWT health and environmental
agencies: Environment Canada and Health Canada had concluded in 1993 that “the
current concentrations of inorganic arsenic in Canada may be harmful to the
environment and may constitute a danger in Canada to human life or health.”99 At the same
time, territorial regulators had concluded that drinking water was safe under
Water Board Regulations and that air emissions were satisfactory under the Ontario
standard.100 In its
concluding report, the CEPA committee thus found, “the apparent inconsistency between the reassuring conclusions reached regarding
the safety of Yellowknife air and drinking water on the one hand, and the
toxicity finding on the other, to be disturbing.”101
The committee recommended that the minister of health and the minister of the
environment come up with an action plan by December 1995 to address this
inconsistency.102
The CEPA
committee’s statement illustrated a tension that political scientists have
described between federal and provincial regulators—namely, that the
discretionary nature of the Canadian system creates more ambiguities for
provincial regulators to negotiate on a case-by-case basis.103 Giant Mine was
located in a territory, rather than a province, and each Canadian territory has
had its own processes and timelines of devolution. As highlighted earlier, long
before the mid-1990s the Northwest Territories had well-established their own
body for regulating water through the territorial Northwest
Territories Water Act under the Mackenzie Valley Land and Water Board, but created no equivalent regulatory body in relation to air
pollution. It appeared that the question of jurisdiction on the matter was
unclear to many even in the upper ranks of federal and territorial
environmental regulation, as transcripts from the 1995 CEPA hearing suggest.104 When
the topic of federal versus territorial jurisdiction over air regulation arose,
Silas Arngna’naaq, Minister of Renewable
Resources for the Government of the Northwest Territories, stated:
The
Government of the Northwest Territories has a number of complications compared
to other jurisdictions in the provinces, simply because we don’t have the
authority in some cases to work with what would come naturally for a provincial
jurisdiction … even in the Canadian Environmental Protection Act there is
confusion as to who is responsible for what. Because of the way the act is
written, it is not clearly stated who will be responsible. So
some things are up in the air. We don’t know who is responsible for what.105
Clearly
there was significant confusion. The aforementioned insights of political
scientists are even stronger in the case of Giant
Mine: territorial regulators were not exercising their ability to act because
of their economic interest in Giant Mine, and
also because it was unclear if they
had the ability to act at all. This uncertainty made it even easier for
territorial governments to privilege discourses of economic growth over those
of public health.106
Yet,
even as the CEPA committee met in 1995, regulators at the territorial level
were shifting their discussions of arsenic risks. With the 1994 placement of
inorganic arsenic on the Priority Substances List, the territorial government
revived its interest in reducing ambient arsenic from the year before—the
listing meant that a minimum level of arsenic exposure had to be more
concretely determined. In NWT statements and correspondence, arsenic was no
longer a possible carcinogen as the
Department of Renewable Resources had claimed in 1993 but, rather, a known one.
In 1995 the department officially stated: “any exposure presents some level of
risk.”107 Local
Yellowknife governance structures soon followed suit when the municipal
government, which had a stake in the Giant debate as the mine was within city
limits, also demanded that the territorial and federal governments “take
immediate steps to introduce enforceable binding regulation dealing with sulphur dioxide and arsenic.”108
Despite the
conclusions of federal and territorial regulators that arsenic should be
significantly reduced, Royal Oak still resisted reducing pollution levels.
Royal Oak responded in a similar fashion as with the 1993 Department of
Renewable Resources arsenic reduction recommendations, except now they flatly refused to stay open if their emission
limits were lowered.109 In a letter to Yellowknife Mayor David Lovell on October
4, 1995, Sade E. El-Alfy,
Vice President of Royal Oak, threatened that,
should the effluent levels proposed by city council be adopted, Royal Oak would
be forced to shut down Giant Mine because of the logistical and economic
strains such regulation would effect.110 He noted, in a passage
worth quoting at length:
The implementation by either the
federal or territorial level of government of new regulation, that is
specifically intended to render the fluid bed roasting process employed at the
Giant Mine obsolete, would have dire consequences on the continued economic
viability of the mine … Royal Oak will continue to make its business decisions
with due regard to all applicable legislation and regulation imposed by duly
elected governments. These decisions will be based on the economics of the
individual mine but at no time will Royal Oak continue to operate where a mine
has to be economically subsidized over an extended period.111
If
regulatory standards became more stringent, the roaster would require extensive
technical upgrades, and the mine, according to El-Alfy,
would close. Giant knew its technical capacity could exercise a weighty
influence on enforcement decisions. In response, activists O’Reilly and O’Brien
vigorously criticized Royal Oak’s claims. In statements to the press, O’Reilly
repeatedly pointed out that updated technology was available and utilized within
other mines and provinces in southern Canada.112 According to O’Brien, Royal Oak was merely refusing
to make the investment: “the technology exists to clean up this problem. But
Royal Oak simply is not willing to do it, even though they seem to have found
enough money to make a takeover bid of Lac Minerals and acquire new
properties.”113 To
O’Reilly and O’Brien, Royal Oak’s refusal to invest in upgraded equipment was
guided by profit priorities, rather than technical constraints.
Yet,
regulators would prove ultimately unwilling to push past Royal Oak’s defiant
stance, despite the CEPA committee’s 1995 demand for action; historical records
show no sign of Environment Canada’s discussions approaching a concrete
regulation to enforce for Giant Mine. As far as their investigations went,
Environment Canada could not find substantial concrete toxicological or
statistical health evidence to determine what action Royal Oak should take to
reduce air emissions.
In
response to the CEPA committee’s conclusions Environment Canada completed and
published a series of socio-economic studies that concluded pursuing the discussion
of ideal pollution limits should not be determined by health and toxicological
science. In the 1996 report titled “Socio-Economic Analysis of Three Management
Options to Reduce Atmospheric Emissions of Arsenic from Gold Roasting,”
researchers analyzed the cost of different ways that air emissions could be
significantly reduced (to less than 1.0 mg/m3)
and what benefit reductions would have on community health in the Yellowknife
area. Health unknowns aside, the reports commissioned by Environment Canada
suggested that the technologies most commonly used to reduce arsenic trioxide
would not be cost-effective.114
The reports determined, first, that technical options for reducing arsenic air
emissions—that is, updating the roasting process
with scrubbers, biological leaching, or atmospheric leaching—would place too much financial burden on Giant Mine
and cause it to close.115
The socio-economic analysis further stated that significantly reducing arsenic
air emissions through official government, industry, and community
negotiations, such as a covenant or structured voluntary agreement (SVA), would also likely cause the mine to close.116 It noted, “there do not appear to be compelling reasons
that might induce Royal Oak Mines to negotiate an agreement focused exclusively
on atmospheric arsenic emissions with either the community or the government.”117
The
report also included a section of health-oriented risk analysis based on
environmental data, which predicted the long-term effect of airborne arsenic on
cancer rates at current estimated exposure rates in the Yellowknife area. The
report determined that the current levels of arsenic emissions would correlate
to an increased cancer risk that, with the population of 15,175 (Statistics
Canada 1993): “translates to between .14 and .86 additional deaths due to lung
cancer attributable to exposure to airborne arsenic via inhalation over the 70
years life span of the exposed population.”118
After
qualifying the health risk involved in allowing pollution to continue
unchecked, and the benefit of reducing emissions to almost zero, the report
went on to compare the estimated health benefits to the costs of achieving
them—which it already had concluded would cause the mine to shut town.119 While a prior Environment
Canada report predicted that the suggested updates to the roaster would
significantly reduce arsenic emissions, the 1996 socio-economic analysis
concluded that the cost of performing such updates, in addition to the cost of
regulating and negotiating with Giant in the process, would outweigh the
benefits to human health in the community, namely because the mine would shut
down.120 This conclusion
was further cited and supported in a later discussion paper issued by
Environment Canada, Health Canada, and GNWT Health and Social Services in April
of 1997.121
But
the socio-economic report also admitted that if more concrete knowledge on the behaviour of arsenic was found to exist, in addition to any
data that could reflect the actual exposure rates of people in the Yellowknife
community, their conclusions could very well be different.122 The report pointed out that
there were, first, a multitude of variables that would affect exposure rates of
people in Yellowknife, such as the age and time span living in Yellowknife.123 The report also noted the
uncertainties inherent in the estimations of cancer risk.124 The socio-economic report
stressed the unfading obstacle of toxicological uncertainty: “Estimation of the
overall potential benefits associated with these reductions is extremely
difficult due to data limitations and prevailing scientific uncertainty about
the behaviour of arsenic ... considerable uncertainty
surrounds estimates of health effects at the very low concentrations observed
in Yellowknife air.”125
This statement conceptually aligns with historians of toxicology and their
descriptions of the problem of proving the causality of low-dose exposure and
illness—that the muddle of potential exposures and varying times of exposure
was too complex to draw conclusions.126
The Environment Canada socio-economic analysis suggested that technical updates
might significantly improve health risks. But
given the costs, and uncertain value of using additional studies to prove such
health hazards (epidemiological studies or demographic studies of nearby First
Nations communities, for example), the socio-economic study could not endorse a
certain plan for arsenic reduction based on health.
Regulators were
therefore left at an impasse: according to these conclusions, they had no clear
way to follow the CEPA committee’s request without shutting down the mine. This
scenario was a prime example of toxicology historians’ observations of the
historical move from “risk analysis” to “risk management” to cope with
toxicological uncertainty.127 Since the data related to
human health failed to provide the certainty required to make a decision,
regulators instead used political and economic rationale.128
Eliminating the source of risk by shutting down the mine was assumed to not be
an option. After five decades of discussing the arsenic at Giant Mine, NWT
regulators and Environment Canada regulators finally had a means through which
to enforce a regulation, but they lacked the will.
As
a result, the instances where Royal Oak publicly dug in its heels dramatically
shaped the conclusions of the federal-led
investigations that followed from the CEPA committee’s 1995 demand for action.
The subsequent studies conducted by Environment Canada, Health Canada, and
various GNWT departments did little to determine what level of arsenic was
outright “safe” for community health. Instead, these studies from 1996-1997
concluded what levels of arsenic were realistic,
based primarily on technical and socio-economic factors. Between the
fundamental uncertainties of arsenic trioxide’s toxicological mechanism, and
the demographic exposure variables, Royal Oak’s unwillingness to negotiate set
the parameters for arsenic limit levels that regulators would push.
There was an echo
to these reports in the sentiment of local voices as expressed in public
hearings and workshops over the same time period.
Though Giant was unpopular with many locals (thanks largely to their dramatic labour relations earlier in the decade), many also expressed
that Giant should remain open—or, at least, not necessarily shut down.
In a 1997 public workshop where participants reviewed the Environment Canada
CEPA response reports, groups of Yellowknife residents offered their opinions
of what and how arsenic air emissions at Giant should be reduced. According to
the report responses, no one raised the matter of whether or not Giant should
continue to operate.129 But in order to establish and implement effective rules under CEPA, participant groups also called
for heightened accountability for pollution at Giant Mine: groups consistently
called for significant “penalties” and “incentives to discourage
non-compliance” such as larger performance bonds.130
In essence, many locals wanted the economic benefits—taxes, jobs, utility
payments—that Giant had to offer, but did not want Royal Oak to run the show.
Ironically, giving Giant more leeway to follow regulations at its convenience,
rather than hold it accountable, was exactly what regulators suggested was
necessary to keep Giant operational.
Outside of these
official consultation sessions, there were those who were more directly
critical of the mine and the regulators overseeing it. While O’Reilly and
O’Brien continued to monitor the mine via local non-governmental organizations,
from the time of the CEPA hearings onward, local Métis and Yellowknives
Dene members increased their advocacy in public hearings, letters, and press
releases.131
In the 1998 Water Board meeting, Dene Nation Chief Bill Erasmus and Yellowknives Dene Chief Fred Sangris
gave statements on the future of Giant’s water use permit in Yellowknife. Not
only did these leaders not believe that Giant should receive a permit under
then current conditions, but they also spoke out against the general conditions
the mine had created for their communities both past and present.132 Chief Sangris stated:
I
would also like to remind you that even to this day, my people can’t use the
water. The fish are contaminated. My people are dying of cancer. In the last
five years, cancer has risen very high. We live right across from Giant Mine
and we can see the Giant stack. People still fish, still hunt for traditional
food, still pick berries and still gather wood for
firewood and cooking. Developers and explorations don’t have any respect for my
people’s way of life or what is important to them.133
Bob
Turner, representing the North Slave Métis
Alliance, followed with a presentation in a similar vein, and
also stated his concern for the lack of accessible information offered
to the public:
I
think we all know that the Mine is polluting our environment. We have experts
saying discharge water is below allowable limits. What our people need is
assurance that we can understand. At these points of discharge, where they say
the allowable limits are drinkable, I think we would agree with it if we were
to see these experts drinking that water. If not, the recommendation we would
like to make is for the safety of the public because we hear, unofficially, you
sure wouldn’t want to drink that water.134
Chief
Sangris’s and Bob Turner’s statements were clear
examples of the mistrust built over the decades. Both illustrated the decades
old issue of environmental regulation being established with little regard for
different ways of living outside of the conventional southern Canadian norm;
established standards of toxic exposure did not consider the interests of those
who relied on country foods as a primary food source and relied on the lake for
drinking water. Chief Sangris and Turner were less
focused on economic development as they were still concerned with the
fundamental, physical safety of the Yellowknives Dene
and Métis communities.
As
the investigations continued and branched out into community consultations in
1997 and 1998, other discussions of regulating arsenic emissions at Giant were
replaced by discussions of how to keep Giant open at all. While this might be
the product of a potential gap in archival material (or the author’s inability
to locate it), Environment Canada was unable to make an official decision
before attention had shifted to Giant’s looming debts and the still unaddressed
arsenic accumulating underground. Regulators became increasingly worried about
the 237,000 tons of arsenic accumulated and stored in underground mine shafts
under Giant. The arsenic had been amassing underground since the early 1950s
when the owner at the time, the Consolidated Mining and Smelting Company
(CM&S), reduced Giant’s initial air emissions rate by installing an
electrostatic precipitator to capture arsenic.135 Though this technology dramatically reduced the
airborne arsenic emitted, the captured arsenic had to go somewhere.136 Storing the arsenic
underground had been a “temporary” solution—in the decades following,
regulators and community members had posed questions about the underground
arsenic but it had repeatedly been put off, and the arsenic stockpile continued
to build.
Questions
about the underground arsenic arose in discussions around the 1998 Water Board
hearing when federal and territorial representatives questioned Giant’s
failure—and later outright refusal—to submit an Abandonment and Restoration
(A&R) plan as it had originally agreed in their 1993 water licence. Instead, the company requested an extension on the
A&R plan until 2000.137
An A&R plan was standard procedure for mine operation and licensing and
would have forced Royal Oak to account for cleaning up and restoring the mine
site to non-hazardous and contained status whenever the mine closed. This
A&R proposal demanded that Royal Oak make a plan
for the stored arsenic.138
Royal
Oak blamed their delay with the Water Board review process on a lacklustre gold market, which had caused a diminishing cash
flow and operational capacity.139
Royal Oak was indeed struggling financially. As of late December 1997, the
company was $122.8 million dollars in debt.140 As Larry Connell, Royal Oak’s manager of
environmental services, explained to the NWT Water Board in 1999:
...
in reality little progress was made during the fourth quarter of 1998 on
advancing proposals for the extraction and recovery of the baghouse material
from the existing underground storage vaults … the current low gold and copper
prices have created a severe cash flow and liquidity problem at Royal Oak.141
Royal
Oak was struggling to complete a new mine in British Columbia—once this was operational,
and the price of gold stabilized over the next few years, Royal Oak claimed
that the company would be able to run more smoothly.142
Now,
with Royal Oak’s growing financial instability and lacklustre
environmental record, and with no up-to-date approved plans for post-closure
cleanup, regulators were growing more uneasy about the still unaddressed
underground arsenic. Despite their concern, keeping the mine open remained a
priority for territorial and municipal regulators in the Northwest Territories
and Yellowknife, even if it meant temporarily subsidizing the mine and giving
Royal Oak more latitude following regulations. In 1998, the Water Board
provided Royal Oak with a seven-month extension to form a remediation plan for
the stored arsenic underground, just as the territorial government, under the
leadership of the Department of Resources, Wildlife, and
Economic Development, developed a seven-year program to subsidize $1.5
million in further exploration and development for gold.143 The City of Yellowknife was
also preparing to provide funding.144
But the remediation plan was never completed. On April 16, 1999, Giant went
into receivership and every member of the board of directors resigned.145 By this time Royal Oak owed
over $14 million to creditors in the local Yellowknife area.146
From 1991 to
1999, controversy over arsenic, pollution, and public health arose when
low-dose exposure was better understood. Yet, territorial and federal
regulators’ failure to take stronger action to regulate Giant raises the
research question: was the definition of lowest acceptable level of exposure at
all different from the “lowest possible” amount of arsenic effluent that could
be economically produced by Giant Mine? Regulators knew arsenic was dangerous.
But the regulatory discussion in the 1990s suggests that curbing Giant Mine’s
arsenic problem was not just a matter of designating arsenic as officially
toxic, with established enforceable
limits. Nor was it as simple as declaring it a non-threshold carcinogen. The
1990s Giant Mine debacle was also defined by the way in which regulators kept
Giant—an uncooperative, highly indebted mine using outdated technology—in
operation. Environment Canada did attempt to follow the CEPA committee’s
recommendations in conducting their investigation. But for a controversy
spurred by concern for human health, there was little investigation of actual
human
health risks once they were deemed too uncertain to be concretely established.
Instead, these studies paid more attention to Giant’s presence as an economic
benefactor in Yellowknife by letting Giant’s
technical shortcomings guide regulators’ rationale for arsenic management.147
Conclusion
Giant
Mine is a blemish of near-unprecedented scale in the history of environment and
toxins regulation in Canada. The shocking quantity of arsenic stored
underground—and the current estimated $900 million cleanup—can overshadow the
legacy of arsenic left around the surface of the mine.148 The 237,000 tonnes of underground arsenic may be enough to kill the
world’s population several times over, but unknown quantities of surface dust
and debris remain. Why did regulatory discussions of
arsenic and public health fail to make substantive progress past the 1977
Canadian Public Health Association report? To this day it is not known
how detrimental these arsenic traces could be.
Progress on the pollution issue at
Giant Mine was inhibited by conflicting governance priorities and the
territorial departments’ unwillingness to push past Royal Oak’s refusal to be
regulated. The vagueness of Canadian environmental law in a territory with no
air regulations further exacerbated the situation. But even after scientific
and activist concern around arsenic became strong enough to warrant federal
involvement in 1995, Environment Canada’s subsequent studies continued to
assume that Giant Mine must remain open. Considering the assertion of political scientists that regulators are
more easily swayed by the lure of economic interests at the territorial and
provincial level, it was not surprising that the Northwest Territories
government would support industry above hazy threats of toxicological risk,
even to the extent that they would elect to subsidize Giant to keep it running.149 But even
Environment Canada, a federal regulator, was slow to take a definitive stance
with on-the-ground implementation, and had inadvertently aligned its
conclusions with the interests of Royal Oak.
In the course of addressing the
arsenic issue at Giant Mine, the federal government—Environment Canada, Health
Canada, Indian Affairs and Northern Development, Environmental Protection
Services—set aside emerging evidence of potential exposure risks. Historians of
toxins exposure regulations argue that science is not a stand-alone object;
that scientific conclusions and systems of thought are not immune to political,
social, and historical contingencies and assumptions.150 And so the process of
translating any science into public policy and decision making is complex. In the uncertainties that resulted, regulatory
agencies (both territorial or federal) sought pollution limits that were, if
not certifiably correct according to environmental health specifications, then
technically and economically realistic. But this regulatory tack allowed Royal
Oak to leverage their financial limitations and technical incapacities against
toxicological uncertainty.151
Regulators were unable to produce unassailable arguments that Giant should
reduce arsenic air emissions—not because evidence between health and exposure
risks did not exist, but because available data could not correspond to the
reductive templates of cause-and-effect needed to compel regulatory decisions.152
Returning
to the 1998 NWT Water Board hearing and Dr. Bill Cullen’s observation that
government recommendations essentially remained the same in 1994 as thirty
years earlier, it must be noted that the substance of these respective
investigations were quite different from each other. The 1977 CPHA report took
test samples from the hair and urine of people around Yellowknife and concluded
that some arsenic accumulated in a human body was acceptable. But in Giant’s last
five years of operation, actual human health testing was not conducted—there
was too much uncertainty to know if it was worth the expense. The arsenic
inquiry at Giant Mine was only within the scope of regulatory investigative
abilities if studies excised toxicological uncertainties and their associated
health questions. By the end, the Environment Canada pollution investigations
were hardly a question of health at all.
Judging
by the past decade of government approach to the Giant Mine cleanup, there has
been a significant attitudinal shift since the 1994 Environment Canada
investigations. In acknowledging several generations of unaddressed concerns
around arsenic in Yellowknife—particularly for the Yellowknives
Dene First Nation—studies are being conducted to characterize the traces of
arsenic from Giant Mine in the greater Yellowknife area. In November 2017, as
mandated in 2014 by the Mackenzie Valley Environmental Impact Review Board in
Giant Mine’s remediation plan, a research team began taking samples of toenail
clippings, urine, and saliva from local Yellowknife residents as part of the
Health Effects Monitoring Program: “the most comprehensive study undertaken on
the concentration of mine contaminants in people living in Yellowknife.”153 By many accounts, then,
territorial and federal regulators have learned from the questions left hanging
from the 1990s arsenic investigations. When regulators decided to dispel
uncertainty around the long-defunct Giant Mine, the result has not only
strengthened scientific certainty of the health threat of arsenic, but also
created greater trust from a community that has lived for several generations
in the presence of Giant Mine and its pollutants. Studies like the Health
Effects Monitoring Program are a way for government and regulators to recognize
local concerns. Even if neither government nor science can fully understand how
arsenic behaves at the molecular and cellular level, they may at least
understand, and respond to, the concerns of the Yellowknife community.
Notes
1. Northwest
Territories Water Board Public Hearing,
“Application by Royal Oak Mines Inc. Giant Mine for Water Use and Waste
Disposal in a Mining and Milling Undertaking Water License N1 L2-0043,”
Yellowknife, NWT, January 28/29, 1998, 58, Mackenzie Valley Land and Water
Board
2. Frank
J. Tester, D.E. Lambert, and T.W. Lim, “Wistful Thinking: Making
Inuit Labour and the Nanisivik Mine Near Ikpiarjuk (Arctic Bay), Northern Baffin Island,” Études/Inuit/Studies
37, no.2 (2013): 15–36, https://doi.org/10.7202/1025708ar; John Sandlos and Arn Keeling, “Ghost
Towns and Zombie Mines: The Historical Dimensions of Mine Abandonment, Reclamation and
Redevelopment in the Canadian North,” in Ice
Blink: Navigating Northern Environmental History, ed. Stephen Bocking and Brad Martin (Calgary: University
of Calgary Press, 2017), 377–420; John Sandlos and Arn Keeling, “Toxic Legacies, Slow Violence and
Environmental Injustice at Giant Mine, Northwest Territories,” The Northern Review 42
(2016): 7–2, https://doi.org/10.22584/nr42.2016.002; John Sandlos and Arn Keeling,
“Claiming the New North: Development and Colonialism at the Pine Point Mine,
Northwest Territories, Canada,” Environment
and History 18 (2012):5–34, https://www.jstor.org/stable/23250891.
3. As historian Nancy
Langston described of the early use of the endocrine disruptor
diethylstilbestrol (DES), regulators in the 1940s were unable to keep up with
the rate at which technology and industry expanded during this period. Nancy
Langston, “Precaution and the History of Endocrine Disruptors,” in Powerless
Science?: Science and Politics in a Toxic World, ed.
Soraya Boudia and Nathalie Jas (New York: Berghahn Books, 2014): 29–38; Nancy Langston, Toxic
Bodies: Hormone Disruptors and the Legacy of DES
(London: Yale University Press, 2010); Christopher Sellers, Hazards
of the Job: From Industrial Disease to Environmental Health Science
(Chapel Hill: The University of North Carolina Press, 1997); Linda Nash, Inescapable
Ecologies: A History of Environment, Disease, and Knowledge
(London: University of California Press, 2007); Sarah
A Vogel, “From ‘the Dose Makes the Poison’ to ‘the Timing Makes the Poison’:
Conceptualizing Risk in the Synthetic Age,” Environmental
History 13 (October 2008): 667–673, https://www.jstor.org/stable/25473294.
5. Or,
depending on the country and regulatory department, “Maximum
Allowable Concentration” or “Acceptable Daily Intake.”
6. Linda
Nash, “Purity and Danger: Historical Reflections on the
Regulation of Environmental Pollutants,” Environmental
History 13, no. 4 (Oct 2008), 651–658, https://www.jstor.org/stable/25473292;
Nash, Inescapable Ecologies,
143–161.
7. Nash,
Inescapable Ecologies,
127–179.
8. Soraya
Boudia, “Managing Scientific Risk
and Political Uncertainty: Environmental Risk Assessment in a Historical
Perspective,” in Powerless Science?: Science
and Politics in a Toxic World, ed. Soraya Boudia and Nathalie Jas (New York: Berghahn
Books, 2014): 95–97; Langston, Toxic Bodies;
Vogel, “From ‘the Dose Makes the Poison,’” 667–673.
9. Langston,
“Precaution and the History of Endocrine Disruptors” ;
Vogel, “From ‘the Dose Makes the Poison’” ; Boudia,
“Managing Scientific Risk”.
10. Vogel, “From
‘the Dose Makes the Poison,’” 669.
11. Soraya
Boudia and Nathalie Jas,
“Introduction: The Greatness and Misery of Science in a Toxic World,” in Powerless
Science?: Science and Politics in a Toxic World, eds.
Soraya Boudia and Nathalie Jas (New York: Berghahn Books, 2014); See also: Soraya Boudia
and Nathalie Jas, Studies for the Society for
the Social History of Medicine: Toxicants, Health and Regulation Since 1945
(New York: Routledge, 2013); Soraya Boudia, “Managing Scientific Risk and Political Uncertainty,”
95.
12. Olive,
Andrea. The
Canadian Environment in Political Context
(Toronto: University of Toronto Press, 2016), 142; Boudia and Jas, “Introduction,” 11.
13. The
notion of expanding bureaucracy is implicit in my references to the
formation of new federal and provincial ministries to protect the environment
and environmental health, thus “Canada has many laws, regulations, policies,
and institutions intended to protect the environment, at the federal,
provincial, and local levels. Most were created in the last three decades, as
the need to protect the environment from human despoliation became increasingly
clear”: David Richard Boyd, Unnatural Law: Rethinking
Canadian Environmental Law and Policy (Vancouver: UBC
Press, 2003), 11.
14. Boyd,
Unnatural Law, 231; See also Robert Paehlke and Douglas Torgerson, Managing
Leviathan: Environmental Politics and the Administrative State
(Peterborough, ON: Broadview Press 2005).
15. Kathryn
Harrison and George Hoberg, Risk,
Science and Politics: Regulating Toxic Substances in Canada and the United
States (Montreal and Kingston: McGill-Queen’s University Press,
1994), 6–21; Kathryn Harrison, Passing the Buck: Federalism
and Canadian Environmental Policy (Vancouver: UBC Press,
1996).
16. Douglas
Macdonald, Business and Environmental Politics
in Canada (Ontario: Broadview Press, 2007).
17. Macdonald,
Business,
5–7, 95–103, 130–134; Boyd, Unnatural Law, 203,
255, footnote 27: Harrison, Passing the Buck,
17.
18. Robert
B. Gibson, “We Just Don’t Know: Lessons
about Complexity and Uncertainty in Canadian Environmental Politics,” in Managing
Leviathan: Environmental Politics and the Administrative State,
eds. Robert Paehlke and Douglas Torgerson
(Peterborough, ON: Broadview, 2nd
Edition, 2005), 162–170. Gibson predates Langston and Nash but makes near-identical
assertions of the importance of thresholds in toxicological modelling. From his
case study on lead poisoning in Toronto in 1965, Gibson concludes: “Environmental
health cause-effect relations can be exceedingly difficult, if not impossible,
to prove: This is the case even when the questions involve a single
contaminant acting on a reasonably well-defined population of receptors (e.g.,
children in specific neighbourhoods). Years of
research effort and shelves of carefully designed studies may still leave
uncertainties about the threshold exposure and ingestion levels beyond which
health damage may occur. Indeed, it is not safe to assume there is such a
threshold. Because of the multiplicity of sources, it is difficult to link particular sources to particular exposures. And because of
the multiplicity of influences on health, it is difficult to link particular exposures to particular health effects”: Gibson, “We Just Don’t Know,” 148.
19. Gibson, “We
Just Don’t Know,” 145.
22. Sandlos and Keeling, “Toxic
Legacies,” 7–2; John
Sandlos and Arn Keeling,
“Ghost Towns and Zombie Mines,” 377–420; For additional relevant work on
colonial dispossession and industrial waste see also: Traci
Brynne Voyles, Wastelanding:
Legacies of Uranium Mining in Navajo Country (Minneapolis:
University of Minnesota Press, 2015), 1–13; Nancy
Langston, “Toxic Inequities: Chemical Exposures and Indigenous Communities in
Canada and the United States,”
Natural Resources Journal
50, 2(2010): 393–406, https://www.jstor.org/stable/24889683; Richard
S. Newman, Love Canal: A Toxic History from Colonial Times to the
Present (New York: Oxford University Press, 2016).
23. Liza
Piper, The Industrial Transformation
of Subarctic Canada (Vancouver: University of
British Columbia Press, 2008), 83, 117–119.
24. Kevin
O’Reilly, “Liability, Legacy, and Perpetual Care: Government
Ownership and Management of the Giant Mine 1999–2015,” in Mining
and Communities in Northern Canada: History, Politics, and Memory,
ed. Arn Keeling and John Sandlos
(Calgary: University of Calgary Press, 2015), 342–343.
25. Sandlos and Keeling,
“Claiming the New North,” 3.
26. Lloyd
Tataryn, “Arsenic and Red Tape,” in Dying
for a Living (Ottawa: Deneau and Greenburg Publishers Ltd., 1979),
112–114.
27. See
for example the words of Rachel Ann Crapeau and Therese Sangris, who
spoke of four children dying in the spring of 1951, among others who died in
rising rates of cancer over the decades. Yellowknives
Dene, “Impact of the Yellowknife Gold mine on the Yellowknives
Dene: A Traditional Knowledge report” (Dettah: Yellowknives Dene First Nation Council, 2005), 16–17.
28. John
Sandlos and Arn Keeling,
“Giant Mine: Historical Summary,” Report submitted to the Mackenzie Valley
Environmental Impact Review Board (St. John’s, NL: Memorial University, 2012), 2, accessed February 23, 2016, http://www.reviewboard.ca/upload/project_document/EA0809-001_Giant_Mine__History_Summary.PDF.
29. O’Reilly,
“Liability, Legacy, and Perpetual Care,” 347.
30. Sandlos and Keeling,
“Giant Mine: Historical Summary,” 6–10.
33. A.J. de Villiers and P.M. Baker, “An investigation of the health status of inhabitants of
Yellowknife, Northwest Territories” (Ottawa: Canada Department of Health and
Welfare, 1970), LAC RG 29 vol. 2977, file
851-5-2, pt. 4.
34. Tataryn, Dying for a Living,
112.
35. Canada Department of
Health and Welfare, “News Release: Yellowknife Arsenic Study Results Published”
(May 27, 1975), LAC, RG29 accession 1996-97-706,
box 6, file 8726-1-1, vol. 2.
36. Canada
Department of Health and Welfare, “News Release,” May 27, 1975.
37. Ibid.;
Tataryn, Dying for a Living, 118–119.
38. Tataryn,
Dying for a Living,
117, 130; Statement by Prof. Robert E. Jervis, Department of Chemical
Engineering and Applied Chemistry, and Institute of Environmental Studies, Re:
Yellowknife Arsenic Pollution Problem, University of Toronto, 15 January 1977,
University of Alberta Library.
40. Canadian Public
Health Association, Task Force on Arsenic: Final Report, Yellowknife, Northwest
Territories (Ottawa: The Association, 1977), 24.
41. CPHA,
Task Force, 24.
42. CPHA,
Task Force, 11–13, 44, 67, 107–112.
43. CPHA,
Task Force, 93-95. See CPHA, Task
Force, 89
for discussion of the existence of a cancer-causing threshold and proof of
dose-rate relationship. For additional connection to
the academic literature, see Christopher Sellers’s discussion of the
regulation of “acceptable” low-dose chemical exposures and the normalization of
toxins in the environment. Hazards of the Job: From
Industrial Disease to Environmental Health Science
(Chapel Hill: The University of North Carolina Press, 1997).
44. CPHA,
Task Force, 90–93.
45. Marsh Hawes,
“Task force on arsenic report draws criticism from union,” News of the North,
January 11, 1978.
46. Tataryn, Dying
for a Living, 142;
United States Department of Labor, Occupational Safety and Health
Administration, “Part 1910 – Occupational Safety and Health Standards,
Occupational Exposure to Inorganic Arsenic,” Federal Register 43, no. 88, May
5, 1978.
47. Tataryn, Dying
for a Living, 144,
in reference to H.P. Blejer,
Occupational Health Department, “Evaluation of Canadian Public Health
Association,” Task Force on Arsenic, Interim Report (Duarte, California: City
of Hope Medical Center, May 1977).
48. Rosemary Cairns,
“Most of Yellowknife Safe from Arsenic: But There are High Levels in Both Soil
and Snow,” News of the North, January 8, 1978; Tataryn,
Dying for a Living, 136–142.
49. CPHA,
Task Force, 13–22.
50. For
example, see Recommendation 33: “That a strong environmental health
program be established for carrying out health studies, for providing health
interpretation and consultation, for establishing occupational and community
environmental guidelines and standards based on human health and for reviewing
the adequacy of occupational and community environmental monitoring for health
purposes”: CPHA, Task Force,
17.
51. Cairns,
“Most of Yellowknife Safe from Arsenic,” January 8, 1978.
52. Peter
N Nemetz, “Federal Environmental Regulation in Canada,” Natural
Resources Journal 26 (1986): 554, https://www.jstor.org/stable/24882983.
53. “Water
Board Meets on Arsenic Waste Report,” News
of The North, January 18, 1978.
54. David
Halliburton, “Atmospheric Arsenic
Emissions and Control Technology: Gold Roasting Operations,” Mining Mineral and
Metallurgical Division, Abatement and Compliance Branch, Air Pollution Control
Directorate, Third Draft, April 1978, PWNHC, G-1993-006, box 52, file 10-017-113,
vol. 1.
56. Ibid.,
Other than the Northwest Territories, there were only
roasters operating from a few mines in Ontario.
57. Kent,
“A Report on Arsenic Emissions,” 1982, 1–2.
59. Summary
of meeting from attached Memorandum: to
Members and Observers of Gold Roasting and Arsenic Task Force-June 30, 1978,
Gold Roasting Industry Task Force on Arsenic Emissions – Notes on Third Meeting
Location: Place Vincent Massey, Hull, Quebec, May 17, 1978, 2-3, PWNHC,
G-1993-006, box 52, file 10-017-113, vol. 1; Correspondence from Barry A.
Brown, Regional Director, N.W.T. region, to Mr. Mike Hewitt, Assistant Deputy
Minister, Department of Justice and Public Service, Government of the N.W.T.,
Yellowknife, N.W.T. “Re: Arsenic Monitoring – Giant Mines,” July 6, 1982, PWNHC,
G-2008-028, box 9, file 17.
60. Kent,
“A Report on Arsenic Emissions,” 1–2; Sandlos and
Keeling, “Giant Mine: Historical Summary,” 5; Sandlos
and Keeling, “Ghost Towns and Zombie Mines,” 391.
61. 1981
Water Board Public Hearing, 85; Correspondence from Associate
Director General, Eastern Operations, Medical Services Branch, to Mr. Maurice Aked, Regional Director, Northwest Territories Region,
Subject: “Inquiry concerning the Report on of the CPHA Task Force On Arsenic,”
August 22, 1984, PWNHC, G-2008-028, box 9, file 17; In 1982 the Environmental
Protection Service issued a report that determined the Giant Yellowknife Mine
roaster to be technically capable of complying with the pending federal
regulations: Kent, “A Report on Arsenic Emissions,” 1982, 1–2.
62. They
built their case by invoking the newly passed Environmental Rights Act, which
enabled citizens to request government investigations of proven environmental
threats. (citation refers to this statement and the one footnoted above)
Correspondence from Chris O’Brien and Kevin O’Reilly to Hon. Titus Allooloo, Minister NWT Renewable Resources, April 22, 1991,
O’Reilly Collection; John Sandlos,
and Arn Keeling, Giant Mine: Historical Summary,”
2012, http://www.reviewboard.ca/upload/project_document/EA0809-001_Giant_Mine__History_Summary.PDF; O’Reilly and O’Brien referred
to the report: D. Maynard and S. Malhotra, “Impact of SO(2) on the Soils ad
Vegetation near Giant Mine” (Ottawa: Forestry Canada, 1990).
63. O’Reilly
and O’Brien to Minister Allooloo, April 22, 1991; Sandlos
and Keeling, “Giant Mine: Historical Summary,” 2012, 6; Francis Thompson,
“Monitoring of Giant Mine Emissions Begins,”
The Yellowknifer,
Nov 7, 1991.
64. Vogel,
“From ‘the Dose Makes the Poison,’” 668–72; Langston, Toxic
Bodies, 17; Boudia and Jas, “The
Greatness and Misery of Science,” 8–15.
65. Andrew
A. Meharg, Venomous
Earth: How Arsenic Caused the World’s Worst Mass Poisoning, (New
York: Macmillian, 2005), 2.
In particular Meharg refers to original
ground-breaking research by A.K.
Chakraborty and KC Saha as published between 1984 and
1988: KC Saha, “Melanokeratosis
from Arsenic in Contaminated Tubewell Water,” Indian
Journal of Dermatology 29, no. 4 (1984): 37–46;
KC Saha and D Podder, “Further
Studies on Chronic Arsenical Dermatosis,”
Indian Journal of Dermatology 31, no. 2 (1986): 29–33; DN
Guha Mazumder and AK Chakraborty, A Ghose, JD Gupta,
DP Chakraborty, SB Dey, N Chattopadhyay, “Chronic Arsenic Toxicity from
Drinking Tubewell Water in Rural West Bengal,” Bulletin
of the World Health Organization 66, no.4 (1988): 499–506.
66. Meharg,
Venomous Earth, 11–13,
162–163.
67. Ibid.,
162.
68. Ibid.,
11; For discussions of thresholds and carcinogenic substances from this era
internationally and in Canada see: I.F.H. Purchase and T.R. Auton, “Thresholds in Chemical Carcinogenesis,” Regulatory
Toxicology and Pharmacology 22 (1995): 199–205, https://doi.org/10.1006/rtph.1995.0001; M.E. Meek and K. Hughes, “Approach to Health Risk
Determination of Metals and Their Compounds under the Canadian Environmental
Protection Act,” Regulatory Toxicology and
Pharmacology 22 (1995): 206–212, https://doi.org/10.1006/rtph.1995.0002; Also stated by Bertram Carnow
in the 1975 CBC “As It Happens” episode on
arsenic in Yellowknife discussing the conclusions of the “de Villiers report.” Tataryn, Dying for a Living, 112–114.
69. Lee
Selleck and Francis Thompson,
Dying for Gold: The True Story of the Giant Mine Murders (Toronto:
HarperCollins Publishers Ltd, 1997), 14–19; Francis Thompson, “Royal Oak Asking
for Wage Cut, CASAW Flyer Claims,” News/North,
April 20, 1992; Pierre Malloy, Francis Thompson, and Trish Saywell,
“Royal Oak Charged for Safety Violations,” News/North,
June 15, 1992.
70. Peeter Kopvillem,
“The Hunt for a Killer; The Mounties say a Bomb Caused a Mine Tragedy,” Maclean’s,
October 5, 1992.
71. Silke,
History of Mines, 267.
72. Environmental
Protection Division, “An Investigation of Atmospheric
emissions from the Royal Oak Giant Yellowknife Mine, Yellowknife, Northwest
Territories,” (Yellowknife, NWT: Department of Renewable Resources, June 1993);
Northwest Territories Water Board Public Hearing,
“Application by Royal Oak Mines Inc.—Giant Mine for Water Use and Waste
Disposal in a Mining and Milling Undertaking Water License N1 L2-0043,”
Yellowknife, NT, January 28/29, 1998, Mackenzie
Valley Land and Water Board.
74. Ibid;
Northwest Territories Department of Health, “Anticipated Oral Question. Issue:
Press Release on the Human Health Risk Assessment on Emissions of Sulfur
Dioxide and Arsenic from the Royal Oak Giant Yellowknife Mine,” July 21, 1993,
O’Reilly Collection.
76. According
to this report, Giant’s average level of
arsenic was .013 micrograms per cubic meter; every other major Canadian city
had .001 or .000. Yellowknife’s one year average was
measured to be 85 micrograms/cubic meter, compared to the maximum acceptable
level of 70, as recommended by the Canadian Environmental Protection Act.
Department of Renewable Resources, “Air Quality Monitoring in the Northwest
Territories 1989 Data” (Yellowknife: Environmental Protection Division, 1989),
95–96; Correspondence from Kathy Hughs,
Priority Chemicals Section to Stephen MacDonald, Criteria Section, Subject:
“Arsenic Air Hazard Inquiry,” June 18, 1993, O’Reilly Collection.
77. Francis
Thompson, “Arsenic Emissions Alleged,” News/North,
July 6, 1992.
78. Environmental
Protection Division, “An Investigation
of Atmospheric Emissions from the Royal Oak Giant Yellowknife Mine,
Yellowknife, Northwest Territories” (Yellowknife, NWT: Department of Renewable
Resources, June 1993), 28.
79. Gold
Roasting Industry Task Force on Arsenic
Emissions, “Notes on Third Meeting Summary of meeting from attached Memorandum:
to Members and Observers of Gold Roasting and Arsenic Task Force-June 30,
1978,” Place Vincent Massey, Hull, Quebec, May 17, 1978, PWNHC, G-1993-006, box
52, file 10-017-113, vol. 1.
80. Resources Futures International,
“Socio-Economic Analysis of Three Management Options to Reduce Atmospheric
Emissions of Arsenic from Gold Roasting” (Ottawa: Environment Canada, September
9, 1996); Correspondence from Luke Parsons to Kevin O’Reilly, “Memo-Giant Mine
Emissions Re: Yellowknife City Council Meeting held November 14, 1995,”
O’Reilly Collection.
81. Boyd,
Unnatural Law, 231; See also Paehlke and Torgerson, Managing
Leviathan; Harrison and Hoberg, Risk,
Science and Politics, 6–21; Harrison,
Passing the Buck.
82. For example,
see Environmental Protection Division, “Investigation of Atmospheric
Emissions,” 5.
83. Department
of Renewable Resources, “Giant Mine Atmospheric Emissions,”
Meeting notes, Nov. 28, 1994, O’Reilly Collection
84. Department
of Renewable Resources, “Giant Mine Atmospheric Emissions,”
Nov. 28, 1994.
87. Correspondence from
Dr. J.R. Hickman, Director General, Environmental Health Directorate,
Environmental Health Centre, Tunney’s Pasture, Ottawa, to
Dr. Ian Gilchrist, Medical Director,
Northwest Territories Health, July 6, 1993, O’Reilly Collection.
88. Canadian
Centre for Occupational Health and Safety, “OSH Answers Fact
Sheets: Occupational Hygiene – Occupational Exposure Limits,” accessed November
30, 2020, https://www.ccohs.ca/oshanswers/hsprograms/occ_hygiene/occ_exposure_limits.html?=undefined&wbdisable=true.
89. J.R. Hickman to
Kathy Hughs, July 6, 1993; Doug Schmidt,
“No ‘imminent health hazard’ from Giant emissions report,” The
Yellowknifer,
July 23, 1993, O’Reilly Collection; Correspondence between Kathy Hughs, Priority Chemicals Section and Stephen MacDonald,
Criteria Section, “Subject: Arsenic Air Hazard Inquiry,” June 18,1993, O’Reilly
Collection.
90. Schmidt,
“No ‘imminent health hazard’,” July 23, 1993.
91. Editorial,
“Cleaning up the neighbourhood,” The
Northern Star, July 7, 1993.
92. “Royal
Oak will not clean up mine stack,” The
Northern Star, July 14, 1993; Doug Schmidt, “Giant disputes gov’t SO(2) Numbers,” The Yellowknifer,
July 14, 1993.
93. J.R.
Hickman to Kathy Hughs, July 6, 1993.
94. Correspondence
from J.R. Hickman, Director General, Environmental Health
Directorate, Environmental Health Centre, Tunney’s Pasture, Ottawa, to Dr. Ian
Gilchrist, Medical Director, Northwest Territories Health, July 6, 1993,
O’Reilly Collection; See also: Correspondence from Kathy Hughs,
Priority Chemicals Section to Stephen MacDonald, Criteria Section, “Subject:
Arsenic Air Hazard Inquiry,” June 18, 1993, O’Reilly Collection.
95. Environmental Protection
Services, “Reducing Arsenic Releases to the Environment in the Northwest
Territories: Action Plan to Develop Management Options” (Ottawa: Environment
Canada, May 9, 1996), 1, O’Reilly Collection; For additional information on the
analysis of carcinogenicity in arsenic and other metals for the Canadian
Priority Substances List at this time see: M.E.
Meek and K. Hugh, “Approach to Health Risk Determination of Metals and Their
Compounds under the Canadian Environmental Protection Act,” Regulatory
Toxicology and Pharmacology 22 (1995), 206–212.
96. Charles
Caccia, It’s about Our Health!: Towards Pollution Prevention: CEPA Revisited:
Report (Ottawa: Canada Communication Group, 1995), xix.
98. Ibid.,
196; The
committee was shocked to hear community, and particularly Indigenous community,
experiences expressed around the topic of arsenic: “In its Yellowknife session
the Committee heard several elders who spoke about the environmental changes
they had experienced in their lifetime—the pollution water bodies, the
transformation of the landscape the disruption to wildlife.
These changes had occurred as a result of mining
development and had clearly proved detrimental to the traditional way of life
of the local inhabitants. The Committee was disturbed by the elders’ resulting
loss of confidence in the government’s ability to protect their environment and
health. Nowhere was this loss of trust more apparent than on the issue of
arsenic pollution.”
99. Ibid.,
196, Footnote 7: Act, Canadian Environmental Protection,
“Priority Substances List Assessment Report—Arsenic and Its Compounds” (Ottawa:
Environment Canada and Health Canada, 1993), vii.
102. Ibid.
For the original CEPA hearings see: House of Commons Standing Committee on
Environment and Sustainable Development, “Parliamentary Hearings on Canadian
Environmental Protection Act, Meeting #123,” Yellowknife, NWT, May 11, 1995,
accessed June 13, 2016, http://www.parl.gc.ca/content/hoc/archives/committee/351/sust/evidence/122_95-05-11/sust122_blk-e.html;
House of Commons Standing Committee on Environment and Sustainable Development,
“Parliamentary Hearings on Canadian Environmental Protection Act, Evidence of
Meetings # 122,” Yellowknife, NWT, May 11, 1995, accessed June 13, 2016, http://www.parl.gc.ca/content/hoc/archives/committee/351/sust/evidence/122_95-05-11/sust122_blk-e.html.
103. Harrison,
Hoberg, Risk, Science and Politics,
6–21; Harrison, Passing
the Buck; Boyd, Unnatural Law,
231
104. House
of Commons Standing Committee on
Environment and Sustainable Development, “Parliamentary Hearings on Canadian
Environmental Protection Act, Meeting #123,” Yellowknife, NWT, May 11, 1995,
lines 1700–1720, accessed June 13, 2016, http://www.parl.gc.ca/content/hoc/archives/committee/351/sust/evidence/122_95-05-11/sust122_blk-e.html
106. Boyd,
following Harrison, argues that: “Resource industries and provincial
governments enjoy a ‘symbiotic relationship,’ meaning that laws and policies favourable to industry are generally perceived as
benefiting provinces as well Boyd, Unnatural
Law, 203, 255, footnote 27: Harrison, Passing
the Buck, 17.
107. Department
of Renewable Resources, “Giant Mine
Atmospheric Emissions,” Nov. 28, 1994.
108. “Minutes
of Yellowknife City Council- Motion
#041795,” August 28, 1995, O’Reilly Collection.
109. “Royal
Oak will not clean up mine stack,” Northern
Star, July 14, 1993.
110. Correspondence
from Sadek E. El-Alfy, Vice President of Operations, Royal Oak Mines to Mayor
Dave Lovell, City of Yellowknife, October 4, 1995, O’Reilly Collection.
112. Correspondence
from Kevin O’Reilly, Canadian Arctic Resources Committee,
Yellowknife, NWT to Bruce Valpy, Editor, The
Yellowknifer,
Re: “Paying for sins of the past,” July 20, 1995,
O’Reilly Collection.
113. House
of Commons Standing Committee on Environment and Sustainable
Development, “Parliamentary Hearings on Canadian Environmental Protection Act,
Evidence of Meetings #122,” Yellowknife, NWT, May 10, 1995, accessed June 13,
2016, http://www.parl.gc.ca/content/hoc/archives/committee/351/sust/evidence/122_95-05-11/sust122_blk-e.html.
114. Resource
Futures International, “Socio-Economic Analysis,” 1996;
Environment Canada, Health Canada, GNWT Health and Social Services,
“Controlling Arsenic Releases to the Environment in the Northwest Territories:
Discussion of Management Options, for consultation” (Yellowknife: NWT, Environmental
Protection Branch, April 1997), 46, O’Reilly Collection.
115. Resources
Futures International, “Socio-Economic Analysis”;
Environment Canada, Health Canada, GNWT Health, and Social Services,
“Controlling Arsenic Releases.”
116. Resource
Futures International,
“Socio-Economic Analysis,” 35–49; Environment Canada, Health
Canada, NWT Health, and Social Services, “Controlling Arsenic Releases.”
117. Resources
Futures International, “Socio-Economic Analysis,” 49.
118. Ibid,
13.
119. Ibid.
In particular see Introduction, p. 5–15, for more details on statistical
considerations and health effects.
120. The
1996 “Socio-Economic Analysis” report (p. vi.) cites: Hatch
Engineering Ltd., Arsenic Emission Control from Pyrometallurgical Operations
(Ottawa: Environment Canada, 1996), see p. 43 for a concise summary of
management conclusions.
121. Environment
Canada, Health Canada, GNWT Health and Social Services.
“Controlling Arsenic Releases to the Environment in the Northwest Territories:
Discussion of Management Options,” April 1997.
122. Resource
Futures International, “Socio-Economic Analysis,” vi, footnote
5.
123. Resource
Futures International, Socio-Economic
Analysis, 12–14.
124. Ibid.,
viii.
125. Ibid.,
vi.
126. Nash,
2008; Nash, Inescapable Ecologies, 1994.
See also: Gregg Mitman, Michelle Murphy, and
Christopher Sellers, “Introduction: A Cloud over History,” Osiris
19 (2004): 1–17.
127. Boudia,
Jas, “Managing Scientific Risk and Political Uncertainty,” 11,12.
129. Environment
Canada, “Workshop Report: Workshop on Controlling Arsenic Releases
into the Environment in the Northwest Territories” (Yellowknife, NWT:
Environmental Protection Branch, 1997), O’Reilly Collection.
130. Environment
Canada, “Workshop Report,” 14–17.
131. See
for example: Letter
from Chief Bill Erasmus, Chief Jonas Sangris, Chief
Darrell Beaulieu Dene Nation, Denedeh National
Office, sent to Mary O’Neil, Special Assistant, Office of the Minister of the
Environment, May 17, 1995, O’Reilly Collection.
132. See
also correspondence from Bill Erasmus, Dene
Nation Chief, to Mr. Gordon Wray, Chairman Northwest Territories Water Board,
February 5, 1998, O’Reilly Collection.
133. 1998
Water Board, 131.
134. Ibid,
135.
135. Sandlos and Keeling,
“Giant Mine Historical Summary,” 20, 3; O’Reilly, “Liability, Legacy, and
Perpetual Care,” 347.
136. Sandlos and Keeling,
“Giant Mine Historical Summary,” 9.
137. “Meeting
Minutes,” Ad Hoc Committee Meeting – Giant Mine, December 9, 1997,
PWNHC, G-2012-026, box 1, file 8.
138. Correspondence
from Edmund Szol, Executive Vice-President and COO to Mr. Gordon Wray Chairman – NWT
Water Board, “Re: Water Register NIL 2-0043,” February 26, 1998.
139. As
cited in O’Reilly, “Liability, Legacy, and Perpetual Care,” 352,
footnote 39: Correspondence from Larry Connell, Manager of Environmental
Services, Royal Oak Mines Inc., to Gordon Wray, Chairman, NWT Water Board, and
Bob Overvold, Regional Director General, Indian and
Northern Affairs Canada, February 5, 1999, NWT Water Board Public Registry
N1L2-1563; For more information on the process of Water Board licensing at
Giant Mine see Department of Indian Affairs and Northern Development, “Royal
Oak Mines Inc.: Level I Environmental Screening: Royal Oak Mines Inc. – Giant
Mine License Renewal,” sent in letter from David Livingstone, Director,
Renewable Resources and Environment, Dec, 2, 1997, PWNHC, G-2013-007-015, box
2, file 7.
140. Allan
Robinson, “Losses Mount at Royal Oak,” Report on Business: Canada’s
Business Newspaper, April 1, 1998.
141. As
cited in O’Reilly, “Liability, Legacy, and
Perpetual Care,” 352, footnote 39: Correspondence from Larry Connell, Manager
of Environmental Services, Royal Oak Mines Inc., to Gordon Wray, Chairman, NWT
Water Board, and Bob Overvold, Regional Director
General, Indian and Northern Affairs Canada, February 5, 1999, NWT Water Board
Public Registry N1L2-1563.
142. Allan
Robinson, “Losses Mount at Royal Oak.”.
143. Anne
Marie Jennings, “Giant Gets a break,” Yellowknifer,
April 1, 1998; Department of Resources, Wildlife, and Economic Development,
“Communications Plan: GNWT Exploration and Development Assistance to Royal Oak
Giant Mine,” October 10, 1998, O’Reilly Files; O’Reilly,
“Liability, Legacy, and Perpetual Care, 351,
endnote 35: “Royal Oak Receives Subsidy, NWT Approves $1.5 Million, City Gives
Additional Dollars,” Yellowknifer,
October 2, 1998, A2.
145. O’Reilly,
“Liability, Legacy, and Perpetual Care, 353, footnote 43: Dane Gibson, “Cashless Mine
Owes Big, Royal Oak Yellowknife Creditors Holding Their Breath on Getting
What’s Owed,” Yellowknifer,
May 7, 1999.
147. Just
as political scientist Robert Gibson
described (Gibson, “We Just Don’t Know,”
162–170).
148. CBC
News North, “Feds Award Multimillion Dollar Contract to U.S. Company
for Giant Mine Cleanup,” February 20, 2018, accessed October 30, 2020, https://www.cbc.ca/news/canada/north/giant-mine-contract-awarded-1.4542635.
149. See
Katheryn Harrison, Passing
the Buck.
150. See
Nash, Inescapable Ecologies;
Langston, “Precaution and the History of Endocrine Disruptors”; Sellers, Hazards
of the Job; Vogel, “From ‘the Dose Makes
the Poison.”
151. See
Gibson, “We Just Don’t Know.”
152. See
Nash, Inescapable Ecologies,
1994; Gibson, “We
Just Don’t Know.” Boudia, “Managing Scientific Risk
and Political Uncertainty.”
153. Kate
Kyle, “Toenails, Saliva and Urine Could Answer Questions about
Giant Mine’s Toxic Legacy,” CBC North, November 07, 2017; Health Effects
Monitoring Program in Yellowknife, Ndilo, and Dettah, accessed July 4, 2019, http://www.ykhemp.ca/about.php.