How a Citizen Took on the Oil Refinery
Author
Robo Csernyik - The Narwhal
The Narwhal
Current Issue
Issue
2
How a Citizen Took on the Oil Refinery

When Gordon Dalzell learned that the Irving Oil refinery’s air quality permit was up for review, he got to work. A clean air activist based in Saint John, New Brunswick, Dalzell hunkered down with his research, hoping to hit back at one of Canada’s biggest polluters.

In Champlain Heights, where Dalzell has lived since 1977, there are about 100 homes, an elementary school, and a community college. Trees block the refinery, the country’s largest, from view, but look at a satellite image and next door you see more than two dozen tanks dotting the landscape. In the past decade, multiple published reports have detailed excess discharges of fine particulate matter from the refinery’s smokestacks. In 2018, the facility pumped a black, grainy mystery product from the smokestacks, and although the residents of Champlain Heights received apology letters from Irving, neither the company nor the New Brunswick government revealed what the substance was.

Dalzell isn’t one to stay quiet. He was once kicked off an Irving Oil environmental committee for sharing information with Reuters. And for the last 25 years, he has been a citizen activist in various provincial and federal forums, so providing input on establishing the refinery’s regulations for the next five years wasn’t new. His 200-page, handwritten submission raised 33 issues, ranging from benzene coming from the plant to emission monitoring.

Due in part to Dalzell’s prodding, the limits of both nitrogen oxide and sulphur dioxide emission levels for the refinery were reduced to 4,500 tonnes annually — a decline of 18 and 13 percent respectively. He also convinced the province to lower the acceptable levels of particulate matter in Irving’s emissions. But he wonders if more could have been accomplished.

It’s a question relevant not only in New Brunswick, but in the broader context of participation in environmental policy development across the country. Canadians have had the opportunity to participate in environmental processes for more than 25 years federally, via the Canadian Environmental Assessment Act. Regulation for specific issues, like air quality, falls to provinces, which have their own mechanisms. In fact, Dalzell’s activism helped make this a reality in New Brunswick after demanding public participation in the province’s Clean Air Act in 1997.

Governments have done a great deal of work to create channels for the public to make their voices heard by decisionmakers. But just because opportunities exist doesn’t mean people are ready or willing to speak up. And public participation certainly isn’t a silver bullet for better environmental policies.

In a 1997 paper, environmental lawyer Andrew Green suggested public participation could lead to less than optimal results: risking overregulation when public demand for control is high or underregulation when interest is low. The underlying issue, he said, is the environmental policies themselves. Public participation can’t be seen as a way to counterbalance old regulations that favor the desires of industry.

Across Canada, some provincial air quality standards are long out of date, and public participation can result in stricter guidelines for permits and approvals than what regulations dictate. New Brunswick’s air quality regulation, for instance, has not been comprehensively reviewed since its 1997 inception. In Ontario, it took almost 45 years and the prodding of environmental law organization Ecojustice for the province to lower its sulphur dioxide standards.

Lois Corbett of the Conservation Council of New Brunswick calls the province’s mechanisms to participate one of the country’s worst. “The onus for fairness, openness and transparency lies with the Department of Environment and with government in general,” she says.

For the province to do better, Corbett says, it would need to take a more hands-on role in connecting citizens with the process. But in New Brunswick, where an estimated one person out of every twelve works for Irving, she feels there’s a public cynicism overshadowing the process. “They don’t believe that the government is making decisions on their behalf and it didn’t matter who weighed in, with what evidence. There wouldn’t be a change.”

In other areas most impacted by polluting sites across the country, similarly divided loyalties can be present. In recent cases where public participation was requested on projects with potential environmental impacts, participation varied widely by project and sector. In Sarnia, Ontario, a city, like Saint John, impacted by air pollution due to local Imperial Oil and Shell refineries, a recent air compliance approval had no public participation at all. Yet recent changes to regulations around forestry in Ontario saw 25 submissions and 1,200 emails.

Shaun Fluker, associate professor at the University of Calgary’s law faculty, says big numbers can be misleading. They may indicate participants using form letters or email templates, rather than engaging in a more substantive way. But the question remains why participation happens in a big way in some cases, and is so limited in others.

Clinton Westman, associate professor in archaeology and anthropology at the University of Saskatchewan, who counts among his research interests environmental policy participation, points to the Trans Mountain pipeline as an example of ranges in participation. When it was built in the 1950s, there was no formal opportunity for public participation in approving the pipeline between Edmonton and Burnaby, British Columbia. But when Kinder Morgan proposed building another pipeline, largely along the same route, public interest was high. Westman notes many of the channels for participation, including information sessions and online engagement, have been created due to hard work from activists. “But they seem to also become prone to being co-opted or prone to kind of not fulfilling all the potential for public participation that people thought that they had.”

Hundreds of Canadians were denied the opportunity to present concerns over Trans Mountain after federal legislation led the National Energy Board to include only participants who were “directly affected” or with expertise or relevant information on a given issue. This came after Enbridge’s Northern Gateway pipeline inspired record participation for an NEB review, causing the project’s supporters to bemoan the length of the approval process. In an open letter, then natural resources minister Joe Oliver complained about the volume of participants, alleging environmental groups and “radicals” had “hijacked” the regulatory system. Despite more than 4,000 10-minute oral statements opposing Northern Gateway, the project was still approved, which leads to the question: how do regulators actually weigh the public input they receive on any given project?

Anna Johnston, a lawyer with West Coast Environmental Law, says any weighing act can vary between federal and provincial processes, and that some panels have independent experts who bring their own opinions on the value of public submissions. For example, she’s heard different feedback on the effectiveness of letter-writing campaigns which produce thousands of cookie-cutter responses. “On the one hand, it could be a demonstration of strong public interest in a particular issue of the product, and people are taking the time to click a button, while others think that there’s such a small amount of energy required to click that button that doesn’t really demonstrate much interest at all.”

Johnston says she’s also seen processes where it seemed like the assessment authority was deeply moved by people’s submissions. “And then there are other times where the decisionmaking is such a black box, that the decisionmakers don’t ever show how public comments have been taken into account, if at all,” she adds. “But it appears from the outside that all of that energy — and often money and resources — have been a waste of time.”

Canada’s public participation landscape isn’t full of happy stories like Dalzell’s. Westman mentions material outlining proposed projects or issues up for review can be complicated and dense. Marginalized groups — who often live in disproportionately impacted areas — don’t always get heard, for instance when the reviewer limits the number of Indigenous communities that can claim to be impacted.

There’s no consensus on how to get more people more involved in public participation processes. “I think that the public is really underserved often by the consultation processes that the governments bring forward,” says Kai Nagata, energy and democracy director at the B.C.-based citizen action group Dogwood. “And so grassroots groups or [environmental groups] or municipal governments sometimes can serve a role as an intermediary to basically translate what’s at stake, and encourage people to make their voice heard.”

In Nagata’s view, mobile-friendly online processes, including ditching fax communications for emails and surveys, would encourage engagement. “There are areas where the government is decades behind technology and the way people actually use and share information.” Dogwood has proof this works, having helped thousands of people sign up to present at Enbridge’s Northern Gateway hearings through the creation of an online form which indeed was then sent via a fax to the National Energy Board.

Dalzell thinks people don’t participate for multiple reasons, including a belief someone else will, and a perceived lack of time. He estimates he spent between 60 and 70 hours working on his submission for the Irving air quality permit review. Fluker, the University of Calgary professor, says one of the most common challenges is the cost of experts. “Frankly, there’s not a lot of people that have access to those sorts of experts or have the training to really flesh out some of those weaknesses in a proponent’s case,” he says. Cost assistance exists in some jurisdictions to pay people back after the fact.

For his role, Dalzell’s education and training is in social work. He’s not a trained scientist, but developed the fluency and comfort he has today with esoteric environmental processes over thirty years of working alongside community groups. This includes the Citizens’ Coalition for Clean Air, which gathered 13,000 signatures on a petition while lobbying for New Brunswick’s Clean Air Act.

Dalzell and others have found there is a wide gulf between acknowledging climate change’s impacts and people’s willingness to help counteract it. Given the immensity of global climate concerns, it might seem like small potatoes to work on something in your backyard. But that’s a sentiment with which Corbett disagrees. Speaking of Irving Oil, he says, “I don’t think that there’s anything about the largest refinery on the East Coast that’s ever small.”

Academics have noted that, despite success in creating pathways, like public participation processes, to get information to decisionmakers and experts, these avenues don’t necessarily collect the local knowledge and first-hand experiences of individuals. And Dalzell says there’s a lot of value in individual stories in these processes. One of the catalysts for him to put pen to paper for Irving’s air quality review was the memory of a neighbor who passed away two decades ago from an asthma attack. “When I look back, it was just one of those driving forces that caused me to respect her wish,” he says. “And the other thing is, I knew a lot of people in the neighborhood who kind of depended on me over the years to do this advocacy work.”

Considering the refinery’s entry on the National Pollutant Release Inventory — two-and-a-half printed pages of air toxins and chemicals, including benzene, arsenic, and lead — Dalzell says, “It’s a wonder we all haven’t died of cancer in the neighborhood here.” Indeed, “The citizen is the expert in terms of their own health, their own impact on quality of life.” TEF

PROFILE When it comes to those yawn-worthy, overly technical, bureaucratic reviews of major projects like refineries and pipelines — is public participation really even worth the effort? Citizen Gordon Danzell’s lonely battle against dangerous air pollution says yes.

Bioengineering the Future
Author
David Rejeski - Environmental Law Institute
Mary E. Maxon - Lawrence Berkeley National Laboratory
Environmental Law Institute
Lawrence Berkeley National Laboratory
Current Issue
Issue
2
Bioengineering the Future

In 1898, the British chemist William Crookes gave a talk before the British Association for the Advancement of Science entitled simply, “The Wheat Problem.” Crookes is best remembered for his work on vacuum tubes, and lenses that were precursors to today’s sunglasses, so his focus on wheat production probably startled his audience. Especially since his thesis was alarming: wheat was extracting more nitrogen from the soil than we could replenish, which resulted in ever lower yields and “a life and death question for generations to come.”

It took another decade, but in 1908, the German chemist Fritz Haber (later referred to as the “father of chemical warfare”) provided a solution to the wheat problem by demonstrating that ammonia, the main component for nitrogen fertilizers, could be synthesized. The manufacturing of ammonia for fertilizer is one of the great innovations of the 20th century. Some researchers estimate that its introduction in agriculture has since supported over 40 percent of global births.

But, as has been the case for many technological leaps, there were downsides. Today, the synthesis of ammonia accounts for a quarter of the annual greenhouse gas emissions of the entire chemical sector, as well as increasing nitrogen pollution of waterways through agricultural run-off. Other options are being explored — from synthesizing ammonia using plasma to low-temperature electro-catalysis — but the most intriguing solution is biological.

Some plants, mainly legumes like beans, have microbial partners with an amazing capability to extract and “fix” nitrogen directly from the atmosphere for immediate use by plants. What if that genetic function could be transferred directly to plants like corn? And that is exactly what is happening. Hundreds of millions of dollars are being poured into new approaches, and firms like PivotBio are making plants that they hope in the future will be self-fertilizing, addressing both environmental and food security challenges.

Over the last decade over $12 billion has been invested in new biotech startups and existing companies, with around $4 billion put forward in 2018 alone. The pandemic has riveted our attention on health care applications, but as a recent report from McKinsey notes, “More than half of the potential direct economic impact from biological technologies . . . is outside of health care, notably in agriculture and food, materials and energy, and consumer products and services.”

Some of these emerging applications you may have already heard about, or even tasted. Memphis Meats and Mosa Meat are growing beef, pork, chicken, and even duck meat from cultures in the lab, just two of the over 80 companies now working on cultured meat and seafood protein products using a process broadly referred to as cellular agriculture. These approaches are being applied to a broad spectrum of dietary products. Finless Foods, for example, is applying cellular agriculture technologies to grow fish cells in the lab. It isolates cells from fish tissue, feeds the cell cultures with nutrients to grow and multiply, and structures them into seafood products — all in local facilities, which further reduce transportation-related environmental impacts.

As another example, researchers at the Joint BioEnergy Institute, funded by the Department of Energy, have recently developed a plant biomanufacturing platform that was used to synthesize a new-to-nature biopesticide with novel antifungal properties. This suggests that plants can be used to sustainably manufacture molecules not possible with traditional chemical methods.

This all is the tip of the revolution in what is termed engineering biology and signals a shift from chemical to biological synthesis — to a new manufacturing paradigm. An inventory maintained by ELI to track emerging biotech products and applications now contains over 300 examples stretching across almost two dozen categories, from food to fuel to threat detection.

People are beginning to build with biotechnology. The sustainable building materials startup bioMASON injects microorganisms with sand in an aqueous solution to create bricks and other construction materials, a process that is not only faster than the traditional kiln-fired process, but it also releases no carbon because it does not require fuel or heat. Traditional brick making not only emits CO2 and other gases into the atmosphere, but often involves the removal of agriculturally productive topsoil. That can reduce agricultural yields by 60-90 percent. Another innovative and sustainable materials startup, Cruz Foam, uses one of the most abundant natural polymers on Earth, chitin from shrimp shells, to sustainably manufacture packaging materials, automotive parts, and consumer electronics.

Novel solutions to tackle indoor air pollution are in the pipeline. Researchers at the University of Washington have inserted a mammalian gene (CYP2E1) into ivy plants to increase their detoxifying potential. The gene “codes” for an enzyme that breaks down some of the volatile organic compounds found in homes. The researchers estimate that a biofilter made of these genetically modified plants could deliver clear air at rates similar to commercial home filters.

Next-generation biotech firms are exploring new avenues to address old, intractable environmental challenges. A new effort at Allonnia, backed by Gates Ventures and the Battle Memorial Foundation, will search for enzymes or microbes that could tackle the long lasting risks from so-called “forever” chemicals — per- and poly-fluoroalkyl substances found in thousands of nonstick, stain repellent, and waterproof products.

Biotech is starting to provide promising solutions aimed directly at the global carbon cycle that could help address the 37 gigatons of carbon released annually into the atmosphere — creating carbon-neutral or de-carbonization options for a number of economic sectors, such as agriculture, construction, and some forms of transportation — aviation, for example — that are less amenable to the adoption of traditional carbon-neutral strategies. Aviation currently accounts for 2 percent of global carbon emissions. Unfortunately, plane fuel weight restrictions eliminate many of the other carbon-neutral options being considered for the transportation sector, such as electric motors or fuel cells. But researchers at the University of Manchester in England have re-engineered the genome of a bacterium (Halomonas) that grows in seawater to produce next-generation bio-based jet fuels.

Research is also targeting direct interventions in the carbon cycle, by increasing the carbon capture efficiencies of plants and trees. Today, around 120 gigatons of carbon is removed by terrestrial photosynthesis on an annual basis. So even small improvements could have large impacts on carbon removal while simultaneously improving crop yields and food security. Research is underway to redesign photorespiration and CO2 fixation pathways, optimize light reactions during photosynthesis, and transfer carbon-concentration mechanisms from algae and bacteria into other plant chloroplasts.

Biotech is creating new avenues for climate change adaptation — for instance, the engineering of drought- and disease-resistant crops. Researchers at the Innovative Genomics Institute at Berkeley have developed cacao plants engineered to thrive as the climate warms and dries the rain forests where they normally grow the crop. As many as 50 million people worldwide make their living from the industry.

Long term, biology can be a key to creating a circular economy, where decentralized and distributed biomanufacturing systems are designed to use a variety of inputs. These include chemicals from industrial off-gases; syngas generated from municipal solid waste, organic industrial waste, forest slash, and agricultural waste; or reformed biogas. These systems provide a variety of outputs, from fuels to food or vaccines. This kind of production flexibility is one objective of the new BioMADE initiative developed by the Department of Defense and the Engineering Biology Research Consortium. The seven-year award includes $87.5 million in federal funds and is being matched by more than $180 million from non-federal sources, including state governments.

This future rests on the increasing ability to engineer biology to enable what researchers at the firm Zymergen have coined biofacturing. Jason Kelly, the CEO of Ginko Bioworks, predicts, “As we get better at designing biology, we’ll use it to make everything, disrupting sectors that the traditional tech industry hasn’t been able to access.”

Old biotech was messy, expensive, and imprecise. It would often take large companies hundreds of millions of dollars and years to change the properties and behavior of one molecule. No more. To paraphrase Stanford University economist Paul Romer, the new biology is about better recipes, not just more cooking.

Today’s biology goes beyond the “study of complicated things,” as the British evolutionary biologist Richard Dawkins once put it. Over a decade of significant investments by organizations like the National Science Foundation, the Department of Energy, and the Defense Advanced Research Projects Agency have turned biology into what some have termed a Type 2 innovation platform, similar to the Internet, which “consists of technological building blocks that are used as a foundation on top of which a large number of innovators can develop complementary services or products.” Think of today’s biology not as a science, but as a precision-manufacturing platform — digitally interconnected, increasingly automated, flexible, and cost-effective.

These novel biological engineering approaches share one critical characteristic — the ability to run experiments quickly, testing hypotheses, learning, adjusting — what some have termed the Design-Build-Test-Learn cycle. Making things faster has been lauded as the single most important determinant of manufacturing productivity and was historically a critical focus of companies such as IBM (via Continuous Flow Manufacturing), Motorola (Short Cycle Management) and Westinghouse (Operating Profit Through Time and Investment Management). Jack Newman, a co-founder of the biotech firm Amyris, observed that the DBTL cycle “was transformational, allowing the operational translation of fundamental science into stuff.”

These new capabilities have spawned radically new business models, allowing the disaggregation of the historical value chains that have long dominated medical and agricultural biotech. This is happening even at a time when large first-wave biotech firms are tending toward consolidation, bordering on monopolistic aggregation, such as the recent mega-merger of Monsanto and Bayer. But simultaneously, what some term de-verticalization is creating viable business niches in new economic ecosystems, where many new firms work to design the molecules that can be scaled by larger firms downstream in the value chain.

But going to scale remains a large challenge facing the bioengineering community. This will mean moving from a few milligrams of a novel microbe in the lab to kilograms, kilotons — and beyond in the case of commodity products. Going from lab to commercial-scale production will require a bridge, a distributed and sharable infrastructure that can be co-developed with industry. It will need a new workforce with the necessary skills to engineer large-scale, distributed, and flexible production facilities and the ability to build life cycle and sustainability considerations into manufacturing processes and their associated supply chains.

And going to scale with potentially hundreds or thousands of large-capacity bioreactors will bring the new biotechnology face-to-face with the public and media, raising questions about safety, security, and governance. Moving forward, there is an urgent need for regulatory and policy reinvention. There is an old adage in Silicon Valley that innovation requires a combination of “rich people,” “nerds” and “risk taking.” That may not be enough. There are some important ways in which biology differs from other innovation platforms. The most crucial are the regulatory, security, and public perception barriers that may hinder the introduction of new products into the market.

Regardless of these challenges, over a decade of progress and emerging business opportunities have motivated many countries to develop bioeconomy strategies designed to expand their industrial base and accelerate the commercialization of biotech innovations. There are now nearly 60 bioeconomy strategies for nations and for a number of macro-regional areas like the European Union and East Africa. Thousands of people now attend the biennial Global Bioeconomy Summit held in Berlin (virtual this year). The United States was an early leader, developing a government-wide National Bioeconomy Blueprint in 2012 under the Obama administration. It emphasized the role of the biosciences and biotechnology in creating new economic opportunities.

The 2012 Blueprint was the first and for the better part of a decade the only bioeconomy strategy that featured biotechnology as a critical platform technology to drive economic benefits in the biomedical, agricultural, environmental, energy, and industrial sectors. The Blueprint promotes making strategic and non-overlapping research and development investments, facilitating transitions from lab to market, increasing regulatory efficiency, enabling public-private partnerships, and supporting strategic workforce development. In the years that followed the release of the Blueprint, the Obama administration realized a number of outcomes relating to all five of its strategic objectives.

For instance, significant research investment enabled the discovery of CRISPR/Cas9, which became a genome-editing technology that has significantly accelerated the ability to quickly and precisely edit genomes of microbes, plants, and animals. The Department of Agriculture expanded the BioPreferred Program, the federal biobased procurement system that aims to provide market certainty for the growing industry sector. Then in 2015, Executive Order 13693, titled Planning for Federal Sustainability in the Next Decade, required federal agencies to set biobased procurement targets. The Office of Science and Technology Policy convened the Food and Drug Administration, EPA, and USDA to execute the 2017 Update to the Coordinated Framework for the Regulation of Biotechnology, aimed to increase transparency, ensure safety, streamline regulatory processes, and accelerate the translation of bioinventions to market. There was also a successful public-private partnership between LanzaTech and Pacific Northwest National Laboratory that resulted in the development and testing of the first bio-jet fuel, used to power a Virgin Atlantic Airlines flight from Orlando to London. Finally, in addition to launching a technical roadmap in 2019, progress has been made toward the Blueprint’s workforce objective through a public-private partnership known as the Engineering Biology Research Consortium, which established a four-month industry internship program for Ph.D. candidates to help train the next generation workforce for engineering biology.

Since the National Bioeconomy Blueprint was released, a number of additional important advances have occurred. In 2019, the House of Representatives passed legislation, the Engineering Biology Research and Development Act of 2019, with the aim of directing the Office of Science and Technology Policy to implement a national engineering biology research and development program that would coordinate relevant federal agency investments and activities. The Senate followed with the Bioeconomy Research and Development Act of 2020, with a similar aim. Also in 2020, the National Academies for Science, Engineering, and Medicine released a study, “Safeguarding the Bioeconomy,” that articulated — for the first time — the value of the U.S. bioeconomy, which it estimated at $959 billion annually. The report argued that the United States needs a White House-level standing committee of scientists, economists, and national security experts to develop a strategic plan to promote and protect the United States’ biology-based industry.

These actions portend a future wherein a strategic, coordinated federal effort is possible. Toward this end, additional steps are needed. For instance, the Biden administration should consider creating an office to coordinate interactions between the government and businesses, large and small, on bioengineering. It should be a one-stop shop — similar to what the National Nanotechnology Coordinating Office did for the National Nanotechnology Initiative.

To realize a strategic, coordinated U.S. bioeconomy, policymakers will need to advance not only authorization for a national engineering biology research and development program, but also appropriations to fund it. Any appropriations should be linked to regular evaluation of program impacts and proactive anticipation and management of emerging risks to help ensure public confidence in new and novel products and applications. A recent meta-analysis of the national bioeconomy strategies found that, “Only a minority . . . even mention the potential negative consequences of bio-based transformations.”

Significant strategic infrastructure investments are needed. For example, a new constellation of state-of-the-art, networked biomanufacturing facilities, positioned near sources of biomass, could not only maximize the use of renewable resources but also create high-tech jobs in rural areas. Facilities in Iowa, for instance, could use agricultural waste from corn as a feedstock, those in southeastern states could utilize switchgrass, and coastal production plants could take advantage of marine species such as seaweed and various kelp varieties. This biomanufacturing “commons” could also serve to reduce greenhouse gas emissions and the generation of toxic waste as compared to traditional chemical manufacturing. And it would create value from problematic wastes such as forest slash and agricultural residues.

Building on the progress started by the National Bioeconomy Blueprint developed during the Obama administration, the incoming Biden team has a tremendous opportunity for a renewed commitment to the U.S. bioeconomy as an important pillar of its commitment to climate action. Its new “Made in All of America” effort is aimed at revitalizing domestic manufacturing with inclusive policies and environmental stewardship,

Working together with the 117th Congress, the new administration has potential to realize a Clean Manufacturing Act, aimed to mobilize the diverse talent of the American workforce, accelerate sustainable manufacturing innovation, maximize the use of the billion tons of sustainable, renewable biomass the United States has the ability to produce, and significantly reduce negative environmental impacts of manufacturing.

As nearly sixty countries around the world try to refine their bioeconomy strategies to include biotechnology to help reboot economies crippled by the coronavirus pandemic, the United States has little time to waste in developing strategies to keep its leadership position in biomanufacturing. Over a decade ago, Neri Oxnam at MIT’s Media Lab observed that “the biological world is displacing the machine as a general model of design.” That revolution has happened. The future of manufacturing has arrived. TEF

COVER STORY A sustainable, circular economy may depend on solutions coming from life itself. So think of today’s biology not as just a science, but as a precision-manufacturing platform — digitally interconnected, increasingly automated, flexible, and cost-effective.

ELI Report
Author
Akielly Hu - Environmental Law Institute
Environmental Law Institute
Current Issue
Issue
1

Virtual Reality Fifty years after kicking off the green movement Denis Hayes receives ELI reward with public health again topic one

The Environmental Law Institute’s annual award ceremony was held virtually on October 15, live-streamed to our members and distinguished guests for the first time due to the coronavirus pandemic.

The event convenes law, management, and policy professionals to honor outstanding achievements in environmental protection. Proceeds support ELI’s research and education programs and publications.

This year’s gathering introduced a few changes due to the virtual format — a networking reception was hosted on the online event platform Remo, and the award ceremony was streamed live on YouTube.

Denis Hayes, principal organizer and founder of Earth Day, received the 2020 ELI Environmental Achievement Award. Hayes serves as president and CEO of the Bullitt Foundation and is the founder of the Earth Day Network. He is widely recognized for expanding Earth Day to 190 nations, making it the most widely observed secular holiday in the world. An environmental thought leader, writer, and speaker, Hayes is also well known for designing and building the Bullitt Center in Seattle, regarded as “the greenest office building in the world” and the first major building to meet the rigorous Living Building Challenge certification standards.

Congratulatory remarks via video were offered to Hayes by Gina McCarthy, president of the Natural Resources Defense Council and former administrator of the Environmental Protection Agency, Christine Todd Whitman, former EPA administrator and former governor of New Jersey, and Diane Keaton, the actor and filmmaker.

Gerald Torres, professor of environmental justice at Yale School of Environment and professor of law at Yale Law School, offered an official introduction for Hayes. “When environmental history is written, Earth Day will figure as a crucial inflection point. . . . It gave us what we regard as the basic infrastructure of regulations that have been so effective. Most people in the United States believe that the current quality of the environment is what it has always been. Of course, they would not have the luxury of that illusion but for people like Denis and the lives that Earth Day changed. Denis’s work is to continue to awaken people of the need for continued vigilance. He’s a champion of the belief that responsible public action is the most straightforward path to the future we want to embrace.”

Hayes’s acceptance of the award was delivered in the form of a celebratory interview with Stacey Halliday, independent consultant for Beveridge & Diamond. The two discussed various aspects of Hayes’s extensive career, including his reasons for expanding Earth Day to the rest of the world, priorities for the Bullitt Foundation, the green building design of the Bullitt Center, and environmental justice.

Despite the challenges of hosting the award ceremony virtually, President Scott Fulton noted some encouraging developments in his introductory speech. As the Institute’s main fundraising event, the ceremony garnered close to the amount of funds historically raised from the live dinner event.

This past year, ELI also successfully pivoted to remote programming, thanks to its experience with running virtual webinars, and achieved record attendance at its seminars and events over this difficult year.

While honoring the events of the past half century, Fulton also acknowledged the extraordinary environmental and public health impacts experienced today, with the pandemic, wildfires, and the racial injustice crisis, declaring that environmental protection remains as important as it was 50 years ago.

Institute, partners, research impacts of the digital economy

The Project on the Energy and Environmental Implications of the Digital Economy, a research program led by ELI in partnership with the Center for Law, Energy & the Environment at UC Berkeley and the Yale School of the Environment, published a series of research papers in September exploring the environmental impacts of the digital economy. Developed by seven research teams, the papers examine topics ranging from the use of blockchain technology to manage sustainable supply chains, quantifying the greenhouse gas emissions of ride-hailing platforms, and assessing the climate impacts of a peer-to-peer food-sharing app.

ELI has been involved in the digital and environmental nexus for the past twenty years. Visiting Scholar David Rejeski noted in a 1999 article on e-commerce published in the Forum:

“The Internet is today’s frontier. . . . The traditional tools of environmental policy may not work well in a world like this, if they work at all.” Many of the questions surrounding the digital space remain just as urgent as decades before. As the digital economy continues to expand, so too will our need to understand the environmental impacts of our digital lives and, importantly, develop better data to guide decisions by policymakers, businesses, and consumers.

The project began four years ago with two workshops on the environmental impacts of sharing platforms and artificial intelligence. These meetings convened researchers from various institutions interested in this field, creating an initial overview of the state of the research that eventually led to funding of the project. The initiative includes a project website (digitalenergyenvironment.org), a bibliography of curated research in the digital and environmental space, research papers, and an inventory of environmental applications of blockchain technology. The program has received close to $1 million of support from the Alfred P. Sloan and McGovern foundations.

Moving forward, the project will continue to identify research opportunities and establish an institutional home for its activities, with the goal of creating and nurturing a new field of research with a dedicated focus on understanding the energy and environmental implications of the digital economy.

Report on Arctic marine resources highlights food sovereignty

In September, ELI and its partners released Food Sovereignty and Self-Governance: Inuit Role in Managing Arctic Marine Resources, a report analyzing current Inuit management and co-management of marine food resources and the role of Indigenous self-governance in supporting food security.

The report, a culmination of a four-year-long project, examines how existing laws and policies support Inuit self-governance, and uplifts Inuit voices and expertise in the interpretation of legal frameworks. The project features four case studies from the United States and the Inuvialuit Settlement Region of Canada focused on walrus, char, beluga, and salmon to highlight the connections between resource management and food sovereignty.

Aligned with its central purpose to bring together and amplify Inuit voices, the project was co-developed and co-led by Inuit individuals and Inuit-led organizations. In total, the report involved over 90 Inuit authors and an advisory committee of Indigenous knowledge holders. Partners include the Inuvialuit Game Council and the Fisheries Joint Management Committee (in the settlement region) and the Eskimo Walrus Commission, the Association of Village Council Presidents, the Kuskokwim River Inter-Tribal Fish Commission in Alaska, and the Inuit Circumpolar Council Alaska, as well as ELI, with ICC Canada serving as advisor.

Efforts were made to give every voice equal weight in order to create ownership and prioritize the knowledge of people experiencing marine resource issues first-hand. David Roche, ELI staff attorney, managed the project, and Cynthia Harris, director of tribal programs and deputy director of state, local, and tribal environmental programs at ELI, served as a legal researcher for the project.

The report represents a continuation of ELI’s projects in the Arctic, which have covered topics such as model Alaska Native consultation procedures, science communication, and government-to-government consultation related to marine subsistence resources in Alaska. In future Arctic policy research, ELI plans to continue applying the report’s principles of co-producing knowledge and building long-term partnerships for more effective project outcomes.

ELI in Action ABA awards Institute for “ELI at 50” program

The Institute’s “ELI at 50” program received the 2020 American Bar Association Section of Environment, Energy, and Resources Distinguished Achievement in Environmental Law and Policy Award. The annual award recognizes individuals or organizations that have made significant contributions to improving environmental law and policy and advancing environmental protection and sustainable development in the United States.

In a virtual award ceremony, the ABA noted that ELI offered innovative programming in each month of 2019 and produced significant publications in the past year, facilitating “critical discourse of where environmental law has been, and where we must go next.” President Scott Fulton noted in his acceptance speech that 2019 was a record-breaking year for ELI, both in the number of programs offered as well as the number of practitioners reached through the Institute’s programs.

On September 25, 2020, the ELI China Program held a webinar on best practices in environmental enforcement under a grant from the U.S. Embassy in Beijing. Close to 200 government and legal professionals in China joined the webinar, representing over 20 different provinces. Attendees included officials from the Ministry of Ecology and Environment and provincial bureaus of environmental protection, judges, prosecutors, and members of nonprofits, academia, law firms, and businesses. President Scott Fulton, Distinguished Judicial Scholar Merideth Wright, and Visiting Scholar LeRoy Paddock presented on various aspects of compliance and enforcement in the United States. Topics of discussion included monitoring, permitting, citizen suits, penalties, and judicial supervision of remedies. Simultaneous interpretation from English to Chinese was provided via Zoom, enabling a bilingual presentation for attendees.

Since 1998, with support from EPA, ELI has convened public health officials from across the United States who share the mission of improving indoor environmental quality. In October, ELI convened the 15th Workshop for Indoor Air Quality Officials, a three-day forum attended by representatives from over 30 states, several tribal and local governments, and officials from EPA. The workshop addressed both long-standing indoor air quality topics and current issues implicated by the pandemic, such as ventilation, cleaning and disinfection, and management of Legionella and other plumbing pathogens.

Although the workshop was convened as an online event for the first time, its purpose and approach remained the same: to foster sharing of information among programs to identify new strategies, resources, and opportunities for collaboration to reduce indoor air risks.

In September, the International Network for Environmental Compliance and Enforcement, of which ELI serves as secretariat, held the first session of a six-part webinar series on current and potential uses of citizen science to improve environmental monitoring, compliance, and enforcement. The webinar, Citizen Science: Concepts and Applications for Enforcement, featured presentations on the role of citizen science in scientific research and monitoring, regulatory decisions and enforcement, and environmental justice, among other applications. Other webinar topics in the INECE citizen science series include water pollution, air pollution, Indigenous and community monitoring, and emerging government strategies.

Pesticides have widespread impacts on agriculture, ecosystems, and public health, especially for communities such as farmworkers and children. In October, ELI hosted a webinar titled Pesticides, Farmworkers, Industry, and Environmental Justice, exploring recent changes in federal regulation of pesticides and policy approaches to addressing safety and environmental justice issues.

Speakers included James Aidala, consultant at Bergeson and Campbell; Patti Goldman, managing attorney at Earthjustice; Gretchen Paluch, pesticide bureau chief at the Iowa Department of Agriculture and Land Stewardship; and Caleb Pearson, assistant general counsel at CropLife America.

Earth Day founder Denis Hayes wins ELI Award.