IoT's Environmental Impact Is Up to Us
Author
Stephen Harper - Intel Corporation
Intel Corporation
Current Issue
Issue
2
Parent Article
black and white headshot of Stephen Harper

Technologies are tools, and humans determine their net social and environmental impacts by how they are designed and deployed. This is true for the Internet of Things, a poorly understood set of information and communications technology (ICT) solutions that are rapidly proliferating throughout society. Often joined with artificial intelligence, IoT is the enabling technology undergirding everything labeled as “smart”—homes, buildings, transport, cities. Think of a network of sensors, edge computing devices, and data gateways connected via the cloud and data centers. “Digitalization” is a term often applied to this phenomenon.

The environmental and sustainability benefits that IoT delivers have been well publicized, particularly by ICT vendors jockeying for a bigger share of a growing market. Smart homes and buildings, intelligent transportation, precision agriculture, industrial controls, electricity grid resilience, “digital water” . . . the list goes on. A common thread in all these applications is the ability of IoT to turn data into actionable analysis. The International Energy Agency has shown how IoT and other forms of digitalization can be applied to improve the efficiency and lower the climate impact of our energy system.

The potential negative effects of IoT have also received scrutiny, including rising end-of-life e-waste and direct energy consumption. Analysts have also highlighted potential rebound effects, whereby increased energy efficiency and resulting cost savings can lead to increased energy consumption in the long run. Analysis of energy rebounds by the American Council on an Energy Efficient Economy typically minimize the size of such effects, but the potential remains nonetheless.

There is a long history of ICT scary stories, especially concerning predictions of future energy consumption trends. Dating back to the California energy crisis of 2000, which some analysts errantly blamed on the growth of data centers, various “experts” have made claims that ICT devices collectively will consume most or all of the available electricity by some date in the mid-term future. Data centers have garnered the most criticism, although a recent report from Lawrence Berkeley lab shows U.S. data center electricity consumption has leveled off in recent years despite an explosion in the amount of data being processed. More recently, alarms have been raised about the energy threat posed by billions of IoT sensors projected by some date in the future.

A good analytical frame for evaluating the balance of IoT’s positives and negatives are the complementary metaphors of footprint and handprint. The footprint is the direct negative impact (energy, water, climate change) of any person, company, or society. Handprint refers to the enabling impact that technologies can have in helping a person, company, or society to reduce their footprints. ICT technologies, including IoT, definitely have a footprint, but they also present handprint benefits, perhaps more than any other sector of the economy.

Society’s goal should be to minimize IoT’s footprint and maximize its handprint. That comes down to technology design and public policy. The IEA several years ago convened the Connected Devices Alliance, a consortium of governments and ICT companies, to focus on both. One work product of the CDA is a set of “Design Principles for Energy Efficient Connected Devices” that features 10 recommendations for how IoT and other ICT device makers can minimize the energy footprint of networked devices. In parallel, the CDA issued a set of “Policy Principles for Energy Efficient Connected Devices” that highlight how policymakers can promote handprint innovations and help grow the market for IoT and other network markets.

Several groups are focused on the net benefits of digitalization. ELI itself has convened a conference and series of webinars under their Green Tech banner, with discussions focused on how smart public policies can maximize the net environmental benefits of technology. The Digital Climate Alliance, a coalition of leading ICT companies, has been promoting enabling digitalization policies in legislation on Capitol Hill. By leveraging existing resources, companies and governments alike can push for IoT to be used for good.

Digital Technology Opportunities for the Colorado River Basin
Author
Environmental Law Institute & Water Foundry
Date Released
November 2019
Digital Technology Opportunities for the Colorado River Basin

The American West, including the cities of Las Vegas, Nevada; Los Angeles, California; Phoenix, Arizona; and Denver, Colorado, falling under the reaches of the greater Colorado River Basin (CRB), is now among the world's water stressed regions facing the environmental, economic, and social challenges of increased water scarcity. The CRB supplies more than 1 in 10 Americans with some, if not all, of their water for municipal use, including drinking water.

ELI President Attends “The Future of the Green Economy” in Rome, Italy
April 2019

(Washington, D.C.): The green economy is now a $4 trillion market—roughly the same market share as the fossil fuel sector. Given the impact of this new economy, the Canadian Chamber in Italy hosted “The Future of the Green Economy” in Rome, Italy, on April 17. Scott Fulton, President of the Environmental Law Institute, attended the event at the invitation of the Canadian Chamber of Commerce and the Canadian Embassy in Rome.

Blockchain Salvation
Author
David Rejeski and Lovinia Reynolds
Date Released
June 2018
Blockchain Salvation

The hype around blockchains—the programming protocol originally created for the Bitcoin—is bidirectional, ranging from apocalyptic predictions of bitcoin energy use that will “destroy our clean energy future” to rosy scenarios that “blockchain technology can usher in a halcyon age of prosperity for all.” The question for policymakers, therefore, is how to ensure that the environment profits in the end.

Blockchains: Environmental Hype or Hope?
July 2018

Washington, DC: The hype around blockchains—the programming protocol originally created for the Bitcoin—is bidirectional, ranging from apocalyptic predictions of bitcoin energy use that will “destroy our clean energy future” to rosy scenarios that “blockchain technology can usher in a halcyon age of prosperity for all.” The question for policymakers, therefore, is how to ensure that the environment profits in the end.

Advancing the Administrator’s Science Goals
Author
Richard Yamada - United States Environmental Protection Agency
United States Environmental Protection Agency
Current Issue
Issue
2
Parent Article

Reading the popular press about science in the Trump administration, one cannot help but recall the famous quote about “the nattering nabobs of negativism.” I am thankful to have an insider’s perspective at EPA’s Office of Research and Development, where every day I witness the real, pro-science story of the administration, especially the role of Administrator Scott Pruitt in advancing the White House agenda. 

Science and technology have always played a pivotal role in what makes America great, and EPA is constantly advancing this proud tradition by engaging in a continuous, thoughtful conversation about meeting the research needs of the nation. This work has never been more important, as the number of environmental issues facing us is increasing in both scope and complexity. 

States need tech solutions that are not only effective and reliable, but also affordable. EPA’s innovative approach is to embrace these challenges, and deliver science and technology in ways that not only provide solutions, but align our common goals of a clean, healthy environment and economic growth and opportunity. 

Research must be collaborative. We have recognized that to fully harness the strength of the unmatched collective expertise we possess at EPA, we must break down traditional boundaries and work in truly efficient interdisciplinary teams. In fact, today’s complex environmental problems demand such an approach. We are accelerating the integration of various scientific subject areas, routinely bringing together social scientists, engineers, ecologists, and other experts in ways that match the complexity of the challenges we face. 

Satellite imaging, remote sensing, high-throughput screening, and a new generation of small, portable, and inexpensive sensing and monitoring technologies are generating constant streams of data. Putting that proliferation of information to use requires massive amounts of computation, timely analysis, and interpretation. 

Here, EPA is leading the way. Agency-produced tools such as the Enviro Atlas (a GIS-based, ecosystem mapping and visualization tool), CANARY (a homeland security water-monitoring tool), the Environmental Quality Index (an index of environmental quality), and the ToxCast Dashboard (seamless access to toxicity data on more than 9,000 chemicals and information from more than 1,000 high-throughput assay endpoint components), and a host of others are lowering costs for timely analysis, and empowering the agency and its partners to make better, more informed decisions.

Speeding up the delivery of research results is also challenged at the other end of the spectrum: too little data. For example, many commercially available chemicals have not been thoroughly evaluated for potential health and environmental risks, and traditional toxicity testing methods are lengthy and expensive. ORD’s National Center for Computational Toxicology is incorporating the latest knowledge and technical tools to study data-poor chemicals, ushering in a new generation of far faster, less expensive screening. 

EPA is also finding creative ways to tap the collective spirit of American ingenuity and innovation. Our prize competitions and challenges allow the general public to contribute unique solutions to complex science problems — we can get solutions and technologies from individuals who might not otherwise address environmental problems. EPA’s ToxTesting Challenge — a prize-based competition to find technological solutions to produce health-based chemical assays — is a great example of how we protect human health in new ways. 

Researchers can often demonstrate technologies that are promising in the lab, but how do we scale-up those technologies? EPA’s Small Business Innovative Research program supports the development of promising new technologies during the crucial proof-of-concept stage. The program has supported new companies that have brought new technologies to the marketplace and sparked a host of successful businesses, showcasing how environmental challenge can yield economic opportunity and growth. 

Finally, EPA has always had a unique partnership with the public. Today, that partnership is growing even stronger through the emergence of citizen science, which has the potential to allow everyone to play an important role in contributing to our understanding of complex environmental challenges. EPA is in the process of developing a citizen science handbook as the first step of making that a reality — an exciting direction that will help agency scientists, empower citizens, and continue to strengthen an enduring partnership. 

The above offers but a tiny slice of the exciting pro-science examples we have to offer at EPA. I hope this Sidebar demonstrates how the agency is meeting the environmental challenges of the 21st century with a forward-thinking vision of science.

More Energy From Carbon, Lower Emissions
Author
Fred Eames - Hunton & Williams
Hunton & Williams
Current Issue
Issue
2
Parent Article

There are 7.6 billion people on the planet today. By 2050, there are projected to be 9.7 billion — or put another way, in just thirty years we will add the equivalent population of seven United States. The world’s most credible energy forecasting entities predict a global increase over that time not only in demand for energy, but demand for fossil energy. Even with steady increases in energy efficiency and a massive increase in renewables, consumption of fossil fuels will grow. That means carbon dioxide emissions won’t be reduced significantly without some technology to do so.

The only technology to deeply reduce CO2 emissions from fossil fuels is carbon capture and storage. CCS can control and sequester nearly all greenhouse gas emissions from an industrial facility.

Is this vision realizable? Indeed: the United States has more than 700 years’ worth of capacity in deep saline formations and similar geologic strata to store the carbon dioxide we generate.

Importantly, capturing carbon dioxide costs money, and people would rather get value for the CO2 they capture than put it in the ground for nothing. To the rescue comes CO2-EOR. About 4 percent of total U.S. oil production today comes from enhanced oil recovery via CO2 injected into oil formations. We have over 100 years’ worth of storage capacity in oil formations alone, and the more we look, the more we find. We are by far the world leader in this technique. The United States has been producing oil with CO2 for 45 years, and the injected gas is proven to stay trapped underground.

Other countries have coal and oil deposits located near one another, where coal can be used to produce electricity and the CO2 can be captured and easily shipped by pipeline for production of oil.

The above facts have more to do with whether the world meets climate targets than does increasing efficiency and use of renewables.

There are people around the world pushing divestment from fossil fuels because of climate concerns. To serve their goal, they instead ought to be pushing for investment to improve clean fossil fuel technology. However, policies today all over the world favor renewables as the preferred energy source. The International Energy Agency found that in the decade from 2004-13, world governments provided nearly $2 trillion in renewables subsidies, while investing barely 1 percent of that to developing CCS technologies.

In the United States renewables have received government support in the form of mandatory purchases (through the Public Utility Regulatory Policies Act), set asides (through state renewable portfolio standards), tax credits, loan guarantees, grants, and other programs. CCS has similar climate benefits, but despite its importance is not on an equal footing.

Investment in renewables has borne results. Costs have come down and market penetration has gone up. The same is expected for CCS. That is the aim of the Department of Energy’s research and development programs: to bring the costs down for CCS, and to “mature” the technology across a variety of applications and circumstances.

Last year, the first full-scale CCS project on a power plant in the United States began operation — the PetraNova project at the W.A. Parish plant in Texas. The technology by all reports is working very well. It is the second power plant in the world to deploy full-scale CCS, the other being SaskPower’s Boundary Dam Unit 3 in Saskatchewan, Canada. Both first-of-a-kind projects offer lessons and efficiencies for next-of-a-kind projects.

To add a final acronym, both also are CCUS projects — carbon capture, utilization, and storage. At both facilities, the CO2 is being used to produce crude at nearby oil fields. Think of CCUS petroleum as “low carbon oil.”

It may be surprising to know that there are parts of the world today that would love to store CO2 because of its potential for oil production, if only they could get the gas. We have too little captured carbon dioxide because of a gap between the cost of capture and what drillers will pay for it. In the United States, Congress is considering increasing current tax credits to close that gap. Another factor to change the economic equation is research: finding ways to get more oil per molecule of CO2 injected. So is development: recent lab results are promising.

CCS is a win-win, with perhaps additional wins appended. It has climate benefits, energy benefits, U.S. technology benefits, and potentially geopolitical benefits if the United States can help allies better control their own energy futures.

Google Saving Millions Via Materials Reuse
Author
Kate Brandt - Google
Google
Current Issue
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1
Parent Article

During the 20th century, global raw material use rose at about twice the rate of population growth. Society’s demand for resources is already equivalent to what 1.7 Earths can provide. And the World Economic Forum estimates that by 2030 we are going to have 3 billion new middle class consumers. These sobering statistics highlight the pressing need to reevaluate the economic model that has been in place since the industrial revolution.

At Google, we believe global businesses should lead the way to driving a 21st century model in which people’s lives are improved while reducing dependence on primary materials and energy from fossil fuels. And we believe this can be done in a way that makes business sense, providing economic return, community benefits, and a restored natural environment.

In 2015, Google established a goal to embed circular principles into the fabric of our company’s infrastructure, operations, and culture. To achieve this goal we are focused on three strategies: Utilizing energy from renewable sources, designing out waste from our operations, and thinking in cascades.

Today we are the largest corporate renewable energy purchaser in the world. We’ve signed contracts to purchase 2.6 gigawatts of renewable energy — equal to taking over 1.2 million cars off the road — and this year we will reach 100 percent renewable energy for our operations.

In addition to our renewable commitment for our operations, we’re working to help our users adopt clean energy themselves with tools like Project Sunroof, which is now available in all 50 states and Germany, and uses Google 3D Earth imagery to calculate each roof’s solar energy potential to determine how much a home could save by installing solar panels.

We’ve also been focused on designing waste out of our systems. In 2016, across our 14 global data centers, we diverted 86 percent of waste from landfills and last fall we announced a new commitment to zero waste to landfill for all our data center operations.

A major strategy for achieving this goal is how we manage the servers that are at the heart of our data centers. These servers deliver your Gmail and favorite YouTube videos but they are also a great example of the power of deploying circular economy at scale.

First, we focus on maintenance. Google’s process for data center repairs enables longer life expectancy of servers. We aggressively refurbish and remanufacture components: in 2016, 36 percent of servers deployed were remanufactured machines. We also redistribute components through secondary markets and sold over 2 million units in 2016 alone. And 100 percent of what is left gets recycled. Through this approach, we are saving hundreds of millions of dollars per year and significantly decreasing the amount of virgin material needed to operate our data centers.

Our food team has also been looking for ways to reduce waste before food hits the plate, since feeding more than 70,000 people around the world breakfast, lunch and dinner is a pretty big undertaking. In April 2014, we formalized this effort by partnering with LeanPath, a technology that helps us understand exactly how and why food is being wasted in order to improve our process. Today we have 129 cafes participating in the LeanPath program across 11 countries. Since the start of the partnership, these efforts have saved a total of three million pounds of food.

As we know, to truly enable materials to cascade through the loops of the circular economy we must focus on what’s contained in the materials we are choosing. According to the Environmental Protection Agency, there are approximately 85,000 known chemicals in the world. 21,000 of them are registered on the Chemical Substance Inventory mandated under the Toxic Substances Control Act, and only six are federally regulated. That means the buildings in which most of us spend roughly 90 percent of our waking hours are built using materials with unknown impacts on human health and performance.

In 2016, Google and the Healthy Building Network launched Portico, a first of its kind building materials analysis and decisionmaking tool. For the first time, everyone involved in a construction project, from owners and designers to contractors and manufacturers, could work together to leverage the data in Portico to find healthy materials and improve indoor environments.

At a time when we recognize climate change and resource constraints as two of our most significant global challenges, creating effective solutions will involve a complex mix of policy, technology, and international cooperation. At Google we are working to utilize circular economy principles as a transformative strategy for people and the planet but we also know that we’ve only just begun to realize what is possible.

 

Kate Brandt is Google’s lead for sustainability and previously served as the nation’s first federal chief sustainability officer.

The Drivers of Corporate Climate Mitigation
Author
Michael P. Vandenbergh - Vanderbilt University
Vanderbilt University
Current Issue
Issue
1
Parent Article

The private sector can generate a billion tons per year in greenhouse gas emissions reductions over the next decade, with corporations contributing half. This is not overly optimistic. If we start with the assumption that firms seek to maximize profit, then motivations to reduce carbon emissions arise from at least seven sources, supplemented by the moral norms of corporate managers.

The first is the cost savings that exist because of the gap between the energy efficiency steps that businesses could take with a positive return on investment and the steps they actually take. Economists and engineers differ about the size of the gap, but credible reports suggest that inefficiencies alone could account for half a billion tons of reductions. Inefficiencies exist because of market failures (split incentives, insufficient information, outdated pricing customs, etc.) and behavioral failures (steep discount rates, ingrained habits, contrary social norms, etc). Private-sector initiatives that target these market and behavioral failures have had great success.

The second source of motivation is reputation. Most of the book value of many of the largest firms in the world, including major high-tech firms, is corporate or brand reputation. Companies will do back flips to build and protect their reputation, and many recognize that most of their retail and corporate customers support climate mitigation. In fact, the public believes that corporations have the greatest responsibility to address climate change among society’s various actors. The political system can marginalize these concerns via gerrymandering, lobbying, and other strategies, but market pressure remains.

The third arises from supply chain pressure. A study of the 10 largest firms in each of eight sectors demonstrated that more than half impose environmental requirements on their suppliers. These include pressure to reduce carbon emissions. A company like Walmart, which has more than 10,000 suppliers in China alone, can have an enormous impact on global carbon emissions, and it just announced with several major NGOs that it would achieve a billion tons of emissions reductions from its supply chain by 2030.

The fourth and fifth arise from investors and lenders. Divestiture and socially responsible investment initiatives have received a great deal of attention and have applied pressure for emissions reductions. In addition, investors with more than $100 trillion in funds participate in the CDP (formerly the Carbon Disclosure Project). Similarly, lenders have acted individually and in groups to increase the pressure on fossil fuel investments and companies with large carbon footprints.

The sixth arises from the importance of employee morale and recruiting. Most of the population, including a disproportionate share of potential new employees in the highest skill areas, are concerned about climate change. Companies that cannot recruit and retain these employees are at a competitive disadvantage.

The seventh is the anticipation of government regulation. Although the federal government may not regulate carbon emissions for another four to eight years, utilities and other corporations often make strategic decisions and capital investments with a longer time horizon. Despite recent pullbacks by the Trump administration, government regulation of carbon emissions is still a substantial risk over the long haul, and many companies have incentives to reduce emissions in the interim to be well positioned when that happens.

Finally, even though self-interest can explain most of the opportunity for corporate emissions reductions, limited empirical evidence and everyday experience suggest that the values or norms of corporate managers and directors matter too. No smart manager is going to announce that he or she is sacrificing corporate profits to achieve personal norms, but the shift toward sustainability by many of the largest companies in the world has often begun with a transformational moment by top managers that arose when the importance of doing the right thing became clear, and the other seven motivations made the ability to do the right thing affordable, if not profitable. It may never be possible to establish the extent to which managers satisfice on profits to address climate problems, but this motivation should not be underestimated.

These reasons support the notion that corporations have self-interested and other motivations to reduce carbon emissions in the near term, but it is also important not to lose sight of a fundamental question: As compared to what other viable approach? No one solution will provide a silver bullet, and if we compare any one strategy to a perfect but unattainable government alternative we will miss the chance to buy time until the evidence of climate change becomes so undeniable that even our flawed political system will be forced to respond.

 

Michael P. Vandenbergh is David Daniels Allen Distinguished Professor of Law at Vanderbilt University.

The Circular Economy in Action
Author
Thomas Singer - The Conference Board
The Conference Board
Current Issue
Issue
1
The Circular Economy in Action

The companies best prepared to reap the benefits of a waste-free society will be those that understand that the traditional linear model of resource extraction to disposal is ultimately unsustainable. Leadership businesses are powering the transition.

Thomas SingerThomas Singer is principal researcher in the Sustainability Center at The Conference Board, a global business research organization. Singer is the author of numerous publications, including Business Transformation and the Circular Economy.

By 2030, the global middle class will comprise an estimated 5.4 billion people, more than doubling in size from its 2010 total. As a result, companies can expect more consumption and greater demand for the raw materials that go into making countless products. For businesses, the increased purchasing power of a bigger middle class undoubtedly brings good news, but the scenario also brings challenges.

The companies best prepared to reap the benefits of this scenario will be those that understand that the traditional linear economy is ultimately unsustainable. The conventional, age-old approach can be defined as a take-make-waste model, in which raw materials create products that ultimately end up in landfills, waterbodies, or are otherwise disposed. Alternatively, companies that hope to remain competitive in this brave new world should begin paying attention to — and enacting attributes reflective of — the concept of the circular economy. Such a model aims to keep products, components, and materials at their highest utility and value at all times. At its simplest level, the circular economy is about finding ways to decouple economic growth from the use of limited resources.

While a concerted effort by companies can help surmount this demographic challenge, the current way of doing business undoubtedly lacks the efficiency to handle the pressures of an extra three billion middle-class consumers. A surge in demand for goods will stress natural resources and raw materials — ones already over-exploited, such as minerals, oil, water, and lumber. Even greater competition for these resources may cause significant price shocks for raw materials and may disrupt existing supply chains. Consider that “water crises” has appeared in the World Economic Forum’s list of top five global risks in terms of impact in each of the last five years. Continuing down the take-make-waste path will expose companies to significant procurement and supply chain risks, as the resources they depend on grow increasingly scarce.

For most companies, the aforementioned challenges tend to fall into the oblivion of the long-term-risks category. To be fair, some companies with robust strategic planning functions take long-term risks such as these into serious account. But for most, short-termism rules the day. What some call “quarterly capitalism” often sidetracks issues that go beyond a fiscal-year timeframe.

However, while the demographic and resource-use trends fall more into the long-term category, several short-term pressures are making some companies rethink the sustainability of their models. Consider the notable shifts in the types of products and services in growing demand by consumers. Surveys find that almost half of Americans would spend more money on purchases if they could have a guarantee of ethical and responsible manufacturing practices. Two-thirds of global online consumers express willingness to pay more for products and services from companies that make positive environmental and social impact a priority (an increase from 50 percent in 2013). Admittedly, consumer demand for sustainable products is a notoriously tricky trend to measure — does sentiment translate into purchases? — but the overall signals are encouraging.

The most significant pressures for companies to incorporate circular economy attributes into their business strategies are actually coming from other businesses. And these are current, immediate pressures, not future forecasts. Dell, for example, finds that it is not uncommon for requests for proposal from commercial and public-sector customers to include sustainability criteria, which in some cases can account for as much as 15 percent of a bid. As more and more companies establish sustainability goals — such as waste reduction or energy-efficiency targets — these companies become increasingly interested in products and services that can help meet those outcomes. This was a key realization for Kimberly-Clark: some of its disposable and hard-to-recycle products (such as nitrile gloves and single-use garments) stood increasingly at odds with the sustainability goals of its customers. This realization led to the development of the company’s RightCycle project, a circular economy initiative aimed at converting these hard to recycle products into useful new items.

As Dell and Kimberly-Clark have found, pressures from evolving customer needs are nudging companies to rethink their business models and consider alternatives to wasteful linear versions. In a recent survey by The Conference Board, one-third of company executives agree that, compared to three years ago, their companies prefer to be offered services that extend the lifetime of a product rather than having to purchase a new one. A similar percentage of respondents agree that their companies are now more likely to use a model based on pay-per-use of a product. These trends have spurred the launch of several circular economy pilots and business models, including remanufacturing and product-as-a-service businesses, among others. The implications are significant: Companies need to prepare themselves to meet these changing customer dynamics or face the real possibility of becoming irrelevant and going extinct.

The circular economy concept is not new. In fact, early versions of the concept date back to the 1960s, but regulation and national policies to promote this model remain in their infancy. To date, most circular economy initiatives remain voluntary and driven largely by individual corporate efforts, along with support from organizations such as the Ellen MacArthur Foundation. However, some recent and emerging regulatory activity related to the model highlight the need for businesses to continue to engage with policymakers on this front. Companies that stay on the sidelines may find themselves unprepared when forced to make changes to their business models, while companies that have been actively involved in circular economy thinking will have an advantage by anticipating regulation.

The most noteworthy regulatory activity is taking place in Europe. In December 2015, the European Commission adopted a Circular Economy Package to stimulate the EU’s transition to a sustainable manufacturing model. The package consists of an EU Action Plan for the Circular Economy that establishes actions and targets, including the development of standards for secondary raw materials and measures to promote reparability, durability, and recyclability of products. The package includes legislative proposals on waste, which set targets for reduction and establish measures for waste management and recycling. For example, the proposals set common EU targets for recycling 65 percent of municipal waste and 75 percent of packaging waste by 2030. The proposals also set measures to promote reuse and incentivize producers to put greener products on the market and support recovery and recycling schemes.

Several legislative proposals have already been delivered under the EU Action Plan. A few examples include a proposed regulation to create a single market for fertilizers made from secondary raw materials (such as recovered nutrients); mandatory product design and marking requirements to make it easier and safer to dismantle, reuse, and recycle electronic displays (such as computer monitors and televisions); and a proposal to amend the directive that restricts the use of hazardous substances in electrical and electronic equipment (the RoHS Directive).

In addition, several individual European countries are implementing roadmaps and national strategies to promote circular economy activity. For instance, last year The Netherlands and Finland released strategic roadmaps outlining their visions for the circular economy. The Hague’s roadmap includes a goal of a 50 percent reduction in the use of raw materials by 2030. Other countries have been at this for longer, with Germany having introduced a Circular Economy Act in 2012 and Denmark having laid out a national waste reduction strategy in 2013.

Regulatory initiatives focused on the circular economy have also emerged in Japan and China. Japan has had a version of its current Law for Promotion of Effective Utilization of Resources in place since 1991. Its regulatory efforts led to the creation of a number of circular economy indicators and associated targets, including measures of resource productivity and material recycle rate. Tokyo’s targets for 2020 include increasing resource productivity to 460,000 yen of GDP per tonne of resources used (up from the 2015 target of 420,000). The goal also includes increasing the overall material recycle rate to 17 percent (up from the 2015 target of 14-15 percent).

China first introduced circular economy issues as a national development strategy in its 12th Five-Year Plan (2011-15). They remain a significant part of the Five-Year Plan ending in 2020. One of the government’s targets entails increasing the reuse of solid industrial waste as a share of total waste from 65 percent in 2015 to 73 percent in 2020, and 79 percent in 2025. To further promote the growth of circular economy initiatives, in 2013 the government founded the China Association of Circular Economy, a national multi-industry organization. Among the group’s focuses are issues related to industry, agriculture, resource recycling, remanufacturing, and green consumption. In addition, as in the case of Japan, China’s statistics bureau has a number of indicators that the government aggregates to create a circular economy development index.

In the United States, EPA has adopted Sustainable Materials Management as a regulatory framework. Much like the circular economy concept, SMM is a systematic approach to using and reusing materials more productively over their entire lifecycles. The focus of SMM revolves around four primary objectives: decrease the disposal rate, which includes source reduction, reuse, recycling, and prevention; reduce the environmental impacts of materials across their lifecycle; increase socioeconomic benefits; and increase the capacity of state and local governments, communities, and other stakeholders to adopt and implement SMM policies, practices, and incentives. The Resource Conservation and Recovery Act sets the legislative basis for SMM in the United States.

At the supranational level, the circular economy represents a key element of the United Nations Sustainable Development Goals. While voluntary and non-binding, Goal 12 refers to “responsible consumption and production,” and includes a target calling for a substantial reduction of waste generation by 2030 through prevention, reduction, recycling, and reuse. This is particularly relevant for companies that are aligning their business strategies with the UN goals.

While regulatory activity continues to evolve, in many cases business pressures — not regulation — have driven companies’ circular economy initiatives. In fact, in a survey by The Conference Board of over 50 company executives, cost savings ranked as the number-one reason for pursuing circular economy initiatives, with 44 percent of respondents pointing to this motive. By comparison, only 6 percent of respondents pointed to regulation as the primary driver of their companies’ circular economy initiatives. The focus on cost savings is not all that surprising, given the expected future price volatility of raw materials. For businesses that rely heavily on such resources, circular models provide a hedge against volatile prices.

Along with cost savings, a key driver of companies’ circular economy initiatives is evolving customer preferences. As mentioned previously, the types of products and services customers are looking for are shifting, and several companies are looking to circular models to remain relevant. Waste Management, for example, had to revisit its business model to retain customers. Realizing in the 2000s that landfill volumes were dropping, and strongly sensing that market pressures were pushing customers to embrace different waste strategies, Waste Management paused to try to comprehend the future impact of these trends on the business. Were they just short-term? What was the risk of inaction?

Company leadership recognized that failure to quickly adapt to changing customer needs could put the firm at risk of becoming irrelevant. This realization catalyzed a shift in mindset — participating in the circular economy (or “cradle to cradle” thinking, as it was referred to at the time) was crucial for Waste Management to remain relevant to customers and their evolving needs. Today, the traditional landfill business accounts for only a small portion of the company’s revenue, as more and more customers pursue zero-waste goals. “Green services,” which include recycling and environmental consulting, account for as much as half of Waste Management’s revenues.

The company’s early focus on circular economy initiatives centered on ways to reduce, reuse, or eliminate materials, particularly by looking at byproducts and waste materials from large customers. For example, one of Waste Management’s early initiatives involved working with U.S. auto companies to capture waste materials, such as scrap metal, and return them back to the production loop by finding new uses for the material — a traditional closed-loop initiative. Today, these initiatives have evolved to move Waste Management further up the value chain, collaborating with product designers and manufacturers to learn how their work affects the ability to capture products at their end of life.

The company works closely with designers to identify materials that either have a lower environmental impact or greater value, and can therefore be used in closed-loop initiatives. By going further up the value chain, Waste Management influences purchasing decisions and works side by side with designers to identify their specific problems associated with waste — and engineer them out. The company’s circular economy focus has widened to look not only at capturing and returning waste materials to the production loop, but also identifying ways to produce items that are ultimately more recoverable. This shift to tackling waste reduction at the design stage — rather than at end of life — also aligns with the current focus of the EU Action Plan.

The core premise of the circular economy — finding ways to decouple economic growth from the use of limited resources — has inspired a number of business initiatives with significant revenue-generation potential. For instance, five years ago Philips embarked on a transformation process that resulted in a decision to embed circular economy thinking into its core business. As for the thinking, what has helped Philips stay in business for 125 years — through several periods of economic disruption — has been the company’s ability to adapt to changing needs. For instance, Philips believes that if the company wants to be around for at least another 125 years, it will have to shift the way it and other companies use resources, given that current levels of consumption will not be sustainable.

In the case of Philips, the company’s main focus on circular economy initiatives hinges on the notion of switching from selling products to selling services. For example, “light as a service” is one of Philips’ primary circular economy initiatives — a shift away from selling light fixtures to providing lighting solutions. The company sees this as a response to a clear customer need. On the one hand, it is about financial considerations — customers find it much easier to swallow operational rather than capital expenditures. It also helps Philips stay on top of the latest customer needs and learn about customer usage patterns. And it allows the firm to extend replacement cycles to longer periods. Anyone not convinced that circular economy initiatives contribute to business value should take note: Circular economy initiatives such as light as a service already account for about eight percent of Philips’s annual revenue, and the company plans to double this amount by 2020.

Hewlett-Packard is another company that has benefited from innovative circular economy initiatives. The Internet of Things — essentially the interconnection of smart devices — has been a key enabler of the company’s circular economy initiatives. Take HP’s Instant Ink service, for example. By subscribing to this service, consumers’ internetconnected printers recognize when ink cartridges are low and HP then automatically ships new cartridges directly to the consumer. The new cartridges include return envelopes, enabling HP to close the loop by incorporating up to 80 percent of the plastics from returned cartridges into the manufacturing of new ones. The initiative’s direct-to-consumer model has also helped HP eliminate about 67 percent of materials used per printed page (primarily by eliminating the over-packaging retailers need for marketing and theft-prevention reasons). And since the costs of shipping cartridges to customers are now internalized, the product-as-a-service model incentivizes HP to maximize the amount of ink included in each cartridge, which also means that users need to replace Instant Ink cartridges less frequently.

For HP, much of the success of Instant Ink comes from the fact that the service addresses customer pain points. Notably, Instant Ink is marketed as an easier and more affordable option for consumers (customers can save up to 50 percent compared to purchasing ink from traditional outlets), and not as a circular economy or sustainability initiative. The service introduces sustainability benefits without pushing them as such to consumers.

Companies like HP understand that technology plays an important role as an enabler of the circular economy. Take 3-D printing as an example. 3-D printing has the potential to make it easier for companies to make production-ready parts on demand and locally, which can help extend the life of products and encourage design for repairability. This disruptive technology could potentially relocalize manufacturing.

Circular economy initiatives are not without their challenges. Companies that have launched successful pilots have done so only after overcoming multiple roadblocks and failed attempts. One of the biggest challenges in launching these initiatives comes from the need to align the interests and expectations of multiple partners along the value chain. Because circular economy initiatives often involve collaborating on the materials end and sourcing side, as well as with partners on the logistics of product take-back, disassembly, and reuse, ensuring open and transparent communication is crucial. These initiatives rarely succeed in silos.

The importance of close collaboration is unsurprising given the central role that innovation plays in circular economy initiatives. When The Conference Board surveyed global CEOs in 2016, two of the top three strategies they point to for meeting the Innovation and Digitization challenge relate to collaboration: engaging in strategic alliances with customers, suppliers, and other business partners and establishing a strong collaborative culture that encourages cooperation and coordination across functions and business units. The collaborative nature of circular economy initiatives means there is added importance in establishing partnerships based on transparency and trust. A lack of trust in partners is a major reason behind failed projects. When initiatives fail, either internally or with customers, it is often because of breakdowns in communication that result in stakeholders not being aligned about the shared risks and the shared value of the initiatives. While business partnerships matter, an overreliance on partners introduces a significant set of challenges.

Regulatory roadblocks can also present a significant challenge to circular economy initiatives. Specifically, inconsistencies in regulations across geographic regions and borders can add complexity and cost to these initiatives. Without uniform rules, something as simple as moving materials across frontiers can come at a high price tag and erode most of the economic value from business models that rely on product take-back systems. There is a clear need for addressing these regulatory issues at a policy level in order to prevent the unintended consequences of these rules from stifling circular economy initiatives. These challenges highlight the need for businesses to engage at the policy level.

The ultimate success of circular economy initiatives, much like the success of broader corporate sustainability initiatives, depends largely on having the support and buy-in from leaders who are willing to invest in them. This is not a simple ask: Obtaining buy-in from the brass ranks as the number one circular economy challenge companies point to, according to The Conference Board. But for companies that wish to remain relevant and competitive in the long term, this is an imperative. If there is one thing in common among companies that have successfully launched circular economy initiatives, it is that their CEOs and board members understand the concept, can connect it to business value, and can convey its value to investors, customers, and other stakeholders. TEF

COVER STORY ❧ The companies best prepared to reap the benefits of a waste-free society will be those that understand that the traditional linear model of resource extraction to disposal is ultimately unsustainable. Leadership businesses are powering the transition.