A window into what we are reading at the Wilson Center’s Environmental Change and Security Program

Shedding Light on Imperial Oil’s Dark Waters (Mongabay) 

Canada has the fourth-largest tar sands (oil deposits) in the world. Separating the bitumen used in industries and construction creates large volumes of toxic wastewater, which is stored in tailings ponds that now cover a staggering 270 square kilometers. Unresolved infrastructure mishaps at one such site in Alberta operated by Imperial Oil means that contaminants have polluted nearby waters so significantly that it has affected public health and the livelihoods of indigenous communities in downstream areas.

A window into what we are reading at the Wilson Center’s Environmental Change and Security Program

Extreme Heat’s Toll on Pregnancy and Reproductive Health

Preliminary data collected by the World Meteorological Organization (WMO) shows that the first week of July 2023 was the hottest week on record. Recent global heatwaves also prompted a public health alert from the WMO concerning rising health risks.

Three decades. That is how much time is left to decarbonize the world’s energy systems to limit global warming to 1.5°C, according to the latest Intergovernmental Panel on Climate Change (IPCC) report. Achieving this feat requires renewable energy systems be deployed at an unprecedented speed and scale. While daunting, however, the good news is that this transformation may not cost as much as many expected just a decade ago, thanks to rapid cost declines in renewable energy technologies.

As climate change worsens, the once-unimaginable power to use technology to cool the planet—a method known as “solar geoengineering”—has quietly entered the realm of possibility. Yet the prospect of developing such planet-altering technologies has launched an intense debate: Can this be achieved responsibly? Should it be attempted at all?

“Today we face two existential threats: nuclear annihilation and catastrophic climate change,” writes Daniel Poneman, former Deputy Secretary of the Department of Energy, in his book, Double Jeopardy: Combating Nuclear Terror and Climate Change. “Both stem from human origins. We need to fight both threats aggressively.” At a recent event hosted by the Wilson Center, Poneman discussed his book. While the dangers of nuclear energy are clear from incidents like Fukushima and Chernobyl, Poneman proposes policies that aim to encourage a safe, non-carbon baseload power that responds to the Intergovernmental Panel on Climate Change (IPCC) 2018 report and keeps our global temperature rise below 2 degrees Celsius above pre-industrial levels, per the 2015 Paris Climate Agreement.

Blanketed by freshly fallen snow, mountains of the Teton Range loomed above as I explored the picturesque town of Jackson, Wyoming. A native Bostonian, I had no experience in the heart of the country, but that week I wasn’t the only outsider wandering Jackson’s icy streets. In November 2018, experts from all over the world gathered in Jackson to attend the Jackson Hole Center for Global Affairs Forum with one common goal: to identify the challenges and opportunities for coal communities worldwide as they transition their economies away from coal.  

For solar industry professionals in China, May 31, 2018, is a day that will live in infamy. At the beginning of 2018, Chinese domestic solar developers were riding a high after reaching a record 53 GW of newly installed solar capacity the previous year. Most sources projected this breakneck pace of new solar construction would continue through 2018. On June 1, 2018, however, the National Development and Reform Commission, Ministry of Finance, and National Energy Agency announced a new policy to lower the solar feed-in-tariff, halt subsidized utility-scale development, and implement a quota for distributed projects. Industry professionals refer to the infamous policy as “531” for May 31, 2018, the day that the solar industry ground to a temporary halt or “freezing point.”

Solar farms—just like regular farms—cover large swaths of land, requiring between 3.5 to 16.5 acres per MW of generating capacity. The largest solar plant in the world, the 648 MW Kamuthi facility in Tamil Nadu, India, covers ten square kilometers. But it will be dwarfed by the 3,450 MW facility under construction on China’s Tibetan Plateau, which will span 298 square kilometers when completed. Building these large plants requires fundamentally changing how the land they sit on is used, which—without careful planning—could have negative impacts on the environment and local communities that could potentially lead to conflict. The backlash could not only derail solar projects, but could also fuel resistance to future renewable energy development.