MORGANTOWN, W. Va. — Last September California affirmed its commitment to supply all of the state’s annual demand for electricity with renewable sources of energy by 2045. New Mexico enacted similar 100 percent renewable legislation. This month Minnesota pledged to be the third U.S. state to achieve 100 percent renewable electrical generation, committing to do so by 2050.
The three states are joined by nine other states considering the 100 percent commitment, and 100 American cities that made the 100 percent renewable pledge.
Bravo! In the global contest to slow the advance of warming and dangerous meteorology Americans are investing in industrial evolution and human safety. The idea that clean energy is a path to planetary sanity is alive with elected leaders in American cities, and select counties and states. The advance of the rational energy brigade was felt only three years ago in the White House and Congress, too. But maybe that changes in 2020.
But even as technology, competitive prices, and consumer demand opens electricity markets to clean energy — at a rate considerably faster than most energy analysts anticipated — one fierce headwind is pushing hard to stall the advance. Behind that headwind is a storm of natural gas.
SOMERSET, KY — Ever since I reported and completed a project to suggest a new development strategy for Owensboro, KY. — and met and married one of the city’s great and beautiful civic leaders –I’ve been fascinated by the evolution of the Ohio River Valley. See a ModeShift archive here.
Every economic era in American history opened along the river’s banks. Most of those that closed also weakened and died on a river that stretches 981 miles from its start in Pittsburgh to where it empties into the Mississippi in Cairo, Illinois. I’ve had in my head for eight years now a great non-fiction book on the Ohio’s contemporary story of reviving cities, cleaner shores, technological advancement, energy transition, and political retreat. A story, in other words, of America. Just one from a region of the country that attracts scant attention and invites limited perspective even from the more than 5 million people who live along its banks.
This week I’m off to the region around Pittsburgh, Morgantown, and Charleston to report for the New York Times and Energy News Network on the potentially colossal natural gas processing industry emerging on the banks of the upper Ohio. Royal Dutch Shell is building a $6 billion plant in Monaca, PA. to process natural gas liquids into feedstock compounds useful in the production of chemicals, plastics, and fuel.
Downstream, Ohio late last year approved air emissions and water discharge permits for a similar-size plant in Belmont County. The Department of Energy is considering a $1.9 billion loan guarantee to build a $3 billion gas storage and distribution hub in West Virginia. MarkWest, a big player in the industry, is spending $2 billion on gas processing facilities in the upper Ohio region. Billions more is being invested in pipelines to move gas and gas liquids to market. In 2017, during talks in Beijing between President Trump and Chinese Leader Xi Jinping, China indicated it was prepared to invest $83.7 billion in gas processing and distribution infrastructure in the upper Ohio states. Continue reading “The Ohio River Again At Center of Seminal Industrial Transition”
ATHENS, OHIO – Few places in the United States better understand the economically essential and ecologically risky accord between energy and water than this southeast Ohio town.
Athens, where Ohio University was founded in 1804 as a Northwest Territories frontier institution, was once surrounded by dozens of working underground coal mines. Thousands of miners spent much of the 19th and half of the 20th centuries digging long horizontal and vertical shafts that essentially hollowed out most of the rounded hills of the Hocking River Valley. Coal from southeast Ohio fired steel mills and fueled electricity-generating boilers that turned Ohio into an industrial powerhouse.
Then, as now, water was critical to every stage of the mining, processing, shipping, and burning of coal in southeast Ohio, which is at the center of the six-state Ohio River Valley. The ecological consequences of the rugged, unregulated mining before 1950 are manifest in a present day water mess. Water fills the dormant shafts and pours out of the old mines of the Hocking Valley in springs and streams so saturated in trace minerals they are too acidic for aquatic life to survive.
Natalie Kruse, a hydrogeologist and assistant professor at Ohio University, has distinguished her young academic career through research to develop practices that restrain the acid mine drainage, and restore some streams to conditions that support small fisheries. In that sense, Dr. Kruse is a kind of capstone figure working to clean up the remnant byproduct of Ohio’s first great era of carbon-fueled development.
Dr. Kruse, though, is also emerging here as a prominent researcher helping citizens and state officials gain a clearer understanding of the effects on the state’s freshwater reserves from Ohio’s next chapter of hydrocarbon production. More than a mile beneath east and southeast Ohio, and much of Pennsylvania and West Virginia, lies an astonishing abundance of natural gas embedded in the deep hydrocarbon-rich shales of the Utica and Marcellus geologic formations. In the last five years, over 8,000 deep Marcellus shale gas wells were drilled in Pennsylvania, and 1,700 were drilled in West Virginia. Ohio’s Utica shale gas developers have drilled 367 wells since 2010, when the natural gas boom started in this state.
The sudden surge of natural gas is the most important factor in why federal figures show that coal production and electrical generation fueled by coal, the dirtiest fuel, have declined since 2010 in the Ohio River Valley. Utilities in Ohio and the other states along the 981-mile Ohio River, which stretches from Pittsburgh to Cairo, Illinois, are opening more natural gas-fueled turbines, the newest of which operate with far lower requirements for cooling water, and don’t have fuel piles that pollute waterways. Emissions of climate-changing gases are falling because carbon emissions from burning gas are 40 percent lower than from burning coal.
The readily apparent and well-documented benefits of the surge in fuel supplies, though, are pitched on the slippery rocks of watery risks. Developers bring the gas to the surface by pumping, at ultra-high pressure, a 4-million to 6-million-gallon mixture of sand, water, and chemicals into each well to fracture the rock and release the fuel. Gas developers build roads, pipelines, and processing infrastructure at heavily wooded drill sites, often in steep terrain. The result is deforestation, erosion, and siltation in mountain streams.
Earlier this month, in support of a Wilson Center-Circle of Blue speaking tour in Beijing, I prepared a paper that updates the findings of our 2010 Choke Point: U.S.report. That project identified the Southwest, Great Plains, and Southeast as the regions at greatest risk of shortages of energy and water. Choke Point: U.S. also reported that access to adequate supplies of water and wastewater treatment were the primary impediments to the shale oil and shale gas production boom overtaking the country.
A special focus of this new paper — available on the Circle of Blue Web site here — is to explore energy production and water supply in Ohio and its neighboring Ohio River Valley states. The development of natural gas and natural gas liquids from deep shale is reshaping long-standing trends in the region’s energy mix, water consumption and treatment patterns, climate emissions, and economy. Moreover, global trends in energy and food supply and water use, especially in China and the Persian Gulf, are dramatically influencing natural gas and oil development, coal consumption, food production, water use, and the economy along the Ohio River Valley.
The six-state region is now a useful laboratory to understand how the convergence of new domestic energy technology, and overseas water, energy and food production patterns form an interlocking web of market signals that affect U.S. state economies and environmental conditions. Growing demand for grain in Asia and the Persian Gulf has produced record-high prices for corn and soybeans in the U.S. over the last five years. Rising demand for grain, and for energy, also prompted higher sales of the planting, harvesting, and construction equipment made by John Deere, International Harvester, and Caterpillar in the Ohio River Valley states.
Asia’s rising demand for coal, to fuel its fast-developing economies, is propping up prices in the Ohio, West Virginia, and Kentucky coal industry, which is exporting more coal than ever before to Europe, and putting pressure on Oregon, Washington, and British Columbia to open a western deepwater port for American coal exports to Asia.
China’s growing demand for liquid fuels keeps oil prices high enough to finance the expensive development of shale oil in the U.S.. Demand from China, and the higher prices international consumers pay for natural gas and natural gas liquids is prompting U.S. shale gas developers to produce enough methane, ethane, and propane to export from the Ohio River Valley states to overseas markets. Congress is debating whether to lift export restraints on natural gas and natural gas liquids, and new export terminals are proposed on the Atlantic and Gulf coasts.
The expanding markets for natural gas in the U.S., and in global markets, has produced mounting sales in support industries, including the construction of five new steel plants in Ohio since 2011, the first new plants since the 1980s.
The steady expansion of Ohio’s gas fields, along with smaller increases in renewable energy production, is part of a similarly powerful and, to some extent, surprising pivot point transition that is occurring across the United States in the energy and water sectors. America, alone among the world’s big economies, appears to be accomplishing a feat that nobody forecast just three years ago. Simply put, the United States is using less energy, growing its economy, and steadily shifting to cleaner, less water-consuming fuel sources.
Last month, while nosing around the new Utica shale gas fields of eastern Ohio, I learned that the Obama administration was preparing to consider a proposal from the U.S. Coast Guard that would allow barge operators to transport wastewater from shale gas fracking operations on inland waterways. Earlier this month the Coast Guard delivered the proposal to the White House Office of Management and Budget. Sometime later this year the agency is likely to make the transport plan available for public review.
Regardless of the specifics, the idea that fracking wastewater ought to be considered a bulk commodity — like coal, gasoline, oil, cement, grain, chemicals and steel — reflects the expanding dimensions of the nation’s shale fields and the growing quantity of the contaminated water that the development produces. The river that very plainly will receive most of the attention in frackwater transport is the Ohio and its upriver tributaries, which drain nearly half of Pennsylvania’s watersheds, and most of eastern Ohio’s.
Thousands of deep shale gas wells are being drilled in both regions. Producing natural gas, and more valuable natural gas liquids, involves blasting the shale with millions of gallons of water mixed with chemicals and sand under extremely high pressure. Some three million to 10 million gallons go down the well. About 20 percent, according to industry technical reports, comes back up. And it’s nasty stuff — saturated with salts and metals and solids.
Water is the shale gas and shale oil industry’s soft underbelly. The companies knew that well before the fracking revolution started. During the early George W. Bush administration Vice President Dick Cheney convened meetings with industry executives who identified the federal Safe Drinking Water Act as an impediment to a swift start to horizontal drilling/fracking technology they believed would alter the nation’s energy outlook. The administration proposed and Congress quietly enacted waivers to the law that allowed the industry to keep the identities of the fracking chemicals secret and bypass permit requirements.
Citizens, though, took notice all over the country. Reports of leaks, groundwater contamination, and health consequences as a result of exposure to wastewater and drilling operations have become numerous. States have been roused to fill some of the safety gaps that the federal government avoided. Wyoming, Texas, and other states require companies to disclose the ingredients in their fracking fluid. Ohio and Pennsylvania issued tougher standards for constructing wells in an effort to prevent damage to drinking water.
The next big area of water concern is the sheer volume of wastewater. A new wing of the oilfield service industry, spurred by public concern, generated tougher standards that are leading to water recycling in Pennsylvania and Ohio. The competition for water during the deep 2011 and 2012 droughts in the interior prompted similar interest in Texas and Colorado for wastewater recycling. Halliburton, the big oilfield service company, is a leader in developing mobile recycling systems that clean up dirty water to a standard that makes it reusable for new frack jobs.
I crossed the path of a mobile recycling plant that Tervita operates for Chesapeake’s frack jobs in eastern Ohio. The plants save water, and reduce truck traffic. Solids separated from the wastes are said to be transported to local licensed dumps, though the Ohio Department of Natural Resources says it doesn’t track such shipments.
Most fracking wastewater is pumped down the hazardous waste injection wells that operate around the country. As to where fracking wastewater might be heading on barges? Probably not upriver on the Ohio. Two years ago Pennsylvania outlawed treating frack wastewater in public water treatment plants.
At the corner of US 31 and County Line Road in Benzie County, one of the more than 9,000 Antrim Shale natural gas wells drilled in Michigan since the late 1980s. Michigan’s Antrim Shale was among the first natural gas reserves in the U.S. developed from hydrocarbon-bearing shales. Photo/Heather Rousseau
BENZONIA, MI — It’s apparent why a great number of Americans wonder about the risks of fracking and whether states and the federal government ought to shut the technology down. The breakthrough that now enables developers to recover oil and natural gas from hydrocarbon-rich shales 6,000 to 10,000 feet beneath the surface is potentially fraught with danger.
No new technology comes without assorted risks, especially one as environmentally significant and economically powerful as fracking. But along with the risks come benefits. The question is whether the U.S. has the capacity to significantly reduce the threats through regulatory safeguards, or is there one or more aspects of the technology that are so inherently dangerous that fracking should not be allowed at all?
Answering the question involves distinguishing the difference between “potential” and “actual” risks and benefits. On the potential side of the discussion, the risks seem fearsome.
The fracking process blasts millions of gallons of water mixed with chemicals down a well at ultra-high pressure to shatter the rock and release the fuel. Anecdotal evidence, and several instances of contamination confirmed by the federal Environmental Protection Agency, point to a risk that fracking can contaminate freshwater aquifers much closer to the surface. It’s not clear yet how significant that risk is, though the EPA is studying the issue and preparing to issue a definitive report next year.
Public health authorities in Pennsylvania also are starting to study the consequences of fracking to human health, and are focusing on air pollution. Big diesel engines operate at the well sites, and it takes roughly 2,000 truck trips to transport water, fuel, and equipment to each well. Vehicular collisions, moreover, have taken the lives of dozens of truck drivers and motorists in North Dakota and Pennsylvania.
Fracking takes millions of gallons of water at each well and is leading to confrontations over water supply on the Great Plains and desert Southwest. Disposing wastewater and fluids from the process has led to spills in North Dakota and Wyoming. Pumping the wastes down deep disposal wells also has caused small earthquakes in Ohio, Arkansas, and Texas. The concentration of wells in a region, all tied together by new roads, pipeline corridors, and assorted processing and pumping stations, has significant implications for the uses of land, particularly if the development occurs in a forested area like Michigan.