Powering Rural Futures: A special series

Clean energy is creating new jobs in rural America, generating opportunities for people who install solar panels, build wind turbines, weatherize homes, and more. This five-part series from the Rural News Network and distributed by Canary Media explores how industry, state governments, and education systems are training this growing workforce. Three parts have been published to date:

AstraZeneca’s $130 million biomethane plant is a model for high-emitting industries

Read the full story at Trellis.

The plant is expected to supply 100 gigawatt hours (GWh) of renewable gas annually to AstraZeneca’s U.K. operations. It was built by Future Biogas with a 15-year, $130 million offtake agreement from AstraZeneca. It uses dedicated energy crops rather than waste materials.

Utilities choosing coal, solar, nuclear or other power sources have a lot to consider, beyond just cost

A turbine from the Roth Rock wind farm spins on the spine of Backbone Mountain behind the Mettiki Coal processing plant in Oakland, Md. Chip Somodevilla/Getty Images

by Erin Baker, UMass Amherst and Paola Pimentel Furlanetto, UMass Amherst

The Trump administration is working to lift regulations on coal-fired power plants in the hopes of making its energy less expensive. But while cost is one important aspect, utilities have a lot more to consider when they choose their power sources.

Different technologies play different roles in the power system. Some sources, like nuclear energy, are reliable but inflexible. Other sources, like oil, are flexible but expensive and polluting.

How utilities choose which power source to invest in depends in large part on two key aspects: price and reliability.

Power prices

One way to compare power sources is by their levelized cost of electricity. This shows how much it costs to produce one unit of electricity on average over the life of the generator.

The asset management firm Lazard has produced levelized cost of electricity calculations for the major U.S. electricity sources annually for years, and it has tracked a sharp decline in solar power costs in particular.

Coal is one of the more expensive technologies for utilities today, making it less competitive compared with solar, wind and natural gas, by Lazard’s calculations. Only nuclear, offshore wind and “peaker” plants, which are used only during periods of high electricity demand, are more expensive.

Land-based wind and solar power have the lowest estimated costs, far below what consumers are paying for electricity today. The National Renewable Energy Lab has found similar levelized costs for renewable energy, though its estimates for nuclear are lower than Lazard’s.

Upfront costs are also important and can make the difference for whether new power projects can be built, as the East Coast has seen lately.

Several offshore wind farms planned along the Northeast were canceled in recent years as costs rose due to inflation and supply chain problems during the pandemic. Construction costs for the two newest nuclear generators built in the U.S. also rose considerably as the projects, both in the Southeast, faced delays.

Reliability and flexibility matter

But cost is not the whole story. Utilities must balance a number of criteria when investing in power sources.

Most important is matching supply and demand at every moment of the day. Due to the technical characteristics of electricity and how it flows, if the supply of electricity is even a little bit lower than the demand, that can trigger a blackout. This means power companies and consumers need generation that can ramp down when demand is low and ramp up when demand is high.

Since wind and solar generation depend on the wind blowing and the sun shining, these sources must be combined with other types of generation or with storage, such as batteries, to ensure the power grid has exactly as much power as it needs at all times.

Wind turbines behind fields of solar panels in the mountains.
Combining renewable energy and battery storage or both wind and solar can smooth out power supply dips and spikes. The Pine Tree Wind Farm and Solar Power Plant in the Tehachapi Mountains north of Los Angeles do both. Irfan Khan / Los Angeles Times via Getty Images

Nuclear and coal are predictable and run reliably, but they are inflexible – they take time to ramp up and down, and doing so is expensive. Steam turbines are simply not built for flexibility. The multiple days it took to shut down Japan’s Fukushima Daiichi Nuclear Power Plant after an earthquake and tsunami damaged its backup power sources in 2011 illustrated the challenges and safety issues related to ramping down nuclear plants.

That means coal and nuclear aren’t as helpful on those hot summer days when utilities need a quick power increase to keep air conditioners running. These peaks may only happen a few days a year, but keeping the power on is crucial for human health and the economy.

In today’s energy system, the most flexible generation sources are natural gas and hydro. They can quickly adjust to meet changing electricity demand without the safety and cost concerns of coal and nuclear. Hydro can ramp in minutes but can only be built where large dams are feasible. The most cost-effective natural gas technology can ramp up within hours.

The big picture, by power source

Over the past two decades, natural gas use has risen quickly to overtake coal as the most common fuel for generating electricity in the U.S. The boom was largely driven by the growing use of fracking technology, which allowed producers to extract gas from rock and lowered the price.

Natural gas’s low price and high flexibility make it an attractive choice. Its rise is a large part of the reason coal use has plummeted.

But natural gas has its challenges. Natural gas requires pipelines to carry it across the country, leading to disruptive construction. As Texas saw during its February 2021 blackouts, natural gas equipment can also fail in extreme cold. And like coal, natural gas is a fossil fuel that releases greenhouse gases during combustion, so it is also helping to cause climate change and contributes to air pollution that can harm human health.

Nuclear power has been gaining interest recently since it does not contribute to climate change or local air pollution. It also provides a steady baseload of power, which is useful for computing centers as their demand does not fluctuate as much as households.

Of course, nuclear has ongoing challenges around the storage of radioactive waste and security concerns, and construction of large nuclear plants takes many years.

Coal is more flexible than nuclear, but far less so than natural gas or hydropower. Most concerning, coal is extremely dirty, emitting more climate-change-causing gases, and far more air pollution than natural gas.

Solar and wind have grown rapidly in recent years due to their falling costs and environmental benefits. According to Lazard, the cost of solar combined with batteries, which would be as flexible as hydropower, is well below the cost of coal with its limited flexibility.

However, wind and solar tend to take up a lot of space, which has led to challenges in local approvals for new sites and transmission lines. In addition, the sheer number of new projects is overwhelming power system operators’ ability to evaluate them, leading to increasing wait times for new generation to come online.

What’s ahead?

Utilities have another consideration: Federal, state and local governments can also influence and sometimes limit utilities’ choices. Tariffs, for example, can increase the cost of critical components for new construction. Permitting and regulations can slow down development. Subsidies can artificially lower costs.

In our view, policies that are done right can help utilities move toward more reliable and cost-effective choices which are also cleaner. Done wrong, they can be costly to the economy and the environment.

Erin Baker, Distinguished Professor of Industrial Engineering and Faculty Director of The Energy Transition Institute, UMass Amherst and Paola Pimentel Furlanetto, Ph.D. candidate in Industrial Engineering and Operations Research, UMass Amherst

This article is republished from The Conversation under a Creative Commons license. Read the original article.

Despite federal challenges, two leading solar advocates are continuing their forward push

Read the full story at Inside Climate News.

The heads of Solar United Neighbors and Vote Solar explain how they’re handling adversity and where they see progress.

From EVs to HVAC, clean energy means jobs in Central Illinois

Read the full story at Canary Media.

After decades of layoffs and factory closings, the community of Decatur is also looking to clean energy as a potential springboard.

Located amid soybean fields a three-hour drive from Chicago, the city was long known for its Caterpillar, Firestone Tire, and massive corn-syrup factories. Industrial jobs have been in decline for decades, though, and high rates of gun violence, child poverty, unemployment, and incarceration were among the reasons the city was named a clean energy workforce hub funded under Illinois’ 2021 Climate and Equitable Jobs Act (CEJA).

Decatur’s hub, based at Richland Community College, is arguably the most developed and successful of the dozen or so established statewide. That’s thanks in part to TCCI Manufacturing, a local, family-owned factory that makes electric vehicle compressors. TCCI is expanding its operations with a state-of-the-art testing facility and an on-site campus where Richland students will take classes adjacent to the manufacturing floor. The electric truck company Rivian also has a factory 50 miles away.

As federal incentive rollbacks loom, could the heat pump revolution stall out?

Read the full story at Inside Climate News.

In August 2022, climate advocates heralded the passage of the federal Inflation Reduction Act (IRA), which provides billions of dollars in economic incentives to juice the adoption of heat pumps and other home electrification technologies. Three years later, economic data suggest the rollout has been stop and start. While heat pump sales surpassed gas furnaces nationwide for the first time in 2022, according to the International Energy Agency, a steep slump in the global market in 2023 and the first half of 2024 saw U.S. sales fall year over year.

There have since been signs of recovery. But advocates say that the mid-2020s must be a period of rapid adoption of heat pumps and other electric appliances to keep pace with international climate targets and avoid the most destructive climate scenarios. Nationally, residential energy consumption accounts for about 21 percent of energy use, according to the Department of Energy, and about 10 percent of total greenhouse gas emissions.

Rewiring America, a nonprofit focused on residential electrification, calculated in a 2023 report that Americans would need to swap tens of millions of gas-fueled home appliances for those powered by a plug between 2024 and 2026, above previous market trajectories, in order to stay on track.

That means “a three- to five-year runway period in which to accelerate market adoption at a manageable place,” the report concluded.

Rewiring America and similar outfits have leaned heavily into the economic incentives in the IRA to convince Americans to make the switch. This year was supposed to be a particularly crucial one, as states around the country launched federally funded programs to provide billions of dollars in rebates for homeowners, including up to $8,000 to install heat pumps.

Instead, advocates are now holding their breath as a Republican-controlled Congress decides what to do with former President Joe Biden’s landmark climate law. As the bill and its numerous provisions were passed with a simple majority vote through the congressional budget and reconciliation process, so too can they now be undone. And while many are reluctant to speculate on what may come, Kara Saul Rinaldi, president and CEO at AnnDyl Policy Group, a Washington, D.C.-based consulting firm focused on clean energy, predicts a significant rollback would have direct impacts on adoption.

The Integration of Carbon Capture, Utilization, and Storage (CCUS) in Waste-to-Energy Plants: A Review

Acampora, L., Grilletta, S., & Costa, G. (2025). The Integration of Carbon Capture, Utilization, and Storage (CCUS) in Waste-to-Energy Plants: A Review. Energies, 18(8), 1883. https://doi.org/10.3390/en18081883

Abstract

This paper provides a comprehensive review of the integration of carbon capture, utilization, and storage (CCUS) technologies in waste-to-energy (WtE) plants, specifically focusing on incineration, the most adopted process for managing residual waste fractions that cannot be recycled. The review examines the current CO2 capture technologies, including the widely used monoethanolamine (MEA) absorption method, and explores emerging alternatives such as molten carbonate fuel cells and oxyfuel combustion. Additionally, the paper discusses the management options for the captured CO2, exploring both storage (CCS) and utilization (CCU) options, with a focus on current storage projects involving CO2 from WtE plants and the potential for its use in sectors like chemicals, construction materials, and synthetic fuels. Currently, only four large-scale WtE plants worldwide have successfully implemented carbon capture technologies, with a combined capacity of approximately 78,000 tons of CO2 per year. However, numerous feasibility studies and pilot-scale projects are ongoing, particularly in northern Europe, with countries such as Norway, the Netherlands, Sweden, the United Kingdom, and Finland leading the way in the development of CO2 capture, storage, and utilization strategies within the WtE sector. The paper further discusses techno-economic issues for CCUS implementation, including energy demands and associated costs. The use of MEA systems in WtE plants leads to significant energy penalties, reducing plant efficiency by up to 40%. However, alternative technologies, such as advanced amines and calcium looping, could provide more cost-effective solutions by improving energy efficiency and reducing the overall costs. Life cycle assessment studies indicate that CCUS has the potential to significantly reduce CO2 emissions, but the achievable environmental benefits depend on factors such as energy consumption, process efficiency, and system integration. Overall, while the implementation of CCUS in WtE plants presents CO2 mitigation potential and may also be exploited to achieve other benefits, energy requirements and economic viability remain challenging.

Rewiring Britain for an era of clean energy

Read the full story in the New York Times (gift article).

National Grid, which owns the high-voltage electricity grid in England and Wales, is rebuilding it in a government-backed drive to attract investment and tackle climate change.

US renewable energy has tripled in a decade – but almost $8bn in projects now face cuts

Read the full story at Floodlight.

Renewable energy in the United States has surged to unprecedented levels, with the combined power generated by solar, wind and geothermal more than tripling over the past decade, according to a new report by a network of state environmental groups.

The growth has slashed harmful greenhouse gas emissions, made the nation’s energy system more resilient and prevented thousands of premature deaths from power plant pollution, according to the report by Environment America.

But this progress faces increasing resistance as President Donald Trump in his first 15 weeks in office has begun to dismantle federal policies and spending aimed at slowing climate change.

US to rescind rule that lowered solar, wind project fees on federal land

Read the full story from Reuters.

The Trump administration took steps to rescind a Biden-era regulation that lowered fees for renewable energy projects on federal lands, saying the rule unfairly favored development of wind and solar facilities.

The Interior Department said in a press release on Tuesday that the White House would review the planned rescission before it was formally proposed and opened to public comment.

Sustainable aviation fuel plans under fire over crop emissions

Read the full story at Trellis. See also from the World Resources Institute:

For business flights that can’t be avoided, there’s only one near-term mitigation option: Sustainable aviation fuel (SAF), a lower-carbon alternative to fossil jet fuel. 

Scaling SAF is the focus of the global strategy to decarbonize aviation, but researchers at the World Resources Institute (WRI) are urging a rethink of how the U.S. plans to do so. In a new report, the WRI team argues that when a more holistic approach is used to assess SAF production, two crops that are essential to scaling supply — corn and soy — are found to create more emissions than conventional fossil fuels.

Controlling starch levels in algae could have biotechnology and sustainability benefits

Read the full story from Uppsala University.

High-starch algae are important in biofuel production, as a feed supplement in agriculture and as an efficient way to bind carbon dioxide. Researchers have now found a new method to control starch storage in algae — a finding with potential applications in areas such reducing greenhouse gases.

States fight back against Trump’s wind and EV attacks

Read the full story at Canary Media.

In his first 100 days, President Donald Trump has antagonized the clean energy industry, putting crucial federal funding on ice, rolling back key regulations, and even coming after state climate laws.

This week, Democrat-led states took to the courts to begin fighting back.

On Monday, attorneys general from 17 states and Washington, D.C., filed a lawsuit aimed at protecting the clean energy sector that’s caught most of Trump’s ire: wind.

Trump’s Day 1 executive order paused the approval of new federal leases, permits, and loans for wind farms, and his EPA and Interior Department have gone on to revoke existing permits from one offshore project and order work to stop on another that had already begun at-sea construction.

The suit alleges the president doesn’t have the authority to single-handedly shut down the permitting process — and that his moves threaten thousands of jobs, billions of dollars in investments, and the country’s clean energy transition.

Opportunities for the renewable energy transition via reactive carbon capture

Kearns, E., Siegel, R. E., D’Alessandro, D. M., Lee, J.-W., & Berben, L. A. (2025). Opportunities for the renewable energy transition via reactive carbon capture. Chemical Society Reviews, 54(9), 4096–4103. https://doi.org/10.1039/D4CS00741G

Abstract

In this viewpoint article, we give a brief overview definition of reactive carbon capture (RCC) and its relationship to traditional carbon capture (CC) technologies. We also discuss possible short- and long-term roles for RCC in the transition to a renewable energy economy, along with opportunities for support and recent scientific progress in selected areas of the world.

How to talk to Republicans about offshore wind

Read the full story from Canary Media.

At a recent offshore wind industry conference, speakers had lots of advice on how to make the case for President Trump’s least favorite form of energy.