Renewables – solar, wind, biomass, geothermal, hydropower – are now 30% of total US electrical generating capacity, according to analysis of FERC’s mid-year data.
The Federal Energy Regulatory Commission (FERC)’s latest monthly “Energy Infrastructure Update” (with data through June 30, 2024), which was reviewed by the SUN DAY Campaign, also reported that June was the 10th month in a row in which solar was the largest source of new capacity. That puts solar on track to become the US’s second-largest source of capacity – behind only natural gas – within three years.
FERC says renewables were 99% of new generating capacity in June and 91% in H1 2024. 37 “units” of solar totaling 2,192 megawatts (MW) were placed into service in June along with one unit of hydropower (34 MW). Combined, they accounted for 98.9% of all new generating capacity added during the month. Natural gas and oil provided the balance: 20 MW and 5 MW, respectively. (Generating capacity is not the same as actual generation.)
During the first half of 2024, solar and wind added 13,072 MW and 2,129 MW, respectively. Combined with 212 MW of hydropower and 3 MW of biomass, renewables were 91.2% of capacity added. The balance consisted of the 1,100 Vogtle-4 nuclear reactor in Georgia plus 369 MW of gas, 11-MW of oil, and 3-MW of “other.”
Solar was 97% of new capacity in June and 77% during H1 2024. The new solar capacity added in the first half of 2024 was more than double the solar capacity (6,446 MW) added year-over-year. Solar accounted for 77.4% of all new generation placed into service in the first half of 2024.
New wind capacity in the same period accounted for most of the balance – 12.6% – which was slightly less than that added year-over-year (2,761 MW).
In June alone, solar comprised 97.4% of all new capacity added, followed by hydropower (1.5%). Solar has now been the largest source of new generating capacity for ten months straight: September 2023 – June 2024. For seven of those 10 months, wind took second place.
Solar plus wind are now more than a one-fifth of US generating capacity. The combined capacities of just solar and wind now constitute more than 20.7% of the US’s total available installed utility-scale generating capacity.
However, a third or more of US solar capacity is in the form of small-scale (e.g., rooftop) systems that isn’t reflected in FERC’s renewables data. Including that additional solar capacity would bring the share provided by solar + wind closer to a quarter of the US’s total.
Solar’s share of US generating capacity advances it to fourth place. The latest capacity additions have brought solar’s share of total available installed utility-scale (that is, >1 MW) generating capacity up to 9%, further expanding its lead over hydropower (7.8%). Wind is currently at 11.8%. With the inclusion of biomass (1.1%) and geothermal (0.3%), renewables now claim a 30% share of total US utility-scale generating capacity.
Installed utility-scale solar has now moved into fourth place – behind natural gas (43.3%), coal (15.8%), and wind – for its share of generating capacity after having recently surpassed that of nuclear power (8%).
Solar will soon become the second largest source of US generating capacity. FERC reports that net “high probability” additions of solar between July 2024 and June 2027 total 88,526 MW – an amount almost four times the forecast net “high probability” additions for wind (23,851 MW), the second fastest growing resource.
FERC also foresees growth for hydropower (1,240 MW), geothermal (400 MW), and biomass (90 MW). There’s no new nuclear capacity in FERC’s three-year forecast, and coal, natural gas, and oil are projected to contract by 20,542 MW, 3,106 MW, and 1,629 MW, respectively.
If FERC’s current “high probability” additions materialize, by July 1, 2027, solar will account for more than one-seventh (14.8%) of the nation’s installed utility-scale generating capacity. That would be greater than either coal (13.3%) or wind (12.7%), and substantially more than either nuclear power (7.5%) or hydropower (7.4%). That means the installed capacity of utility-scale solar would move into the No. 2 spot behind natural gas (40.3%).
Meanwhile, the mix of all renewables would account for 36.3% of total available installed utility-scale generating capacity – rapidly approaching that of natural gas – with solar and wind constituting more than three-quarters of the installed renewable energy capacity.
If small-scale solar systems are taken into account, within three years, total US solar capacity is likely to approach – and very possibly surpass – 300 GW. In turn, the mix of all renewables would then exceed 40% of total installed capacity, while the share of natural gas share would drop to about 37%.
Ken Bossong, the executive director of nonprofit research and educational organization SUN DAY Campaign, said:
With each passing month, renewables – led by solar – expand their contribution to the nation’s electrical capacity.
Growing from just a fraction of one percent a decade ago, solar is now nearly a tenth of US utility-scale generating capacity and poised to reach 15% within three years.
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As “extreme” weather events become more commonplace, the demand for reliable and portable energy continues to rise. In response to that growing demand for dependable off-grid power, Volvo has developed the new PU500 Battery Energy Storage System (BESS) designed to take electrical power when it’s needed most.
Designed to be deployable in a number of environments at a moment’s notice, the Volvo Energy PU500 BESS is equipped with approximately 500 kWh of usable battery capacity (up to 540 kWh total). More than enough juice, in other words, to power a remote construction site, disaster response effort, or even a music festival – anything that needs access to reliable electricity beyond a grid connection.
That’s great, but what sets the PU500 apart from other battery storage solutions is its integrated 240 kW DC fast charger.
“With an integrated CCS2 charger, the PU500 is designed to work with all brands of electric equipment, trucks, and passenger cars,” says Niklas Thulin, Head of BESS Product Offer at Volvo Energy. “This ensures that no matter what type of electric vehicle or machinery you rely on, the PU500 can provide the power you need, making it a truly flexible solution for any grid constrained site or location.”
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The integrated charger in the PU500 has the impressive ability to charge a heavy equipment asset (be that an electric semi truck or something like a wheel loader) in under two hours. Its on-board capacity allows to fully recharge up to 3 electric HD trucks or 20 electric cars per day, making it an incredibly versatile disaster response asset.
In a bold bid to combat the crippling air pollution crisis in its capital, Delhi, Indian lawmakers have begun high-level discussions about a plan to phase out gas and diesel combustion vehicles by 2035 – a move that could cause a seismic shift in the global EV space and provide a cleaner, greener future for India’s capital.
Long considered one of the world’s most polluted capital cities, Indian capital Delhi is taking drastic steps to cut back pollution with a gas and diesel engine ban coming soon – but they want results faster than that. As such, Delhi is starting with a city-wide ban on refueling vehicles more than 15 years old, and it went into effect earlier this week. (!)
“We are installing gadgets at petrol pumps which will identify vehicles older than 15 years, and no fuel will be provided to them,” said Delhi Environment Minister Manjinder Singh Sirsa … but they’re not stopping there. “Additionally, we will intensify scrutiny of heavy vehicles entering Delhi to ensure they meet prescribed environmental standards before being allowed entry.”
The Economic Times is reporting that discussions are underway to pass laws requiring that all future bus purchases will be required to be electric or “clean fuel” (read: CNG or hydrogen) by the end of this year, with a gas/diesel ban on “three-wheelers and light goods vehicles,” (commercial tuk-tuks and delivery mopeds) potentially coming 2026 to 2027 and a similar ban privately owned and operated cars and bikes coming “between 2030 and 2035.”
Electrek’s Take
Xpeng EV with Turing AI and Bulletproof battery; via XPeng.
Last week, Parker Hannifin launched what they’re calling the industry’s first certified Mobile Electrification Technology Center to train mobile equipment technicians make the transition from conventional diesel engines to modern electric motors.
The electrification of mobile equipment is opening new doors for construction and engineering companies working in indoor, environmentally sensitive, or noise-regulated urban environments – but it also poses a new set of challenges that, while they mirror some of the challenges internal combustion faced a century ago, aren’t yet fully solved. These go beyond just getting energy to the equipment assets’ batteries, and include the integration of hydraulic implements, electronic controls, and the myriad of upfit accessories that have been developed over the last five decades to operate on 12V power.
At the same time, manufacturers and dealers have to ensure the safety of their technicians, which includes providing comprehensive training on the intricacies of high-voltage electric vehicle repair and maintenance – and that’s where Parker’s new mobile equipment training program comes in, helping to accelerate the shift to EVs.
“We are excited to partner with these outstanding distributors at a higher level. Their commitment to designing innovative mobile electrification systems aligns perfectly with our vision to empower machine manufacturers in reducing their environmental footprint while enhancing operational efficiency,” explains Mark Schoessler, VP of sales for Parker’s Motion Systems Group. “Their expertise in designing mobile electrification systems and their capability to deliver integrated solutions will help to maximize the impact of Parker’s expanding METC network.”
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The manufacturing equipment experts at Nott Company were among the first to go through the Parker Hannifin training program, certifying their technicians on Parker’s electric motors, drives, coolers, controllers and control systems.
“We are proud to be recognized for our unwavering dedication to advancing mobile electrification technologies and delivering cutting-edge solutions,” says Nott CEO, Markus Rauchhaus. “This milestone would not have been possible without our incredible partners, customers and the team at Nott Company.”
In addition to Nott, two other North American distributors (Depatie Fluid Power in Portage, Michigan, and Hydradyne in Fort Worth, Texas) have completed the Parker certification.
Electrek’s Take
T7X all-electric track loader at CES 2022; via Doosan Bobcat.
With the rise of electric equipment assets like Bobcat’s T7X compact track loader and E10e electric excavator that eliminate traditional hydraulics and rely on high-voltage battery systems, specialized electrical systems training is becoming increasingly important. Seasoned, steady hands with decades of diesel and hydraulic systems experience are obsolete, and they’ll need to learn new skills to stay relevant.
Certification programs like Parker’s are working to bridge that skills gap, equipping technicians with the skills to maximize performance while mitigating risks associated with high-voltage systems. Here’s hoping more of these start popping up sooner than later.