M&A moves

Houston energy company to combine with Chesapeake in $7.4B deal

Houston-based Southwestern Energy will combine with Oklahoma City-based Chesapeake Energy. Photo via swn.com

Chesapeake Energy and Southwestern Energy are combining in a $7.4 billion all-stock deal to form one of the biggest natural gas producers in the U.S.

There have been a string of deals in the energy sector, including the nearly $60 billion acquisition of Pioneer Natural Resources by ExxonMobil and a $53 billion deal between Chevron and Hess.

Southwestern shareholders will receive 0.0867 shares of Chesapeake common stock for each outstanding share of Southwestern common stock at closing.

Chesapeake shareholders will own about 60 percent of the combined company, while Southwestern shareholders will own approximately 40 percent.

The transaction, valued at $6.69 per share, will create a company that has large scale acreage in the Appalachia region and Haynesville, Louisiana. It has current net production of approximately 7.9 Bcfe/d with more than 5,000 gross locations and 15 years of inventory.

“The world is short energy and demand for our products is growing, both in the U.S. and overseas," Chesapeake CEO Nick Dell’Osso said in a prepared statement Thursday. "We will be positioned to deliver more natural gas at a lower cost, accelerating America’s energy reach and fueling a more affordable, reliable, and lower carbon future."

The combined company will build a facility in Houston to supply lower-cost, lower carbon energy to meet increasing domestic and international liquefied natural gas demand.

The combined company will have a new name, but that has not yet been disclosed.

The boards of both companies have approved the deal, which is expected to close in the second quarter. It still needs approval from Chesapeake and Southwestern shareholders.

Shares of Southwestern, based in Houston, declined more than 3 percent before the market opened, while shares of Chesapeake, based in Oklahoma City, Oklahoma, rose slightly.

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A View From HETI

Rice University researchers have published new findings that shed new light on processes like photosynthesis and solar energy conversion. Photo by Jorge Vidal/Rice University.

Rice University scientists have used a programmable quantum simulator to mimic how energy moves through a vibrating molecule.

The research, which was published in Nature Communications last month, lets the researchers watch and control the flow of energy in real time and sheds light on processes like photosynthesis and solar energy conversion, according to a news release from the university.

The team, led by Rice assistant professor of physics and astronomy Guido Pagano, modeled a two-site molecule with one part supplying energy (the donor) and the other receiving it (the acceptor).

Unlike in previous experiments, the Rice researchers were able to smoothly tune the system to model multiple types of vibrations and manipulate the energy states in a controlled setting. This allowed the team to explore different types of energy transfer within the same platform.

“By adjusting the interactions between the donor and acceptor, coupling to two types of vibrations and the character of those vibrations, we could see how each factor influenced the flow of energy,” Pagano said in the release.

The research showed that more vibrations sped up energy transfer and opened new paths for energy to move, sometimes making transfer more efficient even with energy loss. Additionally, when vibrations differed, efficient transfer happened over a wider range of donor–acceptor energy differences.

“The results show that vibrations and their environment are not simply background noise but can actively steer energy flow in unexpected ways,” Pagano added.

The team believes the findings could help with the design of organic solar cells, molecular wires and other devices that depend on efficient energy or charge transfer. They could also have an environmental impact by improving energy harvesting to reduce energy losses in electronics.

“These are the kinds of phenomena that physical chemists have theorized exist but could not easily isolate experimentally, especially in a programmable manner, until now,” Visal So, a Rice doctoral student and first author of the study, added in the release.

The study was supported by The Welch Foundation,the Office of Naval Research, the National Science Foundation CAREER Award, the Army Research Office and the Department of Energy.

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