Facilities Engineer

Revolutionizing fusion energy: Pacific Fusion aims for breakthrough in Albuquerque by 2030. Key points. * Pacific Fusion has broken ground on a $1 billion fusion energy campus in Albuquerque. * The project aims for net energy gain by 2030, producing 100 megajoules from 80 megajoules input. * This innovative approach utilizes 150 box-truck-sized capacitor modules instead of traditional lasers. * If successful, the project could significantly impact clean energy economics and global energy policies. Pacific Fusion is set to embark on a groundbreaking journey to redefine fusion energy production with its newly launched project in Albuquerque, New Mexico. On August 25, the company broke ground on a $1 billion campus designed to create a fusion energy reactor capable of producing more energy than it consumes. The ambitious goal is to achieve net energy gain by the year 2030, targeting an output of 100 megajoules for every 80 megajoules consumed. This concept represents a significant shift from previous fusion experiments, including those conducted at the National Ignition Facility (NIF) in California, where the overall energy consumption overshadowed the energy output. What sets Pacific Fusion apart from traditional fusion methods is its innovative design that utilizes 150 box-truck-sized modules. These modules, known as impedance-matched Marx generators, will generate a colossal electrical pulse thousands of times more powerful than lightning. Instead of relying on giant lasers or superconducting magnets, Pacific Fusion's design employs capacitors to directly target a pea-sized fuel capsule, initiating fusion in a fraction of a second. This pulsed magnetic inertial fusion method is designed to deliver about 12% of the initial energy stored in the capacitors directly to the fusion target. The efficiency of this approach is a game changer, marking a stark contrast to the NIF's method, where less than 1% of energy reached the target. The implications of Pacific Fusion's project extend far beyond just technical achievements in energy production. If successful, it could drastically alter the economics of clean energy, potentially lowering utility bills and reshaping climate policies around the globe. The operational principles aim to simplify the production process while ensuring a higher yield of energy output, thereby making fusion a more viable energy source. As the race for sustainable energy solutions heats up, the Pacific Fusion project represents a notable shift towards innovative thinking in fusion research. Should they meet their ambitious 2030 deadline, the resulting technology could pave the way for a new era of energy generation, demonstrating that the long-sought goal of practical fusion energy is finally within reach. This could lead to significant advancements in energy investment and a considerable impact on the global approach to energy consumption and environmental stewardship. August 29, 2026 at 08:40 AM Albuquerque, United States

Pacific Fusion breaks ground on $1B research, manufacturing facility in New Mexico. Pacific Fusion began construction on a $1 billion research and manufacturing campus in Albuquerque. The campus at Mesa del Sol will house Pacific Fusion's Demonstration System, designed to achieve net facility gain by 2030. That means it will produce more energy from fusion than the total energy initially stored in the machine. Net facility gain has never before been demonstrated and represents a key milestone on the path to commercial fusion power. The Demonstration System will also produce bursts of high-energy fusion output exceeding 100 megajoules, making it the only "high-yield" fusion facility under construction in the country. High-yield fusion refers to the capability to create certain conditions relevant to national security research. It provides a long-sought platform for the science required to maintain the U.S. nuclear stockpile without explosive nuclear testing. Underscoring its importance, the Department of Energy's National Nuclear Security Administration (NNSA) and Pacific Fusion announced a public-private partnership. Through the partnership, they will look to identify collaboration opportunities related to high-yield fusion, high-energy-density science, pulsed-power technologies, advanced materials, modeling and simulation, and other areas of shared national interest. "America pioneered the breakthroughs that brought fusion within reach. Pacific Fusion is focused on converting that scientific leadership into industrial capability and infrastructure that strengthens U.S. energy leadership and national security," Dr. Keith LeChien, co-founder and chief technology officer, said. "Today's groundbreaking shows that America can still build the hard things, and build them faster than any other country, including China." Pacific Fusion was founded in 2023 to deliver practical, affordable, and scalable fusion energy. Its technology advances decades of U.S. government investment at America's national laboratories, including Lawrence Livermore National Laboratory, Sandia National Laboratories, and Los Alamos National Laboratory. At the groundbreaking ceremony, federal, state and local leaders were in attendance along with technology and energy executives others. Among them was Don Tarry, president and CEO of Public Service Company of New Mexico (PNM). "At PNM, we're proud to welcome and support Pacific Fusion for bringing this kind of energy innovation to New Mexico and strengthening the state's leadership in energy, economic development, and advanced manufacturing," said Tarry. "Under the Energy Transition Act, we are looking ahead to new sources of carbon-free energy to meet the growing energy demands of the future. Fusion has the potential to help us achieve the state's ambitious objectives with reliable, affordable, and clean energy, and we're excited for the opportunity to help explore its potential as part of our future generation mix." Pacific Fusion's high-yield fusion facility could also expand the experimental capabilities available for science-based stewardship of the nuclear stockpile. "Public-private partnerships are essential to unleashing American innovation, strengthening our national security, and ensuring the United States wins the global fusion race," said NNSA Administrator Brandon Williams. Pacific Fusion's investment is also designed to establish the foundation for a broader fusion manufacturing industry in New Mexico.

Pacific Fusion breaks ground on Albuquerque machine targeting net facility gain by 2030. Key points * Pacific Fusion broke ground in Albuquerque on August 25, 2026, for a campus that will house its Demonstration System and manufacturing operations. [[1]] * The planned machine will use 156 impedance-matched Marx-generator modules to deliver more than 60 mega-amperes to a magnetized inertial-fusion target. [[2]] [[3]] * Net facility gain means fusion energy exceeds the energy stored in the driver; it does not mean the facility will produce net electricity for the grid. [[4]] * Independent coverage says the proposed system would still need substantially higher gain and a much faster shot rate before it could function as a power plant. [[5]] Pacific Fusion broke ground Tuesday, August 25, 2026, on a research and manufacturing campus in Albuquerque, New Mexico, where it plans to build a pulsed-power fusion machine designed to produce more fusion energy than the energy stored in the system. The company targets that milestone, known as net facility gain, by 2030. [[1]] The project is a demonstration facility, not a commercial power station. Pacific Fusion says the system is intended to generate roughly 100 megajoules of fusion energy per shot and operate at a rate of several shots per day. A commercial plant would need to run at about one shot per second and produce roughly five times more energy per shot, according to company executives quoted by TechCrunch. [[2]] A 156-module pulsed-power machine. Pacific Fusion's design is based on magnetized liner inertial fusion, a form of inertial confinement fusion that uses an intense electrical pulse to create a magnetic field and compress a small deuterium-tritium fuel target. The target is about the size of a pencil eraser, according to the company's description of the system. [[2]] The electrical driver will contain 156 modules. Each module is described as having 32 circular stages, with each stage containing 10 bricks made from two capacitors and a switch. The modules are intended to fire in synchronized pulses, producing more than 60 mega-amperes of current and storing approximately 80 megajoules of electrical energy. [[2]] [[3]] Pacific Fusion's core driver technology is an impedance-matched Marx generator, or IMG. The company says the architecture improves pulsed-power efficiency and supports a modular design. It has reported a one-third-scale test that delivered 440 gigawatts of peak electrical power in an 80-nanosecond pulse. That result measured the pulser, not fusion energy from a completed demonstration target. [[2]] [[6]] The facility's scientific role. The Albuquerque campus is planned to include the Demonstration System, target fabrication, engineering operations and scientific diagnostics. A Department of Energy document describing the proposed facility lists cryogenic targets, tritium fuel handling, a high-energy laser for x-ray backlighting and preheating, and instruments for high-energy-density and fusion research. [[7]] Pacific Fusion's user-program materials describe 17 configurable target-area diagnostics. Those instruments are intended to measure the implosion, energy yield and other conditions needed to evaluate scientific gain and net facility gain. [[8]] The company's technical case relies partly on simulations benchmarked against experiments at Sandia National Laboratories' Z facility. Its published technical work projects that increasing the current from the roughly 20-megaampere range demonstrated in relevant experiments toward 50 to 60 mega-amperes could reach ignition-scale conditions. Those projections remain simulations and extrapolations; the complete 60-megaampere demonstration machine has not yet operated. [[3]] [[9]] Net facility gain is not net electric power. Fusion terminology is central to the project. Scientific gain compares the energy released by the fusion reaction with the energy delivered directly to the fuel. Net facility gain compares fusion output with the energy initially stored in the machine. Pacific Fusion says its 2030 target uses the second definition. [[4]] Neither measure demonstrates that a power plant can send electricity to the grid. Pacific Fusion estimates that converting fusion energy into electricity, while supplying the plant's other equipment, would require a facility gain of roughly three to four. The company also lists plasma-facing materials, tritium supply, radiation shielding, target manufacturing and maintenance as requirements for affordable power. [[4]] Nature reported that the demonstration system is expected to use about 80 megajoules of stored electrical energy for each pulse. Even if the planned 100-megajoule fusion yield is achieved, the publication reported, the initial gain would be about one-fifth of the level needed for a power plant. [[5]] Federal partnership, but no announced construction funding. The groundbreaking coincided with a memorandum of understanding between Pacific Fusion and the National Nuclear Security Administration. The agreement establishes a framework for collaboration on high-yield fusion, high-energy-density science and related technical work, including national-security research. [[1]] The NNSA said specific projects and funding commitments would require separate agreements. The memorandum therefore establishes a cooperation framework but does not, on its face, disclose a federal commitment to finance construction or operations. [[1]] Pacific Fusion was founded in 2023 and has raised more than $900 million in milestone-based funding, according to testimony from company president Will Regan before the House Science, Space and Technology Committee. The company has said it expects to complete and validate a production-scale pulser module before building out the remaining modules for the demonstration system. [[10]] [[11]] The project's near-term technical tests are the production-scale module, full-system synchronization, target performance and diagnostic measurements. Even a successful net-facility-gain result would be a demonstration of a high-yield fusion experiment, not proof that Pacific Fusion has solved the repetition rate, energy conversion, materials and maintenance problems of a commercial plant. [[4]] [[5]] At the intersection of AI, tech, and markets. The stories that matter, in one email. Free - unsubscribe anytime.