In this article, Charles Goulding and Anthony Palumbo explore Baker Hughes’ US$13.6 billion acquisition of Chart Industries, analyzing its impact on energy infrastructure, clean technology, thermal and cryogenic systems, and digital industrial applications, with a focus on the expanding role of additive manufacturing in global energy innovation.
Introduction: Merging Innovation and Energy Infrastructure
On July 29, 2025, Baker Hughes announced its US$13.6 billion all-cash acquisition of Chart Industries at US$210 per share. The deal expands Baker Hughes’ footprint in key markets such as liquefied natural gas (LNG), cryogenic processing, and thermal management for high-performance computing and data centers. It also marks a broader strategic shift beyond traditional oilfield services, reinforcing the company’s focus on clean energy and digital infrastructure.
The merger reflects a growing convergence between energy and industrial manufacturing, driven by advanced production technologies like additive manufacturing (AM). Baker Hughes has already scaled AM into full production, using laser powder bed fusion (LPBF) and generative design to fabricate complex, high-performance components. By acquiring Chart Industries, known for its cryogenic tanks, heat exchangers, and modular systems, the company is poised to expand AM integration into thermal and fluid engineering applications. This alignment positions the combined entity to accelerate product development, streamline supply chains, and deploy next-generation energy technologies at scale.
Company Profiles: Expertise and Market Positioning
Baker Hughes: Leading the Energy Technology Transition
Headquartered in Houston, Texas, Baker Hughes (NYSE: BKR) is one of the world’s largest energy technology and industrial services companies. It operates in more than 120 countries and employs approximately 57,000 people. In 2024, the company reported US$27.8 billion in revenue and US$3 billion in net income, reflecting an 11% profit margin. Its portfolio spans LNG infrastructure, hydrogen and geothermal technologies, carbon capture systems, and industrial services aligned with global decarbonization efforts.
Baker Hughes has advanced additive manufacturing (AM) from a prototyping tool to a full-scale production platform. Using laser powder bed fusion (LPBF), the company produces complex, high-performance components with shorter lead times and enhanced design flexibility. Its integrated digital workflows and simulation-based validation processes help ensure quality and repeatability across an expanding AM inventory. These capabilities support localized, scalable manufacturing and improve supply chain resilience across energy-sector applications.
Chart Industries: Cryogenic and Clean Tech Infrastructure
Chart Industries (NYSE: GTLS) designs and manufactures cryogenic equipment, process systems, and heat-transfer technologies. Its solutions support LNG, industrial gas, and hydrogen infrastructure across global markets. The company employs approximately 11,900 people and operates through a network of engineering, manufacturing, and service facilities. In 2024, Chart reported US$4.1 billion in revenue, with strong margins across its business segments.
A key manufacturing asset is the company’s “Teddy 2” facility in Theodore, Alabama, which is dedicated to high-throughput production of cryogenic tanks for LNG and hydrogen applications. As one of Chart’s largest capital investments, the facility is optimized for precision fabrication, assembly, and testing of large pressure vessels, positioning the company to meet growing demand for clean-fuel storage solutions.
Chart’s broader product line includes modular gas systems, brazed aluminum heat exchangers, and custom tanks designed for cryogenic and high-pressure environments. These technologies enable the safe and efficient transport, storage, and conversion of liquefied gases. As the energy transition accelerates, Chart’s expertise in thermal and fluid systems makes it a key player in scaling hydrogen infrastructure, carbon capture, and advanced gas systems.
Inside the Deal: Strategic Intentions and Sector Integration
Although Baker Hughes’ US$13.6 billion offer was lower than the US$19 billion stock-based deal previously agreed with Flowserve, its all-cash structure and 22% equity premium made it a more compelling proposal. Chart’s board ultimately deemed the bid superior, prompting Flowserve’s withdrawal and triggering a US$266 million termination fee. The decision reflects both urgency and confidence in Baker Hughes’ long-term strategic value.
The acquisition is projected to deliver US$325 million in annual cost synergies within three years, driven by integration efficiencies, streamlined supply chains, and savings across SG&A and R&D functions.
Strategic Growth Levers
- LNG and Cryogenics: Chart’s cryogenic expertise and established role in LNG infrastructure strengthen Baker Hughes’ capacity to store and process liquefied gases amid growing global demand.
- Hydrogen Infrastructure: Chart’s modular systems and liquefaction technologies align with Baker Hughes’ hydrogen strategy and broader ambitions in clean energy.
- AI & Data Center Cooling: As AI workloads and data infrastructure expand, Chart’s cryogenic cooling systems offer a critical entry point into high-performance thermal management markets.
Additional Strategic Considerations:
- Lifecycle Services: The combined company can better leverage aftermarket and digital services . Chart’s “Uptime” platform, paired with Baker Hughes’ service network, supports high-margin, recurring revenue streams.
- Financial Profile: The transaction is expected to be earnings-accretive within the first full year, with margin expansion and solid returns on capital. Baker Hughes secured bridge financing while maintaining balance sheet flexibility.
- Business Diversification: The deal significantly expands Baker Hughes’ Industrial & Energy Technology (IET) division, raising its share of total revenue to nearly 47% and accelerating the company’s shift toward service- and technology-driven growth.
Manufacturing Innovation: The 3D Printing Advantage
Baker Hughes has scaled additive manufacturing (AM) from prototyping to full industrial production across its global energy operations. To date, the company has produced over 150,000 parts across 1,500 validated designs using techniques such as laser powder bed fusion (LPBF) and direct metal laser melting (DMLM). Each build is digitally traceable and supported by simulation-driven validation and integrated post-processing workflows.
A notable example is the Debris Barrier, a sand-control screen used in downhole completions. Originally machined from nickel barstock, the component was reengineered using LPBF in a high-strength Ni718 alloy, reducing lead time from over 15 weeks to just four. The redesign also enables batch printing of 16 units in 42 hours, significantly improving throughput.
The Formulation-Testing Buffer Tube, an important element in wireline formation testing tools designed to capture downhole fluids, was similarly transformed. The original seven-part welded assembly was remodeled into a single 3D printed module with embedded flow channels. This consolidation eliminated weld joints, reduced weight, and improved service life and reliability.
Baker Hughes has also applied AM to advanced valve designs. Its Variable Resistance Trim (VRT) is printed as a fully integrated unit, eliminating potential leak paths and improving cavitation resistance. Meanwhile, the Masoneilan 74000 Series Erosion Control Valve uses generative design to fuse an Inconel base with a tungsten-carbide-rich surface layer, enhancing erosion resistance in high-stress refining environments.
Strategic Benefits of Additive Manufacturing
- Parts Consolidation: AM enables multi-part assemblies to be replaced by single, integrated components, reducing failure points and simplifying logistics.
- Lead Time Reduction: Critical components can be produced in weeks or days instead of months, accelerating deployment timelines.
- Improved Reliability: Custom geometries and advanced metallurgy deliver higher performance in extreme environment.
- Digital Traceability & Quality Control: Every build is validated via simulation and digitally tracked to ensure repeatability and traceability.
These capabilities position Baker Hughes to enhance Chart Industries’ cryogenic, thermal, and fluid-handling platforms. From rapid prototyping to spare parts and tooling, AM supports faster, more agile manufacturing across the combined company’s energy infrastructure portfolio.
Outlook: Additive Manufacturing in Future Energy Systems
The global additive manufacturing (AM) market is growing rapidly as demand rises for customized, high-performance production. Forecasts project the market will expand from US$20.4 billion in 2023 to as much as US$88.3 billion by 2030, underscoring AM’s increasing strategic value in complex, precision-driven industries.
In the energy sector, AM is transitioning from a niche process to a core capability. Baker Hughes’ production-ready AM systems, spanning design validation, LPBF technologies, and integrated post-processing, are well positioned to extend across Chart Industries’ cryogenic and thermal platforms.
At large-scale facilities like Chart’s Teddy 2 plant, AM could support agile tooling, on-demand spare parts, and embedded instrumentation. These applications would reduce lead times, minimize physical inventory, and enable just-in-time manufacturing for high-throughput production lines.
Advances in materials science further extend AM’s reach. Graded metallurgical structures, such as those combining Inconel and tungsten carbide, offer enhanced performance in cryogenic, high-pressure, and corrosive environments. These make AM increasingly viable for LNG, hydrogen, and thermal systems.
By combining additive capabilities with Chart’s engineered systems, the merged company can unlock localized, on-demand manufacturing, even in remote or supply-constrained regions. As the global energy transition accelerates, additive manufacturing offers a direct path to modular, decarbonized infrastructure supported by leaner, more adaptive supply chains.
The Research & Development Tax Credit
The now permanent Research and Development (R&D) Tax Credit is available for companies developing new or improved products, processes, and/or software. 3D printing can help boost a company’s R&D Tax Credits. Wages for technical employees creating, evaluating, and revising 3D printed prototypes are typically eligible expenses toward the R&D Tax Credit. Similarly, when used as a method of improving a process, time spent integrating 3D printing hardware and software can also be an eligible R&D expense. Lastly, when used for modeling and preproduction, the costs of filaments consumed during the development process may also be recovered.
Whether it is used for creating and testing prototypes or for final production, 3D printing is a great indicator that R&D Credit-eligible activities are taking place. Companies implementing this technology at any point should consider taking advantage of R&D Tax Credits.
Conclusion: Manufacturing the Energy Transition
This merger represents more than a business expansion. It marks a shift toward embedding advanced manufacturing at the core of energy innovation. By uniting Chart’s cryogenic and infrastructure expertise with Baker Hughes’ additive manufacturing and digital capabilities, the combined company is positioned to redefine how critical energy systems are designed, built, and delivered.
As the energy transition accelerates, additive manufacturing offers a practical path to scalable, decarbonized, and locally adaptable solutions. The Baker Hughes–Chart alliance brings together complementary strengths in engineering and digital production, forming a platform for resilient, next-generation infrastructure.
Additive manufacturing may not disrupt the energy sector overnight, although it is already enabling a more agile, efficient, and forward-looking approach to building the systems that will power the future.
