China, where coal-based blast furnaces still account for about 90 percent of steel production and roughly 15 percent of national CO2 emissions, is expanding its hydrogen strategy beyond transport into sectors including steelmaking, shipping, aviation, and chemicals.
The initiative, announced in March by three Chinese government ministries, introduces incentives for five urban clusters to advance hydrogen deployment, including projects aimed at integrating low-carbon hydrogen into steelmaking processes. According to reporting by Eco Business, the program represents an expanded “version 2.0” of China’s earlier 2021 hydrogen policy framework, which primarily focused on fuel cell vehicles and transport infrastructure.
The policy broadening reflects a growing recognition that transportation alone is unlikely to absorb the scale of hydrogen production capacity China is seeking to build. Industrial sectors such as steel, ammonia, methanol, and heavy transport offer significantly larger long-term demand potential, particularly as China attempts to balance industrial competitiveness with carbon reduction targets.
Financially, however, the scale of support remains relatively modest compared with previous clean energy transitions. The program allocates up to 8 billion yuan, or approximately 1.17 billion US dollars, over four years. By comparison, China reportedly spent more than 32 billion yuan supporting electric vehicle development between 2016 and 2020. The disparity highlights a recurring challenge for hydrogen policy globally: governments increasingly acknowledge hydrogen’s strategic importance, yet large-scale commercial deployment still lacks the level of sustained subsidy support that accelerated battery-electric technologies.
A central objective of the initiative is reducing hydrogen costs. Current end-user prices in China range from 35 to 50 yuan per kilogram, while policymakers aim to lower costs to 25 yuan per kilogram nationally by 2030 and potentially to 15 yuan per kilogram in regions with strong renewable energy resources. Yet even those targets may fall short for widespread adoption in hydrogen metallurgy, where analysts generally view 10 to 15 yuan per kilogram as the threshold for economic competitiveness against coal-based steelmaking routes.
That cost gap remains one of the most significant structural barriers to hydrogen-based steel production worldwide. Hydrogen direct reduction and hydrogen-electric arc furnace systems can substantially lower emissions compared with conventional blast furnaces, but their economics remain highly sensitive to renewable electricity prices, electrolyzer costs, and infrastructure availability. In most major steel-producing markets, green hydrogen still struggles to compete with coal without carbon pricing mechanisms, policy mandates, or premium markets for low-carbon steel.
China’s largest steel producer, Baowu Steel, has emerged as an early industrial mover in this transition. At the end of 2025, the company launched a hydrogen-electric arc furnace production line with annual capacity of 1 million tons and announced plans for the Yangjiang hydrogen hub, a project valued at 11.9 billion yuan that includes dedicated hydrogen pipeline infrastructure. Another hydrogen-based steelmaking facility is already operating under HBIS in Hebei Province.
These projects demonstrate that industrial hydrogen deployment in China is progressing beyond conceptual pilot stages. However, their scale remains small relative to the country’s overall steel production capacity, which exceeds one billion tons annually. Even a 1 million ton hydrogen-based facility represents only a fraction of national output, underscoring the distance between demonstration projects and systemic industrial transformation.
Infrastructure constraints further complicate the transition. Hydrogen metallurgy requires not only low-cost hydrogen production but also reliable transport, storage, and integration into existing steelmaking operations. China’s investment in dedicated hydrogen pipeline networks suggests policymakers increasingly recognize that industrial hydrogen adoption depends as much on infrastructure buildout as on production subsidies.
The issue of market demand may prove equally decisive. Experts cited in discussions surrounding the policy describe the initiative as a catalyst rather than evidence of an imminent commercial shift. While steelmakers are building low-carbon production capability, large-scale demand for green steel remains uncertain, particularly in cost-sensitive sectors such as construction and manufacturing where price premiums are difficult to sustain without regulatory intervention or procurement mandates.
That challenge is not unique to China. Research from Global Energy Monitor, cited by GMK Center, indicates that the global steel sector’s transition remains constrained by the enduring economic advantage of blast furnace production and insufficient investment in low-emission alternatives. Despite rising decarbonization commitments, global blast furnace capacity is still projected to increase by 88 million tons by 2035, suggesting that conventional coal-based steelmaking infrastructure continues to attract investment even as governments promote green industrial strategies.
China’s hydrogen expansion therefore reflects a broader industrial balancing act. Policymakers are attempting to reduce emissions intensity while preserving industrial scale, energy security, and export competitiveness. Hydrogen offers a potential pathway for sectors where direct electrification is difficult, but the economics remain highly dependent on future declines in renewable electricity and electrolyzer costs, as well as the emergence of stronger market incentives for low-carbon industrial materials.
For now, China’s hydrogen strategy appears less focused on immediate mass deployment and more on establishing industrial footholds, testing infrastructure models, and reducing long-term technology costs.
