The Power of Siberia 2 pipeline is planned to stretch approximately 2,600 kilometers, aimed at transporting up to 50 billion cubic meters of gas each year from western Siberia, passing through eastern Mongolia to northern China. Talks between Gazprom and China National Petroleum Corporation have seen a binding memorandum go back and forth, adding layers of uncertainty. The pipeline hasn’t been built yet, which adds to the confusion.
Nonetheless, China’s 15th Five-Year Plan outlines provisions for new energy facilities and transmission networks, reflecting the green-lighting of preliminary work on what’s referred to as the China-Russia Central Line. Here, “preliminary work” involves committing to feasibility studies, aligning agency expectations, and canning projections for future investment.
There’s an interesting historical context to consider. While this pipeline connects to semiconductor manufacturing, its mechanism is broad and eco-friendly. Semiconductor production requires a host of resources, like electricity and ultra-pure water, alongside strict environmental controls. Even a minor power glitch can wipe out millions in manufacturing costs. In an example, Taiwan’s semiconductor manufacturer will use around 27,456 gigawatt-hours of electricity in 2024—similar to Connecticut’s annual needs—yet natural gas only contributes a small fraction. Electricity is crucial, particularly since some of it in northern China comes from gas-fired power plants that depend on a steady fuel supply.
The use of industrial gases is also notable. Contemporary factories consume large quantities of nitrogen and hydrogen. For instance, they require thousands of cubic meters per hour of nitrogen and substantial amounts of hydrogen for different processes. Much of this hydrogen derives from natural gas, and any economic or safety issues regarding gas supplies will directly impact hydrogen production costs and the entire supply chain. Pipelines are essential to chip manufacturing, and official documents detail these operational necessities.
The Chinese government is aware of these interdependencies. The 15th Five-Year Plan is striking for its inclusion of natural gas networks alongside integrated circuit manufacturing. This blueprint targets advanced manufacturing capabilities, key technological equipment, and broader improvements. They describe it as a “full-chain breakthrough” achieved through “non-traditional measures,” hinting at a candid acknowledgment that typical strategies aren’t enough. This full-chain approach considers issues within the chip sector as critical vulnerabilities.
Reflections on the Past
History offers interesting parallels here. Declassified CIA intelligence estimates from 1982 on Soviet pipelines to Western Europe revealed how big pipeline projects intertwine technology, finance, and long-term dependencies. These create political challenges; buyers might gain energy security but at the cost of reduced influence, while sellers acquire hard currency yet lose maneuverability. Once established, pipelines act like “frozen options”—substantial investments that shape future policies and create pressure to maintain them.
Power of Siberia 2, which is intended to carry the same volume as the operational Nord Stream 2, links Russia’s energy resources with China’s growing demands. However, this scaling up might raise concerns about increased import concentration. The irony here is that while trying to sidestep one vulnerability, reliance on another might grow.
Amid geopolitical tensions, onshore pipelines might seem like sound strategy. Yet the same pipeline could also turn into a liability with fluctuating situations. Chinese negotiators appear to approach these dynamics with unusual patience, perhaps understanding that the pipeline’s potential value remains greater while it’s still on paper. They’re looking for both options and leverage.
Balancing Energy and Technology
Interestingly enough, the limiting factors for China’s semiconductor sector aren’t solely energy-related—it’s also about specialized manufacturing equipment like extreme ultraviolet lithography, which depends on a stable gas supply. The influence of pipeline infrastructure might extend to reducing risks for chip manufacturing clusters. For instance, state governments might engage in negotiations regarding the reliability of industrial gas supplies, power grids, and environmental regulations. While the new main line won’t resolve all concerns, it might make some answers more accessible, allowing planners to commit more confidently.
Thus, advancing the central line becomes more than infrastructure; it’s politically charged and involves security concerns alongside industrial strategies. This plan acknowledges external dependencies as vulnerabilities, necessitating a dual approach of redundancy and local capacity building. A country that manages to navigate this feedback loop effectively might establish a stronger foundation than simply winning trade disputes; it could alter the conditions for future conflicts, albeit changes that take time to materialize, starting with this preparatory work.
