Clean Energy

Event Core The Canadian government has unveiled an ambitious roadmap for a "nuclear renaissance," planning to construct up to 10 new reactors by 2040. This strategic expansion utilizes a dual-track approach: scaling up existing large-scale facilities in Ontario while aggressively deploying Small Modular Reactors (SMRs). Marking the country's most significant nuclear expansion in decades, the plan aims to satisfy the surging power appetite of AI data centers and industrial electrification while adhering to net-zero mandates. ▶ Energy Anchors for Compute: As Generative AI drives exponential growth in power consumption, nuclear is shifting from the periphery to the core of strategic infrastructure, serving as the only viable zero-carbon baseload for massive compute clusters. ▶ The SMR Pivot: By prioritizing Small Modular Reactors, Canada aims to bypass the prohibitive capital costs and decade-long lead times of traditional gigawatt-scale plants, positioning itself as a global leader in modular energy deployment. Bagua Insight While Silicon Valley remains obsessed with GPU clusters, energy sovereignty is emerging as the invisible ceiling of the AI race. Canada’s nuclear push is less about traditional environmentalism and more about industrial realpolitik. By securing a stable, carbon-free energy supply, Canada is signaling to global hyperscalers that it offers the most critical resource for the next generation of LLM training: reliable, high-density power. Leveraging its vast uranium reserves and CANDU engineering legacy, Canada is betting that a successful SMR rollout will transform the country into North America’s premier "compute-energy" hub, potentially outperforming energy-constrained European markets. Actionable Advice For AI infrastructure developers, site selection should prioritize proximity to Ontario’s nuclear hubs, which are poised to become "gold zones" for data centers. For energy tech firms and investors, the SMR supply chain—specifically modular manufacturing, advanced fuel fabrication, and specialized cooling systems—represents a multi-decade growth cycle. Strategic partnerships with Canadian nuclear entities should be prioritized to gain early access to this emerging ecosystem.

Quaise Energy has successfully drilled 100 meters into hard granite using high-energy millimeter-wave technology, proving the viability of a bit-less approach to unlocking universal deep geothermal energy. ▶ Vaporizing the Barrier: By utilizing gyrotron-powered electromagnetic waves to sublimate rock, Quaise bypasses the thermal and mechanical constraints that have historically capped drilling depths and stalled deep-earth exploration. ▶ Repurposing the Grid: The technology targets depths of up to 20km to access supercritical fluids, offering a plug-and-play carbon-free replacement for aging coal and gas power plants using existing infrastructure. Bagua Insight This is the "SpaceX moment" for geothermal energy. For decades, geothermal has been a niche regional resource. Quaise is attempting to decouple energy production from specific tectonic locations, turning geothermal into a scalable, global baseload solution. The use of fusion-grade gyrotrons represents a brilliant cross-pollination of hard-tech disciplines, potentially delivering fusion-level energy density without the stability headaches of plasma physics. If they can scale this to 20km, the concept of "energy scarcity" becomes obsolete. Actionable Advice Strategic investors should monitor the "Deep Tech Energy" sector as it matures from lab prototypes to field-scale infrastructure. For the Oil & Gas industry, this technology represents the most viable path to repurposing a century's worth of drilling expertise and workforce for a post-carbon economy. Firms should evaluate M&A opportunities in high-power vacuum electronics and specialized ceramic materials required for wave-guiding in extreme environments.