Heron replaces traditional, mechanical transformers with solid-state power electronics. This is not just an efficiency upgrade; it transforms the grid from a static, mechanical system into a dynamic, software-defined network, enabling bidirectional flow and resilience from the edge.

Radically departing from the traditional model of massive, on-site construction, Radiant is designing portable micro-reactors to be mass-produced in a factory. This "reactor as a product" approach aims to deliver power solutions that can be shipped and activated in 48 hours.

As the explosive growth of electric vehicles moderates, the highly scaled manufacturing capacity and supply chains for power electronics can be repurposed. This existing momentum can be redirected to meet new demand for modernizing the grid, powering data centers, and driving industrial electrification.

The energy crisis facing data centers creates an urgent, high-value early market for grid-scale solutions. Solving their need for clean, 24/7 power acts as a catalyst for developing and funding technologies that will eventually serve the entire grid, making them a critical first customer.

The biggest challenge in energy isn't just generating power, but moving it efficiently. While transmission lines move power geographically, batteries "move" it temporally—from times of surplus to times of scarcity. This reframes batteries as a direct competitor to traditional grid infrastructure.

The rise of rooftop solar, local batteries, and on-site generation means power is increasingly produced closer to where it's used. This trend is devaluing long-distance transmission infrastructure and suggests the future grid will be far more decentralized and localized.

Unlike traditional nuclear power which involves building massive, site-specific projects, Radiant is treating reactors as mass-producible products. Their focus on smaller, mobile 1MW units prioritizes rapid deployability and mobility over raw power scale, enabling them to serve off-grid and remote use cases.

To secure the immense, stable power required for AI, tech companies are pursuing plans to co-locate hyperscale data centers with dedicated Small Modular Reactors (SMRs). These "nuclear computation hubs" create a private, reliable baseload power source, making the data center independent of the increasingly strained public electrical grid.

To circumvent grid connection delays, infrastructure costs, and potential consumer rate impacts, data centers are increasingly opting for energy independence. They are deploying on-site power solutions like gas turbines and fuel cells, which can be faster to implement and avoid burdening the local utility system.