Aalo Atomics, Inc.

Transaction Summary

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INVESTMENT THESIS

The artificial intelligence revolution has precipitated an unprecedented power crisis. With US data center electricity demand projected to grow by 100 GW over the next five years, traditional power sources are failing to meet the need for reliable, carbon-free baseload power. Renewable sources lack the necessary consistency, and natural gas faces strict carbon constraints. Aalo Atomics addresses this critical bottleneck through the Extra-Modular Reactor (XMR). By utilizing a factory-manufactured approach rather than on-site construction, Aalo reduces deployment timelines from decades to months. Leveraging proven uranium dioxide (UO₂) fuel and sodium cooling, Aalo offers the only scalable nuclear solution capable of meeting the immediate energy demands of hyperscale AI data centers without the supply chain risks associated with HALEU fuel.

COMPANY SUMMARY

Aalo Atomics is an advanced nuclear company manufacturing 50 MW modular nuclear power pods specifically designed for the AI infrastructure market. Unlike traditional nuclear projects defined by custom civil engineering, Aalo treats reactors as products—manufactured in factories, shipped as integrated modules, and assembled on-site. The company targets a gigawatt-scale manufacturing capacity by the end of 2026.

Leadership Team

• Matt Loszak (Co-Founder & CEO): Y Combinator alum, founded Humi, a B2B SaaS company with 150 employees that achieved a $150M exit.
• Yasir Arafat (Co-Founder & CTO): Ph.D. in Nuclear Engineering from NC State. Formerly the Lead Reactor Engineer at Westinghouse Electric Company, where he created the eVinci microreactor program.
• Advisors: Includes Dr. Charles Forsberg (MIT), Admiral John Richardson (Former US Navy CNO), and Dr. Mark Peters (Former Director, Idaho National Laboratory).

TECHNOLOGY & PRODUCT HIGHLIGHTS

The Aalo Pod is a 50 MW modular reactor system composed of five independent 10 MW units. The design prioritizes "passive safety," utilizing physics rather than active mechanical systems to ensure safety. In the event of a shutdown, the reactor cools itself via natural circulation without requiring backup power or operator intervention—a capability validated by historical tests at EBR-II.

Key Technological Advantages:

• Proven Fuel Source: Uses standard Uranium Dioxide (UO₂) with 5–8% enrichment (LEU). This leverages the existing mature supply chain used by commercial reactors for 70+ years and avoids the HALEU supply bottlenecks crippling competitors like Oklo and TerraPower.
• Sodium Liquid Metal Cooling: Operates at atmospheric pressure (eliminating explosion risks) with high thermal conductivity, enabling a compact core design.
• Factory Deployment: Reactors are built on assembly lines. Total deployment timeline is 12–18 months, compared to 7–15 years for traditional nuclear plants.
• Aalo-X: A zero-power critical facility is currently under construction at Idaho National Laboratory (INL), with criticality targeted in ~96 days.

MARKET OPPORTUNITY

The convergence of AI scaling and energy transition has created a $500+ billion market opportunity. Hyperscale data centers are willing to pay premiums for speed and reliability, as power availability has become the primary constraint on AI development.

• Demand: 100 GW of additional capacity needed in the US by 2030.
• Stranded Assets: Hyperscalers face delays on multi-billion dollar data center projects due to grid constraints.
• Pipeline: Aalo has secured LOIs and MOUs totaling approximately $120 billion in potential contract value from hyperscale cloud providers and AI infrastructure companies.

BUSINESS MODEL & TRACTION

Aalo operates a vertically integrated model offering flexibility to customers through:

• Power Purchase Agreements (PPAs): 15-25 year contracts generating $50–150M annually per pod.
• EPC (Turnkey Delivery): Direct sale of reactor facilities for $300–500M per pod.
• Operations & Maintenance (O&M): Recurring revenue of $10–20M annually per pod.

Current Traction:

• First reactor vessel completed; fuel assemblies in production.
• Partnership with Idaho National Laboratory (INL) for the Aalo-X facility.
• First-ever DOE authorization pathway for an advanced reactor, enabling faster regulatory approval than the traditional NRC Part 50 process.

FINANCING SUMMARY

Aalo has raised $133.26M in equity prior to this SAFE round.

• Seed (Apr 2023): $6.26M ($34M Post-Money)
• Series A (Jul 2024): $27.00M ($90M Post-Money)
• Series B (Aug 2025): $100.00M ($450M Post-Money)
• Current Round: $40M SAFE at $2.0B Cap

Notable Investors:

COMPETITORS

Aalo competes with other advanced nuclear firms but differentiates via its specific focus on the data center market and its avoidance of HALEU fuel dependency.

• Oklo (NYSE: OKLO): Developing the 15 MW Aurora. Relies on HALEU fuel which faces severe supply shortages. Site-built rather than factory-scaled.
• TerraPower: Backed by Bill Gates. Developing the 345 MW Natrium reactor. Too large for typical data center deployments and relies on HALEU.
• Kairos Power: Developing molten salt reactors. Technology is unproven at commercial scale compared to Aalo’s sodium cooling history.
• X-energy: Developing the Xe-100 high-temperature gas-cooled reactor using TRISO fuel. Relies on HALEU fuel facing supply constraints. Different technology approach with pebble bed design.
• Radiant Nuclear: Developing the Kaleidos 1 MWe portable microreactor. Far too small for data center applications—would require 100+ units for typical deployments. Targets remote/military applications rather than hyperscale power.
• Valar Atomics: Advanced nuclear startup developing modular reactor technology. Less publicly disclosed technical details, but competing in the emerging modular nuclear space.

RISKS & CHALLENGES

• Regulatory Timeline: While the DOE pathway is streamlined, nuclear regulation remains complex. Delays in NRC commercial approval (targeted for 2028) could impact revenue.
• First-of-a-Kind Risk: Although the underlying physics are proven, integrating them into a new factory-built form factor carries execution risk.
• Public Perception: Despite passive safety features, nuclear energy faces public scrutiny that could impact site selection.
• Capital Intensity: Scaling to gigawatt-level manufacturing requires significant future capital expenditure beyond the current rounds.
• Management Team & Execution: Founders are first-time nuclear power plant operators. Successfully scaling from prototype to commercial deployment requires deep operational expertise in a highly regulated industry with little tolerance for error.

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Contact Information

If you have any questions or would like more information about this offering,

Alfred Ritter
alfred@montyam.com
415.483.9630