01 · POWER
Firm electricity where the grid is constrained.
Designed around multi-megawatt industrial loads that value reliability, long project life, and reduced dependence on continuous fuel logistics.
Terraquint · NOX
Nuclear energy, wherever power is needed.
Terraquint is developing NOX, a 6 MWe-class high-temperature microreactor platform for distributed power, industrial heat, and a future path to synthetic fuels.
Development-stage platform
HTGR architecture
Factory-first deployment thesis
6 MWeMaximum net electrical target
HTGRHigh-temperature gas-cooled reactor direction
HALEU + TRISOSelected fuel family
HeliumPrimary coolant
The platform
A compact nuclear energy module for the point of demand.
NOX is being designed as distributed industrial-energy infrastructure: standardized enough to manufacture repeatedly, flexible enough to interface with real customer sites, and high-temperature enough to serve more than electricity alone.
02 · HEAT
High-temperature process energy.
The architecture preserves an intermediate nuclear/process boundary so industrial heat can be delivered without turning the customer process system into the nuclear safety boundary.
03 · OPERATIONS
Autonomous operation, remote supervision.
Routine sequences, diagnostics, dispatch, and load response are intended to operate inside an approved automation envelope, with local protection independent of remote connectivity.
04 · DEPLOYMENT
Factory-first productization.
The reactor system is intended to change as little as practical from site to site, while electrical, thermal, civil, logistics, and commercial interfaces absorb customer-specific variation.
Energy outputs
One reactor. Multiple energy outputs.
The product thesis begins with firm electricity and process heat. As reactor economics mature, clusters of NOX modules can create a future pathway to hydrogen and synthetic hydrocarbons.
NOX Core
HALEU + TRISO fuel, graphite moderation, helium cooling, high-temperature energy source.
Energy Boundary
Protected nuclear/process interface separating the reactor from customer power and thermal systems.
Power · Heat · Future Fuels
Electricity first, process heat alongside it, and a long-term route to hydrogen and synthetic fuel production.
Built for deployment
A factory-built reactor, delivered as infrastructure.
Terraquint's deployment model aims to move sophisticated, repeatable work into controlled manufacturing environments and reduce bespoke work at the customer site.
Factory build
Standardized modules manufactured and tested under controlled conditions.
Transport
Intermodal logistics by road, rail, or barge. Container-compatible modules do not imply the full plant fits in one ordinary container.
Site installation
Protected nuclear island connected to repeatable electrical, thermal, and balance-of-plant interfaces.
Autonomous operation
Routine plant functions automated only within an approved operating envelope.
Remote supervision
Fleet-level monitoring and supervision, subject to licensing, staffing, human-factors, and cybersecurity requirements.
Lifecycle service
Long-interval core strategy and centralized specialized maintenance where practical and permitted.
Loss of remote connectivity must be an operating event — not a safety event.
Safety architecture
Local protection. Passive behavior. Layered barriers.
NOX is being designed so the fundamental safety case does not depend on cloud connectivity, remote operators, or the customer load. The final safety case, source term, emergency planning footprint, and licensing outcome remain design- and regulator-dependent.
01
TRISO-led retention
Coated-particle fuel is intended as a major fission-product retention barrier.
02
Negative temperature feedback
Core physics is intended to reduce reactivity as temperature rises.
03
Independent shutdown
Two independent or diverse shutdown capabilities are a design requirement.
04
Passive decay-heat removal
The design intent is to reach and maintain a safe state without external power or continuous intervention.
Market sequence
Start where energy is expensive. Scale where demand is enormous.
Terraquint's commercial sequencing is deliberately bottom-up: begin with high-value industrial sites where firm energy and logistics matter most, then expand as cost, licensing evidence, manufacturing capability, and operating experience improve.
STAGE 1
Remote mining
Continuous multi-MW loads, long asset lives, high fuel-logistics burden, and limited grid access.
PARALLEL
Defense
Mission resilience, remote installations, strategic procurement, and long-duration contracting models.
STAGE 2
Remote industry
Firm power and process heat for isolated industrial and oil & gas assets.
STAGE 2
Data centers
Large clustered firm-power demand where grid access, interconnection, or transmission can be constrained.
STAGE 3
Terraquint Fuels
Long-term option: use mature NOX clusters to provide electricity and heat for hydrogen and synthetic hydrocarbons.
Development
De-risk the reactor one proof at a time.
The program is structured around technical evidence rather than calendar milestones alone. Month 8 is the architecture-baseline milestone; the broader 18–24 month Gate 1 program continues into non-nuclear validation.
0–8 MONTHS
Architecture baseline
System requirements, core and cycle baseline, safety philosophy, interfaces, cost model, regulatory basis, and validation plan.
8–18/24 MONTHS
Non-nuclear validation
Thermal-fluid loops, controls and autonomy test evidence, power-conversion testbeds, suppliers, and regulatory foundation.
NEXT TECHNICAL GATE
Nuclear demonstration
Detailed design, nuclear QA maturity, fueled testing, integrated safety evidence, and commercial licensing support.
FOAK
First commercial system
Licensed site, contracted customer, operational reliability, and repeatable manufacturing and service learning.
Founder
Afaq Aslam
Founder · Terraquint
The founder role is company-level systems integration: define the thesis, establish product requirements, recruit nuclear leadership, align suppliers and laboratories, engage regulators, secure design-partner customers, and build a milestone-driven development organization.
Build the technical institution
Recruit senior nuclear, thermal-fluids, safety, licensing, manufacturing, controls, and project-finance leadership.
Protect engineering authority
Give domain leaders the credibility, incentives, and authority to challenge assumptions and own nuclear-grade decisions.
Sequence evidence before scale
Use each development gate to reduce uncertainty before committing to larger nuclear, manufacturing, or customer capital.
Contact
Build energy where industry needs it.
For investors, strategic partners, technical collaborators, suppliers, and potential design-partner customers.