Energy

SMALL MODULAR REACTOR (SMR)

This is an example of what we can provide now.

IMPPORTANT READ TEXT IN YELLOW BELOW!

Reliable Clean Energy for Industrial and Remote Applications

Executive Summary

Small Modular Reactors (SMRs) represent the next generation of nuclear energy technology. Their compact design enables safe, reliable, carbon-free electricity and heat production for locations where traditional large nuclear power plants are not practical. Factory manufacturing reduces construction time, improves quality control, and allows deployment in remote regions, industrial developments, mining operations, and large infrastructure projects.

—

Technical Specifications

Reactor Type: Integral Pressurized Water Reactor (PWR)

Thermal Output: 175 MW(th)

Electrical Output: Approximately 55 MW(e)

Reactor Height: 7.3 meters

Reactor Diameter: 3.3 meters

Reactor Weight: Approximately 148 tonnes

Operational Lifetime: 40–60 years

Fuel Type: Low-enriched uranium

Typical Refueling Interval: Every 6–10 years

Capacity Factor: Greater than 90%

—

Safety Features

The reactor incorporates modern Generation III+ nuclear safety technology, including passive and active safety systems, an integrated reactor vessel, multiple redundant protection systems, and engineered safety features designed to ensure reliable operation even under challenging conditions. Its compact integral design reduces the number of external piping systems and improves overall safety and reliability.

—

Key Advantages

Continuous 24-hour electricity production

Zero carbon emissions during operation

High reliability and availability

Compact installation footprint

Long operational life

Long intervals between refueling

Reduced fuel transportation requirements

Suitable for isolated electrical grids

Factory-built modular construction

Capable of operating in extreme climates, including Arctic and desert environments

—

Potential Applications

This technology is suitable for powering:

Large construction projects

Mining operations

Oil and gas facilities

Remote communities

Smart cities

Industrial parks

Data centers

Hydrogen production facilities

Water desalination plants

Ports and logistics hubs

Military and government installations

Island power systems

—

Economic Overview

The estimated capital investment for one reactor unit is approximately US$300–400 million, depending on project location, civil works, infrastructure, licensing, and local regulatory requirements.

Estimated construction cost is approximately US$6,000 per installed kilowatt, making it competitive with other advanced nuclear technologies for long-term baseload electricity generation.

Although the initial investment is significant, operating costs remain relatively low because fuel consumption is minimal and refueling is required only every several years.

—

Environmental Benefits

Small Modular Reactors produce electricity without greenhouse gas emissions during normal operation. They provide reliable baseload power independent of weather conditions and can significantly reduce dependence on fossil fuels while supporting industrial growth and energy security.

—

Conclusion

Small Modular Reactor technology provides a practical, long-term solution for clean, reliable, and continuous energy production. With approximately 55 MW of electrical output, decades of operational life, and long refueling intervals, it is well suited for industrial developments, remote infrastructure, mining projects, desalination plants, hydrogen production, and future smart city developments. Its combination of compact size, advanced safety systems, and high reliability makes it one of the most attractive options for dependable carbon-free energy where conventional power generation is difficult or expensive.

For a country to purchase and operate a Small Modular Reactor (SMR), several major requirements typically must be met. These vary by supplier country and reactor design, but generally include:

1. Nuclear Regulatory Authority

The country needs an independent nuclear regulator that can license, inspect, and oversee nuclear facilities.

2. International Agreements

Membership in the International Atomic Energy Agency.

A safeguards agreement with the IAEA.

Compliance with international nuclear non-proliferation obligations.

3. National Nuclear Legislation

Laws governing nuclear safety, security, liability, emergency preparedness, and radioactive waste management.

4. Site Approval

Environmental impact assessments.

Geological, seismic, and flood risk studies.

Approval of a suitable site.

5. Security Requirements

Physical protection against theft or sabotage.

Cybersecurity measures.

Emergency response capabilities.

6. Grid Infrastructure

An electrical grid capable of integrating the reactor’s output, or a dedicated industrial microgrid if the SMR serves a specific facility.

7. Waste Management Plan

A strategy for storing and ultimately disposing of spent nuclear fuel and radioactive waste.

8. Qualified Workforce

Trained reactor operators, engineers, maintenance personnel, radiation protection specialists, and emergency response teams.

9. Financing

Depending on the reactor and supplier, the project may require several hundred million dollars to over a billion dollars, including infrastructure and licensing.

10. Supplier Approval

The exporting country must approve the sale. This is often subject to export controls, geopolitical considerations, and international sanctions.

More info at: https://www.iaea.org/