HyprC Bets on the Technology Around the Reactor

The Aegis Critical Energy Defence subsidiary is developing battery storage, intelligent controls and digital-twin technology aimed at the emerging market for small modular nuclear systems.

By Peter Kennedy

The investment case for small modular reactors has generally focused on the reactor itself — cost, construction, licensing and whether smaller nuclear plants can compete with other forms of generation.

HyprC Systems Corp. is taking a different approach. It does not plan to build reactors. Instead, the Aegis Critical Energy Defence Corp. [QESS-CSE, QESSF-OTCQB, JG6-FSE] subsidiary is developing the battery storage, controls, power electronics, digital twins and cybersecurity systems needed to make nuclear generation work with demanding real-world electrical loads.

It is an interesting place to position a company because, if SMRs move into broader commercial deployment, the reactor will be only one part of the system.

Ports, defence facilities, remote communities, industrial sites and AI data centres do not consume electricity at a steady rate. Loads can change quickly. Container cranes start and stop. Data centres experience sudden demand. Industrial equipment cycles on and off. The challenge is to reconcile those fluctuations with a generating asset designed to operate within defined thermal and operating limits.

HyprC believes batteries can provide part of the answer.

The company is developing reactor-aware controls that use battery energy storage as a fast-acting buffer between the reactor and the load. The battery responds to short-term peaks and disturbances while allowing the primary generating source to operate more steadily.

That work is being led by Ramtin Rasoulinezhad, PhD, Chief Executive Officer of HyprC and CEO and a director of Aegis. His background includes senior technology roles at AMPS, Shift Clean Energy and AVL, with experience spanning utilities, oil and gas, marine, defence and hybrid power systems. He has led or contributed to energy and infrastructure projects valued collectively at more than $1 billion.

Rasoulinezhad describes the common requirement across HyprC’s target markets as compact, intelligent power systems with extremely high reliability. Critical applications including ports, defence assets, space platforms and AI data centres, he has said, require power systems that “simply cannot fail.”

HyprC’s nuclear program began taking shape in February 2026, when Aegis entered into a Memorandum of Understanding with Ontario Tech University and continued this with a partnership with McMaster University in July of 2026. In August 2026 the first Reserch grant of $480,000 was awarded to the project.

The collaboration is researching hybrid energy architectures combining Small Modular Reactors and Micro Modular Reactors from established suppliers with Aegis battery systems and energy-management technology.

Ontario Tech contributes nuclear research capabilities, while Aegis and McMaster University  provides applied engineering and battery expertise. The program includes modelling reactor behaviour, evaluating reactor-battery configurations, developing cyber-secure energy controls, building digital twins and working toward hardware-in-the-loop testing.

That last part matters.

A digital twin allows engineers to build a virtual representation of an energy system and model reactor behaviour, battery performance, changing loads, thermal conditions and faults before equipment is deployed. Hardware-in-the-loop testing goes further by connecting actual controllers to simulated operating conditions.

For nuclear applications, where reliability and validation carry obvious importance, that ability to test the interaction between components before deployment could become a valuable part of the engineering process.

HyprC’s original focus leaned heavily toward marine applications, and ports remain a logical market. Shore power, cargo-handling equipment, electric vehicles and terminal electrification can place substantial and rapidly changing demands on electrical infrastructure.

The shipping industry’s decarbonization targets add another incentive. The International Maritime Organization is calling for international shipping to reach net-zero greenhouse gas emissions by or around 2050, with substantial reductions targeted by 2030.

Electrification can help, but electrification also means ports need considerably more dependable power.

HyprC’s ambitions have since expanded beyond marine applications. In July 2026, Aegis announced a four-year, approximately $3.71-million research and commercialization initiative with McMaster University’s Centre for Mechatronics and Hybrid Technologies.

The program centres on Aegis’s High C-Rate Fast-Transient Energy Storage System, or HCFT-ESS. Unlike batteries primarily designed to shift electricity over long periods, the system is being engineered to deliver very rapid and repeatable power response using high performance German automotive-grade battery technology, advanced thermal management, high-speed protection, intelligent controls and artificial intelligence.

The commercialization roadmap starts with AI data centres, followed by ports and heavy industry. A later phase would apply the same underlying technologies to hybrid systems combining batteries with SMRs, MMRs and renewable generation for remote communities, defence installations, utilities and other critical infrastructure.

There is some logic to the sequence.

Commercial deployment of advanced nuclear technologies will take time. Battery management, thermal controls, protection systems, software and digital twins do not necessarily have to wait. HyprC can develop and test those technologies in conventional high-power applications and, if the SMR market matures as expected, adapt them to nuclear systems.

There are plenty of reasons for caution around small reactors.

Canada is pushing ahead with the technology. Ontario Power Generation received provincial approval in May 2025 to proceed with the first of four planned BWRX-300 reactors at Darlington. The first unit is expected to produce about 300 megawatts and enter service by the end of 2030.

But SMRs still face familiar nuclear-industry challenges: construction costs, licensing, waste management, public acceptance, supply chains and fuel.

Antares Nuclear’s recent financing suggests investor appetite for advanced nuclear technology is gaining momentum. The U.S. nuclear startup said on July 27th it raised US$470 million to develop small reactors for U.S. military bases, including US$370 million in equity and US$100 million in debt. Antares is developing small modular reactors designed to generate between 100 kilowatts and one megawatt of electricity, roughly enough to power as many as 750 homes.

The financing reflects growing interest in advanced nuclear technology as military applications, AI data centres and other power-intensive industries seek new sources of reliable electricity. It also highlights the potential market for HyprC, whose battery storage, intelligent controls, protection systems and energy-management technology are being developed to help SMRs operate more safely, efficiently and reliably under demanding conditions. Reactor developers such as Antares could therefore represent a natural fit for HyprC’s technology as the market moves toward commercial deployment.

HyprC’s decision to work around the reactor rather than manufacture one reduces its direct exposure to some of those risks. It can potentially integrate reactor technology supplied by established vendors while concentrating its capital and engineering work on the systems connecting generation to the customer.

That distinction may prove important.

The nuclear industry naturally attracts attention to reactors because they are the biggest, most expensive and most politically visible component of a project. But an SMR sitting on its own is not an energy system.

It still has to connect safely and reliably to whatever is consuming electricity.

HyprC is betting that the technology sitting between those two points — batteries, controls, protection systems, power electronics, cybersecurity and software — will become a business in its own right.

With MMR and SMRs developing  into a meaningful part of distributed energy infrastructure, and the isolated off grid defence sector this is turning  out to be a useful place to be.