RADICS | ADVERTORIAL FEATURE
optimizing the maintenance resources and keeping a high system availability.
Flexible architecture that allows the platform to be adapted to implement nearly any kind of I&C system for any reactor type. The platform features a central logic module, alongside various signal receiving and generating modules, and an optical communication module.
I&C functions are built directly into the hardware. The RadICS platform operates without the software components often targeted in cyberattacks. Additionally, the hardware design process and reprogramming require physical access, further reducing vulnerabilities and the risk of successful cyberattacks. Malware targeting HDL code—the language used to configure FPGAs—is currently non-existent, and the inability to connect standard storage devices eliminates another infection route for control logic.
The key to small, modular, and advanced reactors’ operational success Scalability and Adaptability As the nuclear industry advances toward a more sustainable future, the RadICS Platform stands out not only for its cutting-edge technology but also for its impressive scalability and flexibility. This platform can serve as the backbone for digital I&C systems in both large nuclear reactors and the growing sector of Small Modular Reactors (SMRs). Its high concentration of Input/Output (I/O) points per card greatly reduces the I&C footprint, a vital feature for both extensive traditional plants and compact SMRs. Moreover, the RadICS platform’s capability to centralize application logic for any reactor type within a single Logic Module simplifies installation and maintenance, enabling a consistent approach across different reactor designs.
Simplicity in Design and Operation The simplicity of the RadICS Platform is one of its core strengths. By eliminating the need for an operating system to implement safety functions, the platform ensures reliability and reduces the complexity of the system. Its operation is based on deterministic behavior achieved through Final State Machine logic implementation, which guarantees predictable and secure responses to inputs. This simplicity is further complemented by the fact that the safety software code, developed using FPGA electronic design, is entirely produced in-house. This allows for complete transparency and is available for third-party audits, instilling additional confidence among stakeholders and regulatory bodies.
Standardized for Global Compliance and Rapid Deployment The RadICS Platform is not just a proven, robust system; it is a Commercial-Off-The-Shelf product that has been widely recognized in the nuclear power industry. It complies with stringent international nuclear standards set by bodies such as the IEC and IEEE, making it ready for rapid deployment across global markets. This standardization is critical for nuclear plants worldwide, as it ensures that adopting the RadICS Platform will
meet the regulatory requirements of various international jurisdictions, facilitating smoother, faster modernization and new-build projects.
Enhancing SMRs and Advanced Reactors The adaptability of the RadICS Platform makes it especially suitable for advanced reactors like SMRs, which benefit from the platform’s modular and scalable nature. SMRs, known for their potential for lower initial capital investment and inherent safety features, require I&C systems that can be customized to their unique designs yet maintain consistency in operation and safety standards. The RadICS platform’s flexibility in configuration and its minimal footprint align perfectly with the compact and efficient design philosophy of SMRs. As nuclear power steps into the clean energy limelight, digital I&C systems will be the key to unlocking its full potential. ■
Above top: The RadICS Platform based on FPGA technology.
Above bottom: Reactor Protection System based on the RadICS technology can be installed in large, small modular, micro and other types of reactor.
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radics@radics-ua.com W:
www.radics.tech
www.neimagazine.com | WNE Special Edition | 33
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