Software-defined LV power distribution system

A software-defined LV power distribution system is an all-in-one intelligent electrical protection system that combines plug-and-play architecture, scalable infrastructure, real-time monitoring, predictive condition monitoring, and AI-powered energy intelligence to simplify electrical cabinet design, maximize uptime, and support future growth.

An all-in-one intelligent electrical protection system combines protection, monitoring and control in a single plug-and-play platform.

Rather than assembling traditional circuit breakers with separate auxiliary devices, panel builders can use integrated functional blocks that provide protection functions alongside real-time electrical data and intelligent control. This reduces component count, wiring complexity and cabinet-design effort.

The system is intended to support faster configuration, commissioning and ongoing operation while giving facility teams clearer visibility of loads, system condition and energy use at both individual-device and wider-panel level.

Hot-swap functional block design allows a maintenance team to replace or service a functional module without taking the entire electrical panel out of operation.

This can help minimize disruption to connected equipment and reduce the time required for planned maintenance or fault recovery. By isolating work to the relevant block, teams can avoid extensive rewiring and reduce the need for full-panel shutdowns.

For critical facilities, this approach can improve operational resilience, support faster restoration and make maintenance planning more flexible while helping protect continuity of service.

An integrated protection platform can replace multiple conventional breakers, relays, meters and auxiliary accessories with fewer modular components.

This reduces the amount of panel space, interconnection wiring and engineering coordination required during cabinet design. A high-density footprint is particularly useful where cabinet dimensions are constrained or where operators need to add capacity without expanding the enclosure. Plug-and-play modules can also make layouts more consistent across projects, helping panel builders streamline design, reduce assembly time and make future changes or expansions easier to manage.

Real-time monitoring provides ongoing visibility of electrical loads, device status and operating conditions, helping teams identify abnormal behaviour sooner.

Edge-based predictive condition monitoring adds intelligence closer to the equipment, enabling the system to analyse local data and flag potential issues before they develop into failures. This can help maintenance teams prioritise attention, plan interventions more effectively and reduce reliance on reactive repairs. Combined with embedded self-diagnostics, these capabilities can improve asset availability, support safer operations and provide better evidence for maintenance, energy and resilience decisions.

AI-powered energy intelligence can turn electrical data into actionable insight by identifying demand patterns, inefficient loads and opportunities to improve how energy is managed.

When combined with load-management functions, it can help facility operators make more informed decisions about capacity, prioritisation and operational performance. This supports a more proactive approach to energy use while improving visibility across devices and panels.

As infrastructure requirements change, scalable modular architecture can also help operators add functions and capacity over time without needing to redesign the entire protection and control system.