Fala's CPD training program is currently in development. Modules will cover point-of-use system design, diversity factor calculations, specification best practice and compliance requirements for Australian commercial and multi-residential buildings.
Electric point-of-use systems heat water at the outlet where it is used, rather than storing and distributing it from a central plant.
When demand is triggered, water is heated instantly or drawn from a localised unit, eliminating distribution losses and reducing system complexity.
Centralised systems rely on storage tanks and ring mains, which introduce heat loss, oversizing, and unnecessary energy consumption.
Point-of-use systems remove distribution losses, reduce infrastructure requirements, and deliver hot water only when and where it is needed — improving whole-system efficiency.
Yes — efficiency is achieved at a system level.
By eliminating stored water, idle heating, and distribution losses, point-of-use systems reduce overall energy consumption compared to traditional centralised systems.
Point-of-use systems use diversity-based load behaviour rather than peak demand assumptions from centralised systems.
This can reduce required electrical infrastructure when correctly modelled, with performance supported by project-specific calculations and real-world data.
Decentralised systems remove single points of failure.
Individual units operate independently, allowing maintenance or replacement without affecting the entire system, improving reliability across the building.
Point-of-use systems simplify installation by removing plant rooms, long pipe runs, and return loops.
This reduces coordination complexity, shortens construction timelines, and frees up usable building space.
Electric point-of-use systems align with the transition away from gas and support evolving efficiency standards.
They also contribute to sustainability targets by reducing energy use, water waste, and system complexity.
Yes — point-of-use systems are designed for commercial and multi-residential applications where demand varies across multiple outlets.
They provide consistent performance while improving efficiency at a whole-of-building level.
