TAK Engineering is a proudly Australian-owned engineering company with a proven track record of delivering successful projects across diverse industrial applications.
TAK Engineering was established in 2016 by its founder, an electrical & control system engineer with extensive expertise in developing automated PLC-based control system logic for Toshiba's SCiB Lithium-Ion battery storage system.
This innovative logic enables rapid scalability of energy storage capacity — from 1.242 kWh to 1.530 MWh — by simply configuring PLC logic parameters to accommodate the number of Toshiba SCiB battery modules and Battery Management Units (BMUs).

The first-ever Australian-built Toshiba SCiB rack. Photo courtesy Toshiba International Corporation.
According to Uthaya Siva, founder of TAK Engineering, a milestone in Australian SCiB energy storage was marked in 2012. The first-ever Australian Toshiba SCiB lithium-ion battery storage system was designed and built at the Toshiba International Corporation workshop in Parramatta — a two-string configuration of five SCiB modules connected to a Selectronic inverter, showcased for a Queensland utility's SWER (Single Wire Earth Return) line trials.
The founder's expertise later shifted to Port and Logistics, playing a crucial role in implementing the world's largest fully automated container facility at Patrick Terminal, Port Botany, in 2014.
The SCiB demo panel sparked significant interest from local and international stakeholders, catching the attention of Toshiba International Corporation's senior management. In 2016, they approached the founder to collaborate on their SCiB projects — and TAK Engineering was born.

A driverless straddle carrier delivering containers to the ship-to-shore crane, Patrick Terminal, Port Botany. Photo courtesy SMH.
Following six months of intense development, TAK Engineering successfully delivered a WAGO PFC200-based SCiB high-level PLC control system with the following capabilities:

Uthaya has demonstrated strong technical expertise in supporting the transformation of traditional ship-to-shore and container-handling operations toward semi-automated and automated systems — integrating automation technologies with existing equipment, supporting operational teams through technological change, and developing practical solutions to the challenges automation creates.
One notable example involved an automated straddle carrier fleet. During early implementation and software optimisation, the automated operating system frequently stopped and restarted the onboard diesel engines. Some straddle carriers experienced approximately 80–90 engine starts per day, placing significant demand on conventional lead-acid starter batteries and affecting fleet reliability.
Understanding both the technical problem and the terminal's requirement for high equipment availability, Uthaya investigated alternatives to conventional starting batteries. He proposed a supercapacitor-based Engine Start Module (ESM) to provide reliable high-current engine starting under frequent start-stop operation.
The reliability stakes were high. Automated straddle carriers operate within a fully automated yard where personnel access is restricted. When a machine goes down with a starter fault, it cannot simply be attended in place — recovering it requires operational intervention, effectively shutting down a section of the automated yard so the machine can be safely retrieved. Each failure therefore carries a disproportionate impact on terminal productivity.
Rather than rolling the technology out across the fleet immediately, he developed a controlled trial strategy. A selected straddle carrier was configured with a dual starting arrangement — retaining the existing lead-acid battery while incorporating the Engine Start Module — allowing the technology to be evaluated under real terminal conditions while maintaining operational redundancy.
Following successful trials and demonstrated reliability, the solution was progressively implemented across the fleet, significantly improving engine-start reliability and reducing operational interruptions associated with starter-battery performance.
The field-proven Engine Start Module technology was subsequently recognised by the straddle carrier OEM, Kalmar, and incorporated into later straddle carrier designs — remaining a standard part of the starting system until the introduction of hybrid machines, where the engine-start function is now supplied by the onboard hybrid battery.
The initiative reflects TAK Engineering's approach: understand the operational problem, evaluate the technology, prove the solution in the field, and implement it with minimal disruption to operations.
A customer-focused approach and valued products and services have earned recognition from numerous clients, solidifying our position as a preferred supplier.
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