Lithium battery transport safety
The full sequence — altitude, thermal, vibration, shock, external short, impact, overcharge, forced discharge — applied to every pack design.
From 3D scan to ECE R100. Pack design, every bracket and enclosure, every schematic and harness, and full vehicle control software — engineered under one roof.
Cell selection, modular pack architecture, BMS integration and high-voltage layout are all done in-house — but the hard work is the mechanical envelope: clamping, cooling, crash containment, vibration. Every pack is engineered to pass UN 38.3 transport testing and ECE R100 vehicle safety requirements.
Designed and engineered in-house. We 3D-scan the vehicle before any design work begins, so every part lands where it needs to. Stress, shock and vibration simulation are done in-house — the same FEA practice that drives pack design feeds every other structural part.
HV and LV schematics, wiring harness design, high-voltage layout, cable sizing and protection coordination — every electrical interface on a RECUPOWER build is engineered, not improvised. Harness design runs on RecuLoom, our own browser-based tool.
Written from scratch. Braking, thermal management, instrumentation, ISO 15118 AC and DC charging — implemented and integrated. CAN-bus is the connective tissue. We've also delivered standalone control software for OEM motor-generator suppliers, including a custom CAN-based test bench.
The full sequence — altitude, thermal, vibration, shock, external short, impact, overcharge, forced discharge — applied to every pack design.
UN ECE regulation covering pack-level and vehicle-level requirements for battery electric and plug-in hybrid propulsion systems.
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