About The Role

TYTAN Technologies

The PACE is fast. The expectations are high. The contribution matters. Working at TYTAN is more than a job, this is a mission. We thrive, think big, and hold ourselves to the highest standard. Our mission and values guide everything we do, and we're looking for people who thrive on ownership, embrace challenges, and are energized by meaningful work. If you're motivated by impact and thrive in dynamic environments, you'll fit right in.

At TYTAN , we aim to set a global standard in autonomous air defense with AI-driven, cost-efficient systems that counter unmanned aerial threats at scale. We protect people. We protect critical infrastructure. We protect Europe’s sovereignty.

We are looking for a Battery Systems Engineer to lead the design, development, and validation of advanced low-voltage battery packs. In this role, you will be responsible for battery pack architecture, mechanical integration, thermal management, cell evaluation, electrochemical testing, and safety compliance. Working closely with cross-functional teams and external suppliers, you will drive projects from concept development through prototyping, testing, and production release, ensuring high-performance, reliable, and safe energy storage solutions.

Your Roadmap to Make an Impact

Pack design & mechanical integration: Design low-voltage battery packs, enclosures, cell modules, busbars and interconnects in CAD — from first concept through to release-ready drawings and BOMs.
Thermal & structural layout: Develop thermal management concepts and validate them against mechanical loads, vibration and shock requirements of the target application.
Cell selection & benchmarking: Evaluate and qualify cells from different suppliers; build the data basis for design decisions on energy density, power capability, cycle life and cost.
Electrochemical testing: Plan, run and evaluate cell and module tests — capacity and rate characterisation, EIS, ageing and cycle-life campaigns, thermal characterisation — and derive design conclusions from the results.
Test infrastructure: Set up and maintain test benches, fixtures and measurement chains; build repeatable test procedures and keep the data properly documented and traceable.
Prototyping & validation: Build and instrument prototype packs, run the validation programme, and feed findings back into the next design iteration.
Safety & standards: Support hazard and risk assessments, define protection concepts (fusing, isolation, venting, propagation resistance) and prepare packs for the relevant transport and product standards (e.g. UN 38.3, IEC 62133).
Interface management: Coordinate technically with mechanics, electronics/BMS, manufacturing and purchasing, and act as the technical counterpart to external cell and component suppliers.