Battery Pack Architect
Posted 4 Jun 2026
Advertised as “Battery Pack Architect M/F”
BranchFactor Summary
The original posting with the fluff stripped out
- Expected experience
- 5+ yrs
- Management level
- People management
- Employment
- On-Site
No salary listed for this role.
Field of studyElectrical Engineering, Systems Engineering (or related)
Study levelMaster's
As a Battery Pack Architect, you are responsible for defining the overall system architecture and ensuring the technical coherence and performance of the battery pack. You drive key design decisions by balancing electrochemical, electrical, thermal, mechanical, and safety constraints to deliver a solution that is safe, high-performing, manufacturable, and cost-effective.
You act as a cross-functional technical leader and the main guarantor of the system-level vision.
Main responsibilities :
1. System Architecture Definition
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Define the overall battery pack architecture, including:
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Electrical topology (series/parallel configuration, HV/LV interfaces)
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Mechanical concept (modules integration, pack integration, pack enclosure design)
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Busbar routing
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Thermal architecture
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Ensure consistency between cells, BMS, power electronics, and system-level requirements
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Drive architectural trade-offs considering performance, cost, risk, manufacturability (ergonomic, value chain, process flow chart) and industrial constraints (existing means compatibility)
2. Requirements & Performance Management
- Define and cascade system requirements
- In charge of design justification document as well as its integration into PLM
- Ensure requirements traceability across the system
- Define and monitor key performance indicators (KPIs) for the battery pack
3. Multi-Domain System Integration
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Ensure proper integration of all subsystems:
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Cells
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BMS
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Thermal system
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High-voltage components (contactors, fuses, etc.)
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Manage critical interfaces (electrical, thermal, mechanical, communication)
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Guarantee system behavior under all operating conditions (normal and fault cases)
4. Safety & Compliance
- Integrate safety constraints from early design stages:
- Define mitigation strategies (detection, isolation, protection mechanisms)
- Ensure compliance with relevant standards and regulations