We do not just assemble” starts by describing SES in terms of what it doesn’t do. It unintentionally
introduces the idea of SES being an assembler
Our engineering process begins with the application—not with a predefined battery.
SES integrates engineering disciplines and advanced in-house resources to design, develop and validate battery systems that are reliable, safe and ready for real-world use.
Application-specific battery systems engineered from cell selection through production readiness.
Battery intelligence configured and validated around the application.
Mechanical engineering from concept to production-ready design.
Functional prototypes produced rapidly for engineering validation.
In-house tooling capability supporting the transition from prototype to production.
Battery designs verified against electrical, mechanical and environmental conditions.
Voltage and capacity are only the starting point. Load behaviour, environment, communications, mechanical constraints and regulatory requirements shape the battery architecture.
Electrical, firmware and mechanical development proceed together rather than as isolated disciplines—reducing iterations and accelerating time to validation.
Engineering decisions are evaluated against manufacturability, repeatability, traceability and validation from the beginning to ensure production-ready battery systems.
Understand application, load profile, environment and regulatory needs.
Cell selection, pack architecture, protection, BMS, communication and algorithms.
3D modelling, enclosure, interfaces, cell holders and manufacturing drawings.
SLS prototypes, samples, BMS programming and preliminary functional verification.
Mould development, tooling trials, mechanical corrections and production-intent samples.
Electrical, thermal, cycle-life, vibration, protection and application-specific testing.
Approved BOM, firmware/configuration, drawings, tooling and batch traceability.
Understand application, load profile, environment and regulatory needs.
Cell selection, pack architecture, protection, BMS, communication and algorithms.
Understand application, load profile, environment and regulatory needs.
SLS prototypes, samples, BMS programming and preliminary functional verification.
Mould development, tooling trials, mechanical corrections and production-intent samples.
Electrical, thermal, cycle-life, vibration, protection and application-specific testing.
Approved BOM, firmware/configuration, drawings, tooling and batch traceability.
