Define the requirement
Agree duty, voltage window, runtime, environment and interfaces.
Engineering
Battery design for your equipment.
Electrical design, BMS, enclosure and thermal integration for custom batteries, followed by samples, validation and production preparation.
Explore each engineering discipline.
Each card opens a decision guide with inputs, diagrams, validation steps and primary technical sources.
Electrical architecture
Voltage window, series-parallel layout, current paths, protection and charging.
Voltage window, power-path drawing and protection conceptOpen decision guide ↗BMS & controls
Cell and pack sensing, protection behavior, state logic, communications and diagnostics.
I/O list, protection table, state diagram and interface definitionOpen decision guide ↗Mechanical integration
Cell restraint, tolerances, insulation, enclosure, mounting and service access.
Packaging drawing, load paths and assembly definitionOpen decision guide ↗Thermal design
Loss map, heat paths, sensor placement, cooling architecture and model correlation.
Thermal boundaries, sensor map and correlated verificationOpen decision guide ↗Validation
Test conditions, instrumentation, acceptance criteria and measured evidence.
Verification matrix, test records and design decisionsOpen decision guide ↗Manufacturing planning
Assembly sequence, tooling, test access, inspection and configuration control.
Build process, control plan and production-release recordsOpen decision guide ↗From battery requirements to samples
Select the architecture
Define cell arrangement, pack construction, controls and equipment interfaces.
Build and validate
Evaluate samples against the agreed conditions and acceptance criteria.
Prepare the build
Resolve the bill of materials, drawings, work instructions and inspection requirements.
Choose your next engineering step.
Discuss your battery requirements.
Include your equipment, battery requirements and quantities. Add an existing drawing or configuration reference where available.