OEM / ODM battery engineering

Custom sodium-ion battery packs built around the equipment—not a generic enclosure.

A structured development path from application requirements and cell qualification through electrical architecture, BMS, mechanical integration, interfaces, testing and supply planning.

Electrical + mechanical co-designBMS and interface planningPrototype → qualification → supply
Conceptual sodium-ion battery module architecture for custom battery pack development
CONCEPTUAL MODULE VISUAL · FINAL PACK APPEARANCE AND ARCHITECTURE SUBJECT TO REVIEW

Application first

A voltage and capacity request is not yet a complete battery-pack specification.

The pack must support the real load while fitting the product, communicating with the host, remaining serviceable and following the intended compliance path. The development scope begins by closing those interfaces.

01

Electrical duty

Nominal voltage, operating window, continuous current, peak duration, runtime and charging method must agree.

02

Mechanical envelope

Space, orientation, mounting, connectors, cable exits, impact, ingress and thermal context shape the architecture.

03

Control and protection

BMS functions, sensing, balancing, communication and host-control responsibilities must be defined.

04

Commercial pathway

Prototype quantity, validation responsibility, certification, annual demand and change control affect development planning.

Engineering pathway

Connect cell selection to equipment-level acceptance.

The pack is developed through controlled gates so that electrical, mechanical and commercial decisions remain traceable as the project matures.

01→

Capture requirements

Define equipment duty, load, charging, environment, space, interfaces, compliance and quantity.

OUTPUTPack requirement profile
02→

Qualify cell and topology

Review cell evidence and develop the series/parallel architecture against current and runtime needs.

OUTPUTCell/topology direction
03→

Engineer pack interfaces

Coordinate BMS, protection, enclosure, connectors, communication and thermal conditions.

OUTPUTPreliminary pack design
04✓

Prototype and qualify

Agree prototype scope, tests, acceptance criteria, documentation and production transition.

OUTPUTDevelopment and supply plan

Application fit

Where this solution pathway may apply.

Application labels are starting points, not automatic product approvals. Final suitability follows the actual operating envelope.

01

Industrial equipment

Application-specific power for machines, controls and mobile industrial systems.

02

Robotics and automation

Battery packs shaped by peak current, duty cycle, charging access and communication.

03

Outdoor electronics

Systems requiring coordinated enclosure, connector and environmental decisions.

04

Backup power modules

Defined standby, readiness, runtime and host-interface requirements.

05

Specialty mobility

Projects where packaging, mass, current and mechanical retention must be balanced.

06

OEM energy products

Custom modules or packs intended for integration into a larger branded system.

Evidence & decision boundary

Every pack specification inherits dependencies from the selected cell.

Cell documents, sample measurements, BMS settings, pack architecture and application tests are not interchangeable. Each performance statement must identify which level was evaluated and under what conditions.

Review evidence governance →
01Approved cell identity and revisionVERIFY02Electrical and environmental test contextVERIFY03Pack/BMS configuration under testDECIDE04Equipment-level acceptance criteriaDECIDE

Prepare your RFQ

Give engineering enough context to respond usefully.

Share the known values and mark anything still undecided. We use these inputs to identify missing evidence, integration risks and the most practical next step.

Submit Project Requirements
  1. 01Equipment and operating duty
  2. 02Nominal and operating voltage
  3. 03Capacity or required runtime
  4. 04Continuous and peak current
  5. 05Charging source and method
  6. 06Available dimensions and weight
  7. 07Connector and communication interface
  8. 08Temperature, ingress and mechanical environment
  9. 09Prototype and annual quantity

Technical FAQ

Questions to answer before selection.

These answers establish the review process. Product specifications and commercial terms require project confirmation.

What information is needed for a custom battery pack?+

Provide the application, voltage range, runtime, continuous and peak current, charging method, available space, environment, interfaces, compliance needs and quantity.

Can you build a pack using 32700 sodium-ion cells?+

Yes, subject to cell qualification and review of the electrical topology, current, enclosure, BMS, interfaces and project requirements.

Does a custom pack include the BMS?+

BMS selection and integration can be part of the project. Required protection, sensing, balancing, communication and host-control responsibilities must be defined.

Can you copy an existing lithium battery pack?+

An existing pack can be used as a dimensional or interface reference, but chemistry, voltage behavior, charging, protection and compliance must be re-evaluated rather than copied blindly.

What is the minimum order quantity?+

Prototype and production quantities depend on cell availability, engineering scope, tooling, compliance and supply planning. Submit the expected sample and annual quantities for review.

Do you provide certification?+

The compliance pathway can be planned with the pack project. Applicable standards, test responsibility, target markets and final configuration must be confirmed first.

Engineering inquiry

Tell us what the equipment expects from its battery.

We will define the cell, architecture, interfaces and qualification questions needed to move toward a custom pack proposal.