Custom battery packs for robotics—robot dog / 48V platforms, 72V industrial robot and AMR systems, and smart battery modules with CAN / RS485.
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Products are shown in one catalog grid, with product type and keyword filters before detail-page review of BMS, enclosure, certification, and duty-cycle requirements.
Custom battery systems for robot dogs, legged robots, service robots, warehouse robots, and compact mobile platforms that need peak-power, vibration, enclosure, and BMS communication review.
Key specs
45.5V / 48V examples / 15Ah-43Ah examples / Peak/actuator events reviewed; datasheet packs ~0.7-2.1kWh class / Li-ion / LiFePO4 by platform
Custom 72V-class battery systems for industrial robots, AMRs, autonomous mobile robots, and higher-power equipment that need runtime, current, charger, harness, and BMS communication review.
Key specs
72V-class examples / 20Ah / 30Ah / 31Ah examples / Continuous vs peak / regen reviewed with fuse–MOS / contactor path / Li-ion / LiFePO4 by platform
75V-class smart battery modules for robots and industrial equipment that need a defined bay, CAN or RS485 reporting, charger handshake, and a repeatable module building block instead of a full custom pack.
Key specs
75V / 78.75V examples / 60Ah / 90Ah examples / Cont/peak confirmed vs bay cooling + connector rating / Li-ion smart module
Category notes
48V-class robot power systems for compact platforms, service robots, and smart mobile equipment.
72V-class higher-power systems for longer runtime, stronger actuation, and industrial robot platforms.
75V and 78.75V smart modules with BMS communication and defined module envelopes.
Custom battery packs for robotics
Compare robot dog / 48V, 72V AMR, and smart-module product routes, then choose the matching robotics custom pack SKU by voltage platform, energy examples, communication, and integration boundary.
If platform, runtime, current, envelope, and CAN / RS485 needs are still open, open the robotics application page first, then return here to compare product routes.
Open robotics battery selection →SKU role: weight-sensitive peak-power packs for legged and compact service platforms.
SKU role: 72V-class continuous power and regen review for industrial mobile platforms.
SKU role: CAN / RS485 repeatable modules for defined bays—not a from-scratch full pack.
These are representative routes from existing projects and brochure references, not fixed stock models. Capacity, energy, cell availability, dimensions, and document status are confirmed against the approved project specification before prototyping.
| Product route | Voltage platform | Capacity / energy scope | Robot applications |
|---|---|---|---|
| Robot dog and mobile robot battery | 45.5V / 48V project examples | Project-specific Ah; 0.7–2.1kWh brochure examples | Robot dogs, legged, service, warehouse, and compact mobile robots |
| 72V industrial robot and AMR | 72V-class platform | Project-specific Ah; 1.5–2.3kWh brochure examples | Industrial robots, AMRs, and autonomous mobile platforms |
| Smart robot battery module | 75V / 78.75V representative configurations | 60Ah / 90Ah examples; rated energy confirmed by approved configuration | Robot equipment requiring CAN / RS485, SOC, and fault reporting |
Robotics pack engineering path
After duty-cycle selection on the application page, confirm dog / 48V, 72V AMR, or smart-module route.
Review chemistry, series-parallel layout, capacity, energy, thermal path, fuse, and protection architecture.
Confirm CAN / RS485, SOC, fault codes, charger, connector, harness, enclosure, mounting orientation, and weight boundary.
Build against the approved specification and review electrical, thermal, charge-discharge, communication, vibration, and installation fit.
Confirm revision, test records, document status, traceability, packaging, shipping, and production quality control.
If a standard route does not match the project, continue with cell, PACK architecture, BMS, enclosure, connector, and production requirements.
Open Custom OEMRelated technical guides
Prepare selection inputs by duty cycle, runtime, current, charging, envelope, and communication.
Read How to Choose a Battery for a Robot →Confirm protocol, message map, controller, charger, and fault-logic compatibility.
Read CAN vs RS485 for Robot Battery BMS →Turn electrical, mechanical, BMS, certification, and quantity inputs into a quotation-ready list.
Read How to Prepare a Custom Battery Pack RFQ →Category key specs
This section keeps the category's key product capabilities so buyers can judge voltage, capacity, discharge, structure, BMS, and certification range first.
Sourcing language
Robotics custom pack RFQs should state the product route (robot dog / 48V, 72V AMR, or smart module), voltage platform, communication protocol, and duty-cycle current so SKU and integration boundaries are clear in one pass.
For projects that need custom packs for robotics, smart battery systems, and product-route comparison.
State whether the shortlist is robot dog / 48V, 72V AMR, or smart module before opening the matching SKU.
For projects with defined voltage platform, communication protocol, SOC, fault reporting, and charger behavior.
Buying guide & FAQ
Open the robot dog SKU for weight-sensitive 45.5V / 48V platforms, the 72V SKU for industrial robot / AMR higher-voltage packs, and the smart module when a defined bay plus CAN / RS485 reporting is the primary need. Duty-cycle selection belongs on the robotics application page and the How to Choose a Battery for a Robot guide first.
Core inputs are platform, voltage, capacity or runtime, continuous and peak current, envelope, weight, charging, connector, protocol, temperature, and quantity. Use the Custom Battery Pack RFQ Checklist under Resources for the fuller engineering set.
Open the robotics application page and the robot selection guide for platform and duty-cycle method. Open the CAN vs RS485 BMS guide before locking a smart-module protocol. Open Custom OEM when the project is still cross-industry design rather than a robotics product route.
Global delivery and project documentation
Staricell plans cell supply, pack engineering, BMS integration, test records, and shipment documents around each shipping country, application duty cycle, certification target, and production schedule.
Cell supply, pack engineering, BMS integration, production testing, and export documents are planned around each buyer's shipping country, application, and volume schedule.
Project files can cover UN38.3, MSDS / SDS, shipment labels, test summaries, and documentation paths for CE, IEC, UL, RoHS / REACH, and other requirements.
Operating temperature, continuous / peak current, enclosure protection, connectors, chargers, communication interfaces, and field-service needs are reviewed before mass production.
Cell batch data, matching records, BMS settings, inspection results, and aging summaries can be aligned before sampling or pilot production.
Project quote
Share voltage, capacity, application, quantity, target market, enclosure needs, and certification targets. Our team will map the pack architecture and quote path.
