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Table of Contents
- How Much Does a Custom Robot Battery Pack Cost in the U.S. in 2026?
- How Much Does a Custom Robot Battery Pack Cost in 2026?
- What Drives Robot Battery Pack Pricing?
- Robot Battery Pack Cost by Application
- How Do LiFePO4 and NMC Costs Compare?
- U.S. Shipping, Tariffs, and Landed Cost
- How Can Buyers Reduce Custom Battery Costs?
- 10 Leading Robot Battery Brands Serving the U.S. Market
- MANLY Battery: Custom Robot Battery Specialist
- Inventus Power: AGV and AMR Systems
- Flux Power: C-Series Automation Batteries
- Green Cubes: Lithium SAFEFlex Robotics
- Ultralife: Rugged Robotics Batteries
- Epec: Advanced Custom Battery Engineering
- Cell-Con: Smart Robotics Battery Packs
- Inspired Energy: Modular Smart Batteries
- RRC Power Solutions: Robotics Power Platforms
- Custom Power: Bespoke Robotics Batteries
- Learn More About Battery
A custom Robot Battery Pack does not have a single national price in 2026. Buyers must budget for engineering, prototypes, cells, BMS hardware, enclosure design, safety testing, production, freight, tariffs, and U.S. handling. Voltage, capacity, peak current, communication protocols, operating environment, and order volume determine the final quotation.
The U.S. Department of Energy used approximately $128–$133 per kWh for mass-produced light-duty vehicle batteries in a 2025 cost methodology. That figure provides context, but it is not a valid quotation for a low-volume industrial robot battery. Custom packs require additional electrical, mechanical, software, testing, and integration work.
A practical budget should therefore separate three figures:
- One-time development and qualification costs
- Prototype and pilot-production costs
- Recurring production and landed costs
How Much Does a Custom Robot Battery Pack Cost in 2026?
A custom Robot Battery Pack costs more than its cells alone. The final project budget combines fixed development expenses with recurring production costs. A standard-derived design usually costs less to develop, while a fully customized high-current pack with proprietary communication and rugged housing requires more engineering and validation.
2026 Cost Snapshot
Public per-kWh battery averages mainly describe high-volume automotive or stationary products. They do not include every cost associated with a custom robotics program.
For budgeting purposes, buyers should evaluate the following layers:
| Cost layer | What it covers | Cost behavior |
|---|---|---|
| Engineering and NRE | Electrical design, mechanical design, BMS configuration, drawings, software, and documentation | Primarily fixed |
| Prototype production | Cells, BMS boards, housings, wiring, connectors, assembly, and testing | Charged per build |
| Tooling and fixtures | Molds, welding fixtures, end-of-line testers, and assembly aids | Fixed or amortized |
| Production units | Materials, labor, quality control, packaging, and factory overhead | Charged per pack |
| Compliance | Transport testing, industrial safety evaluation, reports, and labeling | Design-dependent |
| Landed costs | Freight, insurance, tariffs, brokerage, and domestic handling | Shipment-dependent |
The most useful first quotation is not a single unit price. It is a structured quotation showing each of these cost layers separately.
Development Cost vs. Unit Cost
Development cost pays for creating and validating the battery design. Unit cost pays for manufacturing each approved pack.
A project with high engineering requirements may carry a substantial upfront cost but achieve a lower production price once the fixed work is spread across hundreds or thousands of packs. A small order carries more development cost per unit because fewer products absorb the same engineering and tooling expenses.
Buyers should request two separate commercial figures:
- Non-recurring engineering cost: Paid once for design, software, tooling, and validation.
- Recurring unit cost: Paid for each production battery after design approval.
This distinction prevents an artificially low unit quotation from hiding engineering, certification, or tooling charges elsewhere in the contract.
Prototype, Pilot, and Production Pricing
Prototype, pilot, and production batteries serve different purposes, so they rarely carry the same price.
A prototype proves that the electrical architecture, dimensions, connector position, BMS logic, and robot interface work as intended. Engineers may build or modify several samples before freezing the design.
A pilot run checks whether the approved design can move through repeatable manufacturing and quality-control processes. It may also support field trials, charger validation, robot firmware testing, and compliance work.
Production pricing begins after the design, bill of materials, test limits, firmware, drawings, and inspection criteria remain stable. Larger committed volumes usually improve purchasing efficiency and spread fixed costs across more units.
Cost-Per-Pack Calculation
The following formula gives buyers a clearer estimate than a basic cells-per-kWh comparison:
Delivered cost per pack = production unit price + allocated NRE + allocated tooling and compliance + freight and insurance + tariffs and brokerage + domestic handling
Fixed expenses should be divided by the expected number of delivered packs:
Allocated fixed cost per pack = total fixed project cost ÷ production quantity
Battery energy can be calculated separately:
Nominal energy in kWh = nominal voltage × capacity in Ah ÷ 1,000
A 48V, 100Ah battery stores approximately 4.8kWh of nominal energy. However, two 4.8kWh packs can have very different prices when one uses a basic enclosure and the other requires high peak current, redundant contactors, CAN communication, heaters, cooling, or an IP-rated steel housing.
Engineering and NRE Charges
Engineering and non-recurring engineering charges may cover cell selection, electrical architecture, protection design, BMS firmware, enclosure development, thermal analysis, drawings, prototypes, and production documentation.
These charges increase when the project requires proprietary communication, unusual dimensions, high pulse loads, a new housing, advanced data reporting, or integration with an existing robot controller.
Prototype and Sample Charges
Prototype pricing includes low-volume component purchasing, manual assembly, engineering review, testing, and design revisions. Prototype cells and electronics may also cost more because the robot battery manufacturer cannot yet use production-volume purchasing agreements.
A buyer should confirm how many prototype revisions the quotation includes and whether later changes trigger additional engineering charges.
Production Price Per Pack
The recurring price normally includes cells, BMS electronics, contactors, fuses, wiring, busbars, connectors, enclosure materials, assembly labor, testing, packaging, and factory overhead.
Production prices should specify:
- Battery configuration and cell model
- Approved bill of materials
- Included BMS functions
- Connector and charger scope
- Warranty terms
- Packaging method
- Annual order assumptions
- Quotation validity period
Certification and Shipping Costs
Transport and safety requirements may add laboratory tests, sample packs, technical documents, packaging validation, labels, and retesting after major design changes.
PHMSA states that lithium cells and batteries offered for transportation must pass the applicable UN Manual of Tests and Criteria, Section 38.3 design tests. Manufacturers must also make a compliant test summary available upon request.
IEC 62619:2022 covers safety requirements and tests for secondary lithium cells and batteries used in industrial applications. The exact standards required for a robot project still depend on the battery, machine, operating environment, and customer acceptance plan.
What Drives Robot Battery Pack Pricing?
The price of a Robot Battery Pack depends primarily on cell chemistry, usable energy, continuous and peak power, BMS complexity, mechanical protection, thermal control, charging requirements, and production volume. Small specification changes can affect multiple parts of the design at once.
Cell Chemistry and Grade
Cells usually represent the largest material category in a lithium battery pack. Their price depends on chemistry, cell format, capacity, discharge capability, manufacturer, production grade, and purchase volume.
A reputable robot battery supplier should select cells according to the actual load profile rather than choosing solely by rated amp-hours. Motors, pumps, lifts, actuators, and computing systems can create short current peaks that exceed the robot’s average load.
Cell consistency also matters. The manufacturer must control capacity, internal resistance, voltage, and production-lot variation to maintain predictable pack behavior.
Voltage, Capacity, and Power
Voltage determines the number of cells connected in series. Capacity affects the number of parallel cells and the robot’s available runtime.
Higher energy usually increases cell count, enclosure size, weight, interconnection materials, and assembly labor. High continuous current can require larger conductors, busbars, connectors, fuses, contactors, and cooling provisions.
Peak current deserves separate attention. A battery sized only from average consumption may trigger voltage sag or BMS protection when a robot accelerates, lifts a load, climbs a ramp, or starts several actuators at once.
Custom BMS and Communications
A BMS monitors cell voltage, current, temperature, state of charge, and protection limits. More advanced systems also communicate with the robot controller, charger, fleet platform, or service software.
BMS cost rises with the number of series cells, measurement accuracy, contactor control, data storage, cybersecurity requirements, redundant sensors, and custom firmware.
CAN Bus Integration
CAN communication allows the battery, robot controller, charger, and diagnostic tools to exchange operating data. A custom CAN implementation requires agreed message identifiers, scaling, update rates, fault definitions, and timeout behavior.
The engineering team must test normal operation and fault conditions. Proprietary CAN databases or changing message requirements can increase development time.
RS-485 Communication
RS-485 offers a robust wired interface for industrial environments. The physical interface alone does not define the full system; both parties must also agree on the communication protocol, register map, polling method, baud rate, and error handling.
Using a proven protocol can reduce software work. A fully proprietary register structure requires additional programming and integration testing.
State-of-Charge Monitoring
State-of-charge accuracy affects dispatching, charging, and fleet availability. The BMS may combine current measurement, voltage behavior, temperature, cell characteristics, and learned capacity to estimate remaining energy.
Tighter accuracy requirements demand better sensors, calibration, firmware development, and validation across temperature and aging conditions.
Fault and Temperature Logging
Event logging helps maintenance teams diagnose overcurrent events, undervoltage, high temperature, charger faults, and abnormal cell behavior.
Logging requirements affect memory, firmware, communication, timestamps, data formats, and service tools. Buyers should define which events must be stored and how technicians will retrieve them.
Enclosure and Thermal Design
The enclosure protects cells and electronics from impact, vibration, dust, moisture, and accidental contact. A basic indoor housing costs less than a welded or machined enclosure designed for demanding industrial or outdoor operation.
Thermal requirements depend on current, charging rate, ambient temperature, enclosure volume, chemistry, and duty cycle. Passive conduction or natural airflow may suit moderate loads. Higher-power systems may require fans, heaters, cold plates, pumps, or liquid-cooling components.
Thermal management should follow measured heat generation and operating conditions. Adding an unnecessarily complex cooling system increases material cost, energy consumption, weight, and maintenance.
Charger and Connector Requirements
The charger must match the battery chemistry, series configuration, maximum voltage, charging current, temperature limits, and BMS control strategy.
A complete quotation should clarify whether the Robot Battery Pack price includes:
- An onboard or external charger
- Charging communication
- Power and signal connectors
- Mating connector sets
- Docking contacts
- Cable assemblies
- Emergency disconnects
- Charger certification documents
Custom connectors, high-current contacts, automated docking systems, and proprietary charging protocols add engineering and validation work.
Robot Battery Pack Cost by Application
Application type changes the cost structure because each robot has a different duty cycle, load profile, weight limit, environment, and charging strategy. A warehouse AMR, compact humanoid robot, agricultural platform, and heavy material-handling robot should not use the same pricing assumptions.
| Robot application | Main cost drivers |
|---|---|
| AGV and AMR | Runtime, fleet uptime, opportunity charging, communication, and cycle demand |
| Humanoid robot | Weight, energy density, peak actuator current, and swappable architecture |
| Service robot | Compact dimensions, quiet operation, embedded charging, and user safety |
| Inspection robot | Rugged housing, temperature range, portability, and data reliability |
| Agricultural robot | Dust, water, vibration, outdoor temperature, and long operating shifts |
| Heavy-duty robot | High energy, high current, contactors, cooling, and reinforced enclosures |
AGV and AMR Battery Packs
AGV and AMR batteries must support predictable runtime, repeated acceleration, frequent charging, and communication with the robot or fleet system. Opportunity charging can improve utilization, but it places additional demands on charger coordination, thermal control, and BMS logic.
RRC publishes 24V and 48V power solutions for professional robotics, while Flux Power and Green Cubes offer dedicated AGV and AMR lithium systems. These examples show how voltage platform, energy requirement, charging strategy, and fleet duty cycle shape the final design.
Warehouse Transport Robots
Warehouse transport robots often repeat the same routes and load cycles throughout a shift. This predictable operation helps engineers model energy use, but congestion, payload changes, floor gradients, and idle power still affect runtime.
A suitable battery quotation should use operating logs or a measured duty cycle rather than maximum motor power alone.
Automated Guided Vehicles
AGVs normally follow predefined routes and may use scheduled or opportunity charging. Their battery systems often prioritize dependable shift coverage, industrial connectors, robust housings, and integration with automated charging stations.
The pack may require CAN communication, contactor control, charger interlocks, and precise state-of-charge reporting.
Autonomous Mobile Robots
AMRs make more dynamic routing decisions and may spend substantial energy on sensors, processors, wireless communication, and onboard computing.
The robot battery manufacturer should account for both drive power and auxiliary loads. Fleet operators also benefit from consistent telemetry that allows charging schedules to reflect real battery condition.
Humanoid Robot Battery Packs
Humanoid robots place unusually tight limits on battery mass, volume, center of gravity, and peak current. Their motors and actuators can create rapidly changing loads while onboard computing adds a continuous power demand.
The battery architecture must balance runtime against mobility, thermal control, ergonomics, and replacement speed.
Weight and Energy Density
Higher gravimetric and volumetric energy density can extend runtime without increasing battery size. This makes NMC attractive where mass and volume dominate the design.
LFP remains valuable where cycle use, thermal stability, and cost carry greater weight than minimum mass. Chemistry selection should follow system-level priorities rather than a universal ranking.
Peak Actuator Loads
Walking, standing, lifting, jumping, or recovering balance can produce short power peaks. Engineers must size cells, conductors, connectors, and the BMS for these transient loads.
A pack that meets the required energy capacity can still fail the application if it cannot supply the required pulse current.
Swappable Battery Architecture
A swappable design can reduce charging-related downtime. It also adds mechanical latches, touch-safe connectors, pack identification, insertion detection, communication handshakes, and spare battery inventory.
The cost calculation should include both the installed battery and the number of spare packs needed to sustain the operating schedule.
Service and Inspection Robots
Service and inspection robots often need compact, quiet, and user-friendly battery systems. Indoor products may use simpler environmental protection, while pipe, tunnel, security, firefighting, or outdoor inspection robots require more rugged construction.
Battery cost depends on runtime, portability, ingress protection, charging method, and the consequence of an unexpected shutdown.
Agricultural Robot Battery Packs
Agricultural robots operate around dust, moisture, vibration, uneven ground, sunlight, and changing temperatures. Long routes and remote work areas can also make charging access difficult.
A suitable Robot Battery Pack may need reinforced mounting, sealed connectors, corrosion-resistant materials, wider thermal provisions, and enough usable energy to complete planned field tasks.
Heavy-Duty Handling Robots
Heavy-duty handling robots require high energy and substantial continuous or peak current. These systems may use steel enclosures, high-current contactors, service disconnects, reinforced busbars, active cooling, and multiple safety sensors.
The cost per pack can rise quickly because electrical and mechanical requirements scale together. Buyers should provide payload, speed, gradient, acceleration, shift duration, and charging-window data before requesting a production quote.
How Do LiFePO4 and NMC Costs Compare?
LiFePO4 generally provides the stronger cost, thermal-stability, and cycle-use proposition, while NMC provides higher energy density. The right choice depends on whether the robot prioritizes long operating life and repeated cycling or minimum size and weight.
IEA reported that average LFP battery pack prices in 2025 were more than 40% lower per kWh than NMC alternatives. The figures cover EV and stationary applications, so they indicate the chemistry price direction rather than the exact quotation for a custom robot battery.
| Selection factor | LiFePO4 | NMC |
|---|---|---|
| Average market cost | Lower | Higher |
| Energy density | Lower | Higher |
| Thermal stability | Strong | More dependent on NMC formulation and system controls |
| Typical design priority | Cycle use, safety margin, and cost control | Compact size and lower weight |
| Suitable robot examples | AGVs, AMRs, warehouse robots, agricultural robots | Humanoids, portable robots, weight-sensitive platforms |
LiFePO4 Cost and Cycle Life
LiFePO4 uses iron and phosphate rather than nickel and cobalt in the cathode. Its lower average pack price can support better project economics for fleets that use frequent charge and discharge cycles.
Actual cycle life depends on cell design, depth of discharge, charge rate, temperature, voltage limits, and end-of-life criteria. Buyers should compare warranted pack-level performance under their planned duty cycle rather than relying on a generic cell-cycle claim.
NMC Cost and Energy Density
NMC can store more energy within a restricted mass or volume. This advantage is important for robots that must remain light, compact, agile, or wearable.
NMC formulations vary by nickel, manganese, and cobalt content. Cell selection therefore affects energy density, power, thermal behavior, availability, and price.
Chemistry Selection Trade-Offs
Neither chemistry should be selected from purchase price alone. Engineers should compare usable energy, pack weight, thermal design, replacement schedule, peak power, charging strategy, and the cost of downtime.
Runtime and Weight
A weight-sensitive robot may gain meaningful mobility from NMC’s higher energy density. A floor-based industrial robot may accept additional mass in exchange for LFP’s favorable cost and operational characteristics.
The correct comparison uses complete pack weight, not cell weight alone. Enclosure, cooling, BMS hardware, contactors, connectors, and mounting components affect the final result.
Safety and Thermal Stability
Research comparing lithium chemistries generally identifies stronger thermal stability in LFP cathodes than in nickel-rich NMC designs. Pack-level safety still depends on cell quality, electrical protection, mechanical design, thermal management, manufacturing control, and correct operation.
A responsible robot battery supplier should address normal operation and foreseeable faults, including overcurrent, overcharge, external short circuit, temperature extremes, vibration, and charger failures.
Replacement Frequency
Replacement frequency affects battery purchasing, maintenance labor, spare inventory, logistics, recycling, and robot downtime.
A lower-cost pack can become expensive if it requires frequent replacement. A higher initial price may deliver better value when the battery remains stable across the required operating period.
Peak Power Demand
Chemistry alone does not determine peak power. Cell format, electrode design, internal resistance, parallel count, temperature, wiring, connectors, and BMS limits all influence current delivery.
Suppliers should validate both sustained current and short pulse loads using the expected state of charge and temperature range.
Lifecycle Cost Comparison
A practical lifecycle calculation should include:
Lifecycle battery cost = initial project cost + replacement packs + maintenance labor + charging losses + spare inventory + downtime + end-of-life handling
For high-utilization fleets, battery life and charging availability can matter more than the lowest first-purchase price. Buyers should model several operating years and test different replacement and spare-pack assumptions.
U.S. Shipping, Tariffs, and Landed Cost
U.S. buyers should compare landed cost rather than factory price. International lithium battery shipments may involve dangerous-goods packaging, documentation, freight surcharges, insurance, customs duties, Section 301 tariffs, brokerage, and domestic delivery.
Freight and Hazmat Handling
Lithium batteries must follow applicable transport requirements for their chemistry, energy rating, packaging configuration, and shipping mode.
PHMSA requires lithium batteries offered for transportation to pass the applicable UN 38.3 design tests. A compliant test summary must be available, and the shipping documentation must match the tested battery design.
Large packs can also incur costs for:
- UN-specified packaging where applicable
- Terminal protection
- Short-circuit prevention
- Dangerous-goods declarations
- Trained shipping personnel
- Cargo aircraft restrictions
- Pallets or custom crates
- Freight insurance
Section 301 Tariff Exposure
USTR’s tariff modification covers China-origin lithium-ion batteries classified under HTSUS 8507.60.0020, “Lithium-ion batteries: Other,” with an additional Section 301 rate of 25% scheduled for 2026. The final classification depends on the imported product and should be confirmed before purchase.
A customs broker should verify the current HTS classification, applicable base duty, Section 301 treatment, exclusions, and any other measures in effect on the entry date.
Verify HTS Classification
The battery’s specifications, construction, intended use, and imported condition can affect classification.
Do not select a tariff code only because another battery used it. Provide technical drawings, chemistry, voltage, capacity, application, and product configuration to the customs professional.
Confirm Country of Origin
Country of origin is not always the same as the country of shipment. Customs treatment can depend on where substantial manufacturing occurred.
The purchasing contract should identify manufacturing location, origin documentation, exporter, importer of record, and responsibility for customs charges.
Review Current Tariff Rates
Tariff policies can change after a long-term supply contract begins. Buyers should recheck rates before each major order and define who bears unexpected tariff changes under the selected Incoterm.
A quotation marked DDP, DAP, CIF, or FOB can allocate freight, insurance, duties, and import responsibilities differently.
Customs Brokerage and Duties
Brokerage fees may cover entry preparation, classification review, bond charges, government filings, disbursement fees, and communication with customs authorities.
The importer should also confirm whether the shipment needs a continuous bond, single-entry bond, additional agency review, or special documentation.
Domestic Warehousing Costs
Domestic costs can include unloading, pallet handling, inspection, storage, inventory management, repacking, final-mile delivery, and compliant handling of damaged or returned batteries.
Large industrial packs may need forklifts, restricted storage areas, or special receiving procedures. These costs should appear in the landed-cost model before the buyer compares suppliers.
Landed Cost Calculation
Use the following structure:
Landed cost = product value + tooling allocation + export packaging + international freight + insurance + customs duty + Section 301 duty + brokerage + port charges + domestic freight + warehousing
The delivered cost per battery is:
Delivered cost per pack = total landed shipment cost ÷ accepted pack quantity
Use accepted quantity rather than shipped quantity so the calculation accounts for inspection failures, damage, or rejected units.
How Can Buyers Reduce Custom Battery Costs?
Buyers can reduce custom battery costs by standardizing proven elements, freezing requirements early, matching BMS functions to real operating needs, planning compliance before tooling, and providing reliable volume forecasts. Cost reduction should remove unnecessary complexity rather than weaken protection or validation.
Reuse Proven Cell Formats
Using established cell formats and qualified cell families can reduce sourcing risk, design work, and validation effort.
A proven cell does not eliminate pack testing, but it gives the robot battery manufacturer a more stable starting point for electrical, mechanical, and thermal development.
Standardize Voltage Platforms
Using a common voltage platform across several robot models can simplify chargers, service parts, BMS architecture, connectors, and technician training.
Standardization works best when the selected voltage still supports motor efficiency, cable sizing, current demand, and regulatory requirements.
Simplify BMS Functions
Specify the data and controls the robot genuinely needs. A basic battery may require protection and state-of-charge reporting, while a fleet platform may need CAN telemetry, event history, remote diagnostics, and charger control.
Removing unused messages, interfaces, sensors, and custom software can reduce development and testing without weakening essential battery protection.
Plan Certification Early
Identify transport, battery, machine, customer, and target-market requirements before freezing the enclosure or ordering tooling.
IEC 62619:2022 applies to the safe operation of secondary lithium cells and batteries in industrial applications. UN 38.3 addresses transport testing. Other requirements depend on the complete robot and intended market.
Late certification planning can force changes to cells, spacing, insulation, fuses, labels, enclosure materials, software, or packaging.
Forecast Annual Demand
A credible forecast helps suppliers negotiate cells, reserve components, plan labor, and allocate production capacity.
Buyers should separate:
- Prototype quantity
- Pilot-run quantity
- First production order
- Quarterly demand
- Annual demand
- Service and replacement inventory
Long-term commitments should remain realistic. An inflated forecast may produce an attractive quotation that cannot be maintained when actual orders remain lower.
Compare Total Cost of Ownership
The lowest factory price does not always produce the lowest operating cost. Evaluate how the battery affects uptime, charging schedules, spare inventory, maintenance, replacement labor, and robot availability.
Battery Replacement Frequency
Estimate replacement intervals from the real depth of discharge, temperature, charging rate, calendar time, and operating schedule.
The comparison should use a consistent end-of-life threshold and include labor, transport, installation, and disposal.
Robot Charging Downtime
A battery with insufficient charging power or runtime can reduce productive hours. Measure the financial effect of each charging stop rather than treating charging time as a purely technical figure.
Fast charging may improve utilization, but it must remain within the cell, BMS, connector, and thermal limits.
Spare Pack Requirements
Swappable batteries can keep robots moving, but spare packs increase upfront investment and storage requirements.
Calculate the minimum number of spares needed for charging, maintenance, unexpected failures, and peak shifts.
Opportunity Charging Strategy
Opportunity charging uses short idle periods to add energy between tasks. It can reduce the required battery size or spare-pack count in suitable fleets.
The Robot Battery Pack, charger, docking contacts, BMS, and fleet schedule must support the same strategy. Poor coordination can create incomplete charging, excess heat, or unpredictable availability.
10 Leading Robot Battery Brands Serving the U.S. Market
These 10 brands provide robot, AGV, AMR, automation, or custom battery solutions to projects serving the U.S. market. MANLY Battery stands out for buyers seeking broad customization across voltage, capacity, current, dimensions, chemistry, enclosure, communication, and robot type.
MANLY Battery: Custom Robot Battery Specialist
MANLY Battery provides custom battery solutions for AGVs, AMRs, RGVs, warehouse robots, industrial robots, service robots, cleaning robots, agricultural platforms, and other automated equipment.
Its published 24V 50Ah MLP2450M demonstrates the company’s robot-focused approach. The LiFePO4 pack supports customized voltage, capacity, current, dimensions, appearance, housing, and communication options including RS-485, RS-232, and CAN bus.
AGV and AMR Battery Packs
MANLY Battery can tailor the Robot Battery Pack around the robot’s voltage platform, runtime, peak drive current, charging window, compartment dimensions, and communication requirements.
This flexibility supports warehouse fleets that need repeatable energy delivery, BMS data, industrial connectors, and compatibility with automated or manual charging systems.
Humanoid Robot Battery Solutions
Humanoid and mobile service robots need careful control of mass, dimensions, peak actuator loads, and battery placement.
MANLY Battery’s OEM and ODM capabilities allow project teams to specify chemistry, series-parallel configuration, current limits, enclosure shape, connectors, and BMS communication for the host robot.
Industrial Robot Power Systems
Industrial robots may face vibration, dust, moisture, repeated load peaks, and long operating shifts.
MANLY Battery offers customizable housings, BMS protection, communication interfaces, and current ratings for storage robots, industrial robots, cleaning robots, AGVs, RGVs, and related equipment.
LiFePO4 and Lithium-Ion Options
MANLY Battery works with LiFePO4 and other lithium-ion configurations. This allows engineers to prioritize cycle use, thermal stability, energy density, weight, or available installation space.
LiFePO4 is particularly relevant to AGVs, AMRs, agricultural robots, and industrial platforms that operate frequently and can accommodate a slightly larger battery.
Custom BMS and Communication
Available communication options include CAN bus, RS-485, RS-232, and other interfaces by request. The BMS can be configured around voltage, current, cell balancing, charge control, temperature monitoring, and robot-controller communication.
This level of customization helps OEM teams integrate battery status, alarms, charging logic, and service data into the complete robot system.
OEM and ODM Production
MANLY Battery supports customized voltage, capacity, current, size, appearance, enclosure materials, connectors, and communication protocols.
For U.S. robotics projects, buyers can submit compartment drawings, load data, charging requirements, environmental conditions, annual volume, and compliance targets to develop a production-ready specification.
Inventus Power: AGV and AMR Systems
Inventus Power develops lithium-ion systems for motive applications, including AGVs, AMRs, cobots, cleaning equipment, and material-handling platforms.
Its robotics content emphasizes fast charging, opportunity charging, battery intelligence, and utilization across automated fleets.
Flux Power: C-Series Automation Batteries
Flux Power offers the C-Series for AGVs, AMRs, automated warehouses, and industrial robotics.
Its C48 system uses a 51.2V nominal LiFePO4 architecture, integrated BMS with CAN communication, an IP-rated enclosure, and a published capacity of approximately 28.7kWh.
Green Cubes: Lithium SAFEFlex Robotics
Green Cubes supplies Lithium SAFEFlex solutions for AGVs, AMRs, material handling, and automated robotics.
The company offers customized batteries and chargers based on robot runtime, size, power, charging, and integration requirements. Its systems emphasize LFP chemistry, BMS monitoring, and opportunity charging.
Ultralife: Rugged Robotics Batteries
Ultralife and Accutronics provide rechargeable batteries for logistics robots, medical robots, military platforms, autonomous underwater systems, and other professional robotics.
Their portfolio includes standard batteries, smart batteries, chargers, and custom development for robots that require rugged construction or specialized integration.
Epec: Advanced Custom Battery Engineering
Epec provides custom battery design, BMS integration, enclosure development, testing, fixtures, programming, certification support, and production preparation.
Its advanced development category explicitly includes robotics, AGVs, aerospace, defense, and high-power industrial systems.
Cell-Con: Smart Robotics Battery Packs
Cell-Con develops custom lithium-ion and LiFePO4 smart batteries with CAN bus, SMBus, or I²C communication.
Its capabilities cover electronics, fuel gauging, protection, chargers, molded enclosures, and large-format batteries for industrial and robotics applications.
Inspired Energy: Modular Smart Batteries
Inspired Energy supplies smart lithium-ion batteries and chargers for OEM equipment, including robotics, industrial devices, and medical products.
Its N-Series includes rugged intelligent batteries for robotics, while its wider product range supports smart communication and standard-platform integration.
RRC Power Solutions: Robotics Power Platforms
RRC Power Solutions offers standard batteries, chargers, and power-management products for professional robots.
Its robotics portfolio includes solutions for 24V and 48V applications, covering humanoid robots, industrial robots, service robots, AMRs, and AGVs.
Custom Power: Bespoke Robotics Batteries
Custom Power designs and manufactures battery packs for autonomous robots, agricultural automation, logistics systems, unmanned vehicles, and other demanding equipment.
Its portfolio includes custom battery engineering and configurable modular platforms with BMS and CAN communication for applications requiring scalable voltage, capacity, and enclosure design.
