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Bak 14.8V 2200mAh 18650 LiCoO2 Battery for Robot Vacuums & Sweepers

18650 LiCoO2 Battery for Robot delivers 14.8V 2200mAh power, fast charging, and 500+ cycles—ideal for robot vacuums, sweepers, and smart home cleaning devices with seamless integration.

  • Nominal Voltage: 14.8V
  • Rated Capacity: 2200mAh
  • Dimension: 80.7*33*80mm
  • Charge Voltage: 16.8V
  • Discharge current: 0.44A
  • Weight: 220g
  • Operating Temperature: -20~60℃

18650 LiCoO2 Battery for Robot: 14.8V 2200mAh LiCoO₂ Power for Smart Home Cleaning Robots

Introduction

In the landscape of smart home robotics, a 18650 LiCoO2 Battery for Robot that merges high energy density, rapid recharging, and design compatibility is indispensable. This 14.8V 2200mAh 18650 LiCoO₂ Robot Battery is crafted exclusively for robotic vacuums and sweepers, leveraging lithium cobalt oxide chemistry to deliver steady 14.8V power, 2200mAh capacity, and a plug-and-play form factor. As a premium LiCoO₂ Battery for Robot Cleaners, it meets the rigorous demands of daily home cleaning—ensuring your robotic solution never falters mid-task.

Technical Specifications

Table: 18650 LiCoO2 Battery for Robot Core Parameters

Parameter Detail
Chemistry LiCoO₂
Nominal Voltage 14.8V
Rated Capacity 2200mAh
Charge Voltage 16.8V
Charge Current ≤2.2A
Discharge Current 3A
Cycle Life ≥500 Cycles (80% DOD retention)
Dimensions 80.7×33×80mm
Weight 220g
Compatibility iRobot, Ecovacs, Roborock & more

Core Advantages of 18650 LiCoO2 Battery for Robot

1. High-Energy Density for Uninterrupted Cleaning Cycles

2200mAh for 200+ sqm Coverage: This 18650 LiCoO₂ Robot Battery empowers robot vacuums to clean entire multi-bedroom homes in one go—eliminating the need for mid-clean recharges. For families with sprawling living spaces, it’s the assurance of a fully cleaned home in a single cycle.”“14.8V Stable Output for Consistent Performance: Whether tackling thick carpets or hardwood floors, the LiCoO₂ Battery for Robot Sweepers maintains steady voltage to keep suction motors and navigation sensors running at peak efficiency—ensuring no dust or debris is overlooked.”

2. Fast Charging & Long-Lasting Durability

1.5-Hour Rapid Recharge: From 0-80% in just 90 minutes, this 18650 LiCoO2 Battery for Robot gets your cleaner back to work swiftly—perfect for households that rely on daily cleaning routines. Even after 500 cycles, it retains 80% capacity, outlasting generic alternatives by years.”“500+ Cycles for Cost-Effective Use: With a cycle life that far exceeds industry norms, this LiCoO₂ Robot Vacuum Battery is a long-term investment—you’ll replace it less frequently, reducing maintenance costs over time.”

3. Seamless Integration with Smart Home Robots

Plug-and-Play Design for Leading Brands: At 80.7×33×80mm and 220g, the 18650 LiCoO₂ Battery for Robot Vacuums fits flawlessly into the battery compartments of top-tier brands like iRobot, Ecovacs, and Roborock—no modifications required. Its compact profile ensures your robot maintains its sleek aesthetics and maneuverability.”

Application Scenarios

1. Robot Vacuums in Diverse Home Layouts

Multi-Level Home Cleaning: Powers robot vacuums through staircases, bedrooms, and kitchens in one charge—ideal for homes with multiple floors. The LiCoO₂ Battery for Robot ensures consistent performance across different surfaces and elevations.” “Pet-Centric Households: Handles the extra load of pet hair and dander, with 14.8V power sustaining strong suction for thorough cleaning—no clogs or performance dips, even with heavy debris.”

2. Smart Sweeping Robots in Open & Enclosed Spaces

Large Living Area Sweeping: Delivers 2+ hours of continuous runtime, enough to cover spacious rooms and hallways with ease. The 18650 LiCoO₂ Robot Battery keeps sweepers operational through multiple passes, leaving no dust or dirt behind.” “Temperature-Resilient Operation: Performs reliably in basement -20℃ or attic 60℃ environments, so your robotic cleaner is ready to work year-round—whether it’s a chilly winter morning or a scorching summer day.”

FAQ

Q1: What applications are commercial cleaning robot batteries designed for?

A: Commercial cleaning robot batteries are designed for autonomous floor scrubbers, sweepers, vacuum cleaning robots, tank-cleaning robots, and other mobile cleaning equipment used in large facilities. Battery selection should reflect the robot’s required runtime, drive and cleaning loads, charging strategy, available installation space, and system communication needs.

Q2: How do I choose the right battery for a commercial cleaning robot?

A: Start with the robot’s nominal voltage, required usable energy, continuous and peak current, battery compartment dimensions, weight target, connector and charging interface, operating temperature, and communication protocol. For OEM projects, the battery, charger or charging dock, robot controller, and mechanical installation should be validated as one system rather than selected by voltage and capacity alone.

A: There is no single cycle-life figure that applies to every cleaning robot battery. For reference, FEBATT’s published robot-battery specifications list 2,000+ cycles at 80% depth of discharge for some customized configurations. Actual cycle life depends on battery chemistry, depth of discharge, charge and discharge rate, temperature, charging strategy, and the robot’s daily duty cycle. The rated value for the selected model should be used for project evaluation.

A: Yes. FEBATT can tailor voltage, capacity, pack dimensions, mounting design, connector, continuous and peak current capability, BMS functions, and communication interface around the robot platform. As one published cleaning-robot reference, FEBATT lists a 25.2V 19.25Ah configuration measuring 181 x 181 x 91 mm with RS485 and CAN communication, showing how the electrical and mechanical design can be matched to a specific robot.

A: The BMS monitors key battery conditions and can provide protection against overcharge, over-discharge, overcurrent, short circuit, and abnormal temperature. Depending on the pack design, it may also support cell balancing, state-of-charge estimation, fault reporting, and communication with the robot controller. The required BMS functions should be defined according to the robot’s control architecture and operating profile.

A: Yes, when the pack is engineered for the robot’s actual load profile. Commercial cleaning robots can experience current peaks from drive motors, brush motors, vacuum motors, pumps, or other actuators. Instead of relying on a generic C-rate, the battery should be specified using continuous current, peak current, peak duration, voltage-drop limits, and thermal conditions so that startup and heavy-duty operation remain stable.

A: FEBATT cleaning robot batteries can be designed to work with automatic charging systems, but charging docks are not universally interchangeable. Compatibility should be checked for charging voltage and current, contact or connector design, polarity, charging logic, BMS-to-charger communication, and the robot’s docking control. FEBATT’s robot battery solutions also support automated charging approaches, so the battery and charging interface can be matched as part of the project design.

A: Communication can be customized according to the robot controller and fleet architecture. FEBATT robot battery solutions commonly reference CAN and RS485, and one published cleaning-robot battery configuration supports both. During integration, the OEM should confirm items such as baud rate, message definitions, SOC reporting, alarms, charging status, and fault data so that the battery and robot exchange information correctly.

A: Temperature influences available capacity, power output, charging acceptance, aging rate, and protection behavior. As a published reference, one FEBATT cleaning-robot configuration lists an operating-temperature range of -20°C to 60°C. This range should not be treated as universal for every model; the selected battery must be validated against the robot’s actual working environment, especially for low-temperature charging or prolonged high-temperature operation.

A: The charging strategy should match the battery specifications, robot duty cycle, and charger or automatic charging dock. Charging voltage, current limits, connector or contact design, and BMS-to-charger communication should be verified before integration. For multi-shift cleaning fleets, planned opportunity charging can help reduce downtime when it is supported by the selected battery and charging system. The battery and charger should always be validated together rather than applying one charging profile to every robot.

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