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51.2V Industrial Special Vehicle Battery

  • For the special working conditions of industrial vehicles, the high rate lithium iron phosphate battery is specially customized, which has the characteristics of high rate, long cycle life, high safety performance, strong consistency and wide adaptability to the environment.
  •  The key components and electronic control system have been strictly reliability testing and market verification to ensure the safety and stability of the whole machine performance;
  • CAN bus data transmission, seamless docking with vehicle control system and charging system.

Description

Lithium-ion (Li-ion) batteries have revolutionized the industrial vehicle sector, replacing traditional lead-acid and nickel-based batteries due to their superior performance, efficiency, and sustainability. Industrial vehicles, including forklifts, automated guided vehicles (AGVs), airport ground support equipment, and heavy-duty material handling systems, increasingly rely on Li-ion technology to meet the demands of modern logistics, manufacturing, and warehousing. This article explores the key features, benefits, and technical aspects of Li-ion batteries in industrial applications.

Core Advantages

Li-ion batteries offer distinct advantages over conventional alternatives. First, their **high energy density** enables compact designs, reducing the battery footprint while delivering extended runtime. This is critical for vehicles operating in space-constrained environments like warehouses. Second, Li-ion batteries exhibit **rapid charging capabilities**, often achieving full charge in 1–2 hours compared to 8–10 hours for lead-acid batteries. This minimizes downtime and supports 24/7 operations. Third, they boast a **longer lifespan**, typically lasting 3,000–5,000 cycles (vs. 1,500 cycles for lead-acid), reducing replacement costs and waste. Additionally, Li-ion batteries require **zero maintenance**, eliminating the need for watering or equalization charging.

Technical Specifications

Industrial Li-ion batteries are engineered for robustness. They commonly use **lithium iron phosphate (LFP)** or **nickel manganese cobalt (NMC)** chemistries. LFP is favored for its thermal stability, safety, and cycle life, while NMC offers higher energy density. Batteries are designed to withstand harsh conditions, including vibrations, temperature fluctuations (-20°C to 60°C), and high discharge rates. Key components include:

– **Battery Management System (BMS):** Monitors cell voltage, temperature, and state of charge (SOC), ensuring optimal performance and preventing overcharging or deep discharge.

– **Modular Design:** Allows scalability for varying voltage (24V to 80V) and capacity (100Ah to 1000Ah) requirements.

– **Thermal Management:** Advanced systems (liquid or air cooling) maintain optimal operating temperatures, enhancing safety and longevity.

Operational Benefits

Li-ion technology enhances productivity. **Opportunity charging**—topping up during breaks—extends operational hours without full discharge cycles. Their **consistent voltage output** ensures stable power delivery, unlike lead-acid batteries, which experience voltage drops as they discharge. This improves vehicle performance, particularly in high-load scenarios. Furthermore, Li-ion batteries are **eco-friendly**, containing no toxic lead or acid, and are 95% recyclable, aligning with global sustainability goals.

Applications

1. **Forklifts:** Electric forklifts powered by Li-ion batteries dominate indoor and outdoor settings due to zero emissions and reduced noise.

2. **AGVs:** Autonomous vehicles rely on Li-ion’s fast charging and precision energy management for seamless automation.

3. **Airport Equipment:** Ground support vehicles benefit from high energy density to handle demanding schedules.

4. **Construction and Mining:** Heavy-duty Li-ion batteries power electric excavators and loaders, reducing carbon footprints in rugged environments.

Future Trends

The market for industrial Li-ion batteries is projected to grow at a CAGR of 12% through 2030, driven by electrification and automation trends. Emerging technologies, such as **silicon-anode batteries** and **wireless charging systems**, promise further efficiency gains. Governments and industries are also incentivizing adoption through subsidies and carbon-neutral policies.

Technical Specifications

51.2V MHE Lithium Battery
 48V/315AH48V/420AH48V/525AH48V/630AH
Nominal voltage (V)51.2
Nominal capacity (Ah)315420525630
Electricity (KWh)16.121.526.832.2
SizeCustomize according to demand
Battery weight (Kg)260350450500
Operating voltage (V)44-58.444-58.444-58.444-58.4
Charging voltage (V)58.458.458.458.4
Recommended charging current (A) 150 200 200 200
Rated operating current (A)150200200200
Maximum operating current (A)315420525630
Charging temperature (℃)       0-55
Discharge temperature (℃) -20-55
Storage temperature (℃)  0-45
chemical material Lithium-Ferro Phosphate (LiFePO4)
Warranty5 years or 10,000 hours of work
Suitable vehicle typeLinde L14-16/E15 series; Toyota SPE120/SWE120/LPE200 series; Bolil CDD10/CBD15 series

Technical Specifications

51.2V MHE Lithium Battery
 48V/315AH48V/420AH48V/525AH48V/630AH
Nominal voltage (V)51.2
Nominal capacity (Ah)315420525630
Electricity (KWh)16.121.526.832.2
SizeCustomize according to demand
Battery weight (Kg)260350450500
Operating voltage (V)44-58.444-58.444-58.444-58.4
Charging voltage (V)58.458.458.458.4
Recommended charging current (A) 150 200 200 200
Rated operating current (A)150200200200
Maximum operating current (A)315420525630
Charging temperature (℃)       0-55
Discharge temperature (℃) -20-55
Storage temperature (℃)  0-45
chemical material Lithium-Ferro Phosphate (LiFePO4)
Warranty5 years or 10,000 hours of work
Suitable vehicle typeLinde L14-16/E15 series; Toyota SPE120/SWE120/LPE200 series; Bolil CDD10/CBD15 series

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