Your Professional Battery System Supplier
Wuxi ALP Technology Co., Ltd. (ALP) was established in July 2015 and relocated to the beautiful city of Wuxi in March 2019. As the saying goes, "A workman must first sharpen his tools if he is to do his work well." After ten years of rapid development, ALP has grown into a high-tech enterprise integrating research and development, design, production, and sales, focusing on small intelligent PV off-grid systems and automation equipment.
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![Battery for Transportation Vehicles]()
Battery for Transportation VehiclesVehicle-mounted lithium battery for transportation vehicles is a rechargeable battery used in transportation, such as electric vehicles and electric tricycles, mainly based on lithium-ion batteries.read more
Why choose us
Superior Quality & Performance
We offer better durability, efficiency, functionality products
High-quality materials and advanced technology make products more reliable.
Our Equipment
We have established an ecosystem with off-grid (OFF-GRID) power supply systems for mobile PV carts and rooftop and shipboard PV as the mainstay, complemented by automation equipment and a home green energy system.
Product Application
Our company is dedicated to the research and development of a complete set of integrated PV energy systems for portable trailers and vehicles, and vessels such as RVs, trucks, buses, tricycles,and ships.
Excellent Service
Backed by a professional team, we offer customized pre - sales solutions and round - the - clock post - sales support. As we look forward, ALP Technology will keep innovating and expanding, driving the global clean-energy shift.
Battery For Transportation Vehicles
Lithium-ion batteries power various devices and systems, from medical equipment to renewable energy storage solutions and electric vehicles. However, their inherent energy density poses significant challenges when it comes to transportation. As such, whether by road, sea, or air, mishandling them can lead to serious consequences.
|
Model |
6050 |
6080 |
60110 |
60135 |
|
Battery Voltage |
64V |
64V |
64V |
64V |
|
Capacity |
3.2KWh |
5.12KWh |
7.04KWh |
8.64KWh |
|
Battery |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
|
Discharge Current |
70A |
70A |
120A |
150A |
|
150A |
150A |
150A |
≤50A |
≤50A |
|
Discharging Temperature |
-20℃-60℃ |
-20℃-60℃ |
-20℃-60℃ |
-20℃-60℃ |
|
Charging Temperature |
0℃~55℃ |
0℃~55℃ |
0℃~55℃ |
0℃~55℃ |
|
Type Of Protection Board |
Software (With Bluetooth) |
Software (With Bluetooth) |
Software (With Bluetooth) |
Software (With Bluetooth) |
|
Software (With Bluetooth) |
410*311*164mm |
410*311*194mm |
500*360*184mm |
450*356*210mm |
|
Gross Weight |
29KG |
36KG |
48KG |
59KG |
|
Model |
60160 |
60180 |
72135 |
72180 |
|
Battery Voltage |
64V |
64V |
76.8V |
76.8V |
|
Capacity |
10.24KWh |
11.52KWh |
10.36KWh |
13.82KWh |
|
Battery |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
Lithiumiron Phosphate (LiFePO4) |
|
Discharge Current |
150A |
150A |
150A |
150A |
|
Charge Current |
≤50A |
≤50A |
≤50A |
≤50A |
|
Discharging Temperature |
-20℃~60℃ |
-20℃~60℃ |
-20℃~60℃ |
-20℃~60℃ |
|
Charging Temperature |
0℃~55℃ |
0℃~55℃ |
0℃~55℃ |
0℃~55℃ |
|
Type Of Protection Board |
Software (With Bluetooth) |
Software (With Bluetooth) |
Software (With Bluetooth) |
Software (With Bluetooth) |
|
Dimension |
502*351*240mm |
450*356*252mm |
522*353*208mm |
522*353*248mm |
|
Gross Weight |
73KG |
75KG |
69KG |
89KG |
Advantages
Lithium-ion batteries offer a multitude of benefits for electric vehicles that make them the preferred option in the automotive industry today. Some of the standout advantages include:
Environmental Impact
One of the most significant contributions of electric vehicles, powered by lithium-ion batteries, is the reduction in carbon emissions. Unlike gasoline and diesel-powered vehicles, EVs produce zero tailpipe emissions, contributing to cleaner air and a reduction in overall environmental pollution. The shift to electric vehicles is a crucial step in fighting climate change and reducing our reliance on fossil fuels.
Cost Efficiency
Although lithium-ion batteries can be more expensive upfront than traditional battery types, their long lifespan and lower maintenance costs result in significant long-term savings. With fewer battery replacements and reduced operating costs, electric vehicles powered by lithium batteries are becoming increasingly cost-efficient over time.
Quiet Operation
Lithium-ion battery-powered vehicles are also known for their quiet operation. Since electric cars don’t rely on internal combustion engines, they produce far less noise, providing a smoother and quieter driving experience. This feature not only benefits drivers but also reduces noise pollution in urban environments.
Energy Efficiency
Electric vehicles powered by lithium-ion batteries are significantly more energy-efficient than their internal combustion engine counterparts. EVs convert more energy from the battery to power the wheels, whereas conventional vehicles lose more energy through engine heat and other processes. This efficiency translates into lower energy consumption, making electric vehicles a more sustainable option for transportation.
With the increase in the popularity of electric vehicles, it is important to understand the different types of cell architectures used in them. From lithium-ion cells and cylindrical cells to pouch designs and larger prismatic modules, there are various kinds of cells that make up an EV’s battery pack – each offering performance benefits and drawbacks for a range of applications.
Cylindrical Cells
Cylindrical cells are the most common type of battery used in electric vehicles. They are made up of a metal container with two electrodes (cathode and anode) that contain lithium-ion electrolytes. The size of these cells can be customized to suit the specific needs of the application, making them highly versatile and ideal for EV applications.
Pouch Cells
Pouch cells are an increasingly popular choice for electric vehicles due to their lightweight and flexible design. They consist of two electrodes with a soft pouch between them, filled with electrolyte and sealed with a laminate film. This allows the cell to be shaped as needed – making them ideal for applications where space is limited – such as in EVs.
Prismatic Cells
Prismatic cells are larger and more powerful than cylindrical or pouch cells, making them a great choice for large-scale EV battery packs. These cells are made up of an electrode stack that is sealed in an aluminum casing, filled with lithium-ion electrolytes, and then folded into the desired shape. This allows the cell to be customized for any type of space constraint, making them a great option for larger battery packs.
Application
Highlighting differences in both chemical composition and designated purposes, lithium batteries play two primary roles in transportation: powering propulsion and supplying auxiliary power.
Electric propulsion batteries supply energy for vehicle movement.
Deep cycle batteries are used for auxiliary power units (APUs), delivering electricity for onboard amenities without tapping into the propulsion battery or requiring the engine to idle.
While different in their makeup and purpose, each energy source is crucial, possessing distinct characteristics tailored to its application demands.
Inside a vehicle, lithium-ion batteries power various components, including the motor, climate control, infotainment systems, and more. When a car is in operation, the battery discharges and releases energy to the vehicle's electric motor, which propels the car forward. This process is highly efficient, with minimal energy loss, which is essential for maximizing range and performance.
The battery is integrated into the vehicle’s power management system, which ensures that the battery is properly charged and maintained. The vehicle’s onboard systems monitor factors such as temperature, voltage, and current to optimize the battery’s performance and prevent overheating or other issues that might reduce its lifespan.s.
How Lithium-Ion Electric Vehicle Batteries Are Made
To better answer this question, we need to take a look at the four main components of the lithium-ion EV battery: the cathode, anode, separator, and electrolyte.
Inside a single EV battery cell, the cathode (positive electrode) is installed apart from the anode (negative electrode) by a micro-permeable separator. These two electrodes both contain lithium ions, although there are more in the cathode when the battery isn’t running. The cathode and anode are immersed in an electrolyte solution, through which the lithium ions will flow.
When you turn the EV on, the battery is in a state of DISCHARGING. A chemical reaction occurs which results in lithium ions flowing from the cathode to the anode. This flow generates the electrical energy distributed throughout the EV.
When you turn off your EV and plug the battery in an electrical outlet, it is now in a state of CHARGING. The chemical reaction now happens in reverse. The lithium ions now flow from the anode to the cathode, where it is stored.
This reverse reaction also occurs when you slow down or step on the brakes (also known as “regenerative braking”). The excess kinetic energy produced by the EV also results in the flow of lithium ions from the anode to the cathode, so that more energy is stored.
FAQ
We're professional battery system manufacturers and suppliers in China, specialized in providing the best custom service. We warmly welcome you to buy battery system for sale here from our factory. For price consultation, contact us.
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