E-bike Lithium Battery Tesson Technology

Application

E-mobilities Our Batteries Serve

Electric Scooter

similar to traditional push scooters, but they’re powered by an electric motor. Some are capable of speeds up to 20 mph and typically have a range of around 15-20 miles, depending on the model and battery size.

Battery considerations: Balance between weight and energy density is important. Scooter batteries should be lightweight yet capable of providing a suitable range.

Electric Bicycles (E-bikes)

Various types exist from Pedelecs (Pedal Electric Cycle) to more powerful E-bikes which are closer to mopeds or motorcycles, but still retain the ability to be pedalled by the rider.

Battery considerations: Prioritize high energy density for longer range, lightweight for easier handling, and durability for frequent charging.

Electric Motorcycles

They have all the features of conventional motorcycles but use electric motors and battery packs instead of internal combustion engines.

Battery considerations: Prioritize high power output for quick acceleration and high speed, along with a high capacity for longer range.

Electric Wheelchairs

Propelled by means of an electric motor rather than manual power. They are useful for those who cannot use a manual wheelchair or who need to travel long distances.

Battery considerations: Reliability is paramount. The battery should also be lightweight and compact, and capable of providing a suitable range.

Electric Quad Bikes/ATVs

Electric quad bikes, or All-Terrain Vehicles (ATVs), are off-road vehicles powered by an electric motor. They typically have four large, low-pressure tires, with a seat for the operator that’s straddled by the operator, along with handlebars for steering control.

Battery considerations: High power output for rugged terrain, and durability to withstand the demanding nature of off-road use.

Electric Tricycles

Also known as e-trikes, these are three-wheeled vehicles that are powered by an electric motor. Like e-bikes, they usually have some sort of pedal support and can be used for a wide variety of applications, from personal mobility to cargo transportation.

Battery considerations: High energy density for increased range, and durability for commercial uses.

Real Examples for E-bike Batteries

Ask for More Examples

RECOMMENDED

E-mobility Battery Cells We Produce

At Tesson, we are committed to engineering the future of e-mobilities by leveraging advanced battery chemistries. We utilize Lithium Iron Phosphate (LiFePO4), Lithium Nickel Manganese Cobalt Oxide (NCM), and Lithium Nickel Cobalt Aluminum Oxide (NCA) battery cells, each conferring unique benefits onto our e-mobility products.

LiFePO4: Known for exceptional safety features, LiFePO4 battery cells contribute greatly to the safety of our e-mobility offerings. Their innate chemical stability minimizes risks of overheating and combustion, providing our customers with a secure power source. Despite a slightly lower energy density, LiFePO4 cells counterbalance with a remarkably long cycle life and superior temperature tolerance, rendering them a dependable and robust power source for our e-bikes, electric scooters, electric motorcycles, and electric ATVs.

NCM: With a higher energy density, NCM battery cells allow our e-mobility products to deliver substantial power in a compact package, enhancing performance without compromising on energy capacity. They offer a balanced blend of energy capacity, lifespan, and safety, making them a versatile choice for varied e-mobility applications.

NCA: Integrated in our high-performance e-mobility models, NCA battery cells have one of the highest energy densities among lithium-ion batteries. This allows our e-mobility products to deliver longer runtimes, ensuring your rides are extended. NCA cells also exhibit a commendable lifespan, enhancing the durability and reliability of our products.

By leveraging the unique strengths of these battery chemistries, we provide a harmonious blend of safety, performance, and longevity in our e-mobility batteries. At Tesson, we remain dedicated to offering efficient and reliable power solutions that meet the diverse needs of today’s e-mobility landscape.

Ternary Lithium Battery Cells for E-mobility

Type	Model	Typical Capacity(mAh)	Nominal Voltage(V)	Internal Resistance(mΩ)	Size(mm)	Weight(g)	Charge Cut-off Voltage(V)	Discharge Cut-off Voltage(V)	Continuous Discharge Current(A)	Cycle Life
18650	2000mAh-10C	2000	3.7	≤18	φ: 18.6 /H: 65.3	43	4.2	2.75	20	≥300 Cycle
18650	2000mAh-15C	2000	3.7	≤18	φ: 18.6 /H: 65.3	43.5	4.2	2.75	30	≥300 Cycle
18650	2200mAh-5C	2200	3.7	≤20	φ: 18.6 /H: 65.3	44	4.2	2.75	11	≥300 Cycle
18650	2200mAh-8C	2200	3.7	≤20	φ: 18.6 /H: 65.3	44	4.2	2.75	17.6	≥300 Cycle
18650	2500mAh-8C	2500	3.7	≤18	φ: 18.6 /H: 65.3	44	4.2	2.75	20	≥300 Cycle
18650	2500mAh-10C	2500	3.7	≤18	φ: 18.6 /H: 65.3	45	4.2	2.75	25	≥300 Cycle
18650	2500mAh-3C	2500	3.7	≤30	φ: 18.6 /H: 65.3	44.5	4.2	2.75	7.5	≥500 Cycle
18650	2600mAh-3C	2600	3.7	≤30	φ: 18.6 /H: 65.3	45.5	4.2	2.75	7.8	≥500 Cycle
18650	2000mAh-5C	2600	3.7	≤18	φ: 18.6 /H: 65.3	45.5	4.2	2.75	13	≥1000 Cycle
18650	2900mAh-10C	2900	3.7	≤30	φ: 18.6 /H: 65.3	45	4.2	2.5	10	≥1000 Cycle
18650	3000mAh-5C	3000	3.7	≤20	φ: 18.6 /H: 65.3	47	4.2	2.5	15	≥300 Cycle
21700	4000mAh-8C	4000	3.7	≤18	φ: 21.8 /H: 70.9	68	4.2	2.75	32	≥300 Cycle

LFP Battery Cells for E-mobility

Model	Typical Capacity(mAh)	Nominal Voltage(V)	Internal Resistance(mΩ)	Size(mm)	Weight(g)	Charge Cut-off Voltage(V)	Discharge Cut-off Voltage(V)	Continuous Discharge Current(A)	Cycle Life
4000mAh-3C	4000	3.2	≤20	φ: 26.4 /H: 71.0	92	3.65	2	4	≥2000 Cycle

Download Catalog

Why Choose Tesson

Small Order Acceptable
On-demand Manufacturing
OEM/ODM Acceptable

With two industrial parks, we have a significant presence in the industry, including one of China’s largest lithium-ion cell production plants. Our comprehensive research center focuses on R&D, testing, and verification. Backed by a dedicated team of experts from various disciplines, we hold patents and are recognized as leading technology centers.

Quality Assurance

How Do We Produce Battery Cells

In the production of our 18650, 21700, and 26700 (LFP) battery cells, Tesson leverages advanced manufacturing technology for superior results. From the precise composition of cell materials, to the careful assembly and rigorous testing stages, our state-of-the-art equipment ensures high quality, performance, and safety in every battery cell. Our streamlined process symbolizes a blend of innovation, precision, and commitment to delivering dependable energy solutions.

Get Instant Quote

Frequently Asked Questions

Q1: What factors should we consider when selecting battery cells for e-bikes?

Important factors include energy density for long range, weight for ease of handling, durability for frequent charging, and the overall cost-effectiveness.

Q2: What is the typical life cycle of the battery cells used in e-scooters?

The life cycle of a battery cell varies depending on the specific type and use, but typically, lithium-ion cells can last between 2 to 4 years with regular use.

Q3: How does temperature affect the performance of battery cells in e-motorcycles?

Extreme temperatures can impact battery performance. Cold can reduce the range, while heat can cause faster wear. Therefore, effective thermal management systems are important for e-motorcycles.

Q4: What safety features should be considered for battery cells used in e-ATVs?

Look for battery cells with built-in safety measures to prevent overcharging, overheating, and short-circuiting. They should also be durable enough to withstand the demanding nature of off-road use.

Q5: How is the charging time of a battery cell determined for electric vehicles?

Charging time depends on the capacity of the battery and the power of the charger. Larger capacities require more time to charge, but faster chargers can reduce this time. Consider your customer’s needs and the intended use of the vehicle when selecting battery cells.

Q6: Can battery cells be easily replaced in electric wheelchairs?

The ease of battery replacement depends on the design of the electric wheelchair. However, manufacturers generally aim to make this process as straightforward as possible.

Q7: Are the battery cells used in e-bikes and e-scooters similar?

While both can utilize lithium-based cells due to their high energy density and lightweight characteristics, the exact specifications might differ based on the power requirements and design constraints of the specific vehicle.

Q8: How resistant are the battery cells to water and dust for outdoor electric vehicles like e-ATVs and e-bikes?

Most battery cells for outdoor electric vehicles are designed to be resistant to normal environmental conditions, including water and dust, to ensure their durability and longevity.

Q9: What is the impact of weight on the performance of battery cells in different electric vehicles?

Weight impacts the efficiency and handling of electric vehicles. Lighter batteries can improve the vehicle’s range and make it easier to handle, but this must be balanced against other factors like capacity and durability.

Q10: What is the importance of energy density in battery cells for e-tricycles?

High energy density means more energy storage in a given volume, leading to increased range. This is important for e-tricycles which need to travel longer distances without frequent charging.

18650 Battery Cell

26700 Battery Cell

Empower Your E-bike with Tesson’s Durable Battery Cells