Best lithium ion battery: The Ultimate Guide

Best lithium ion battery: The Ultimate Guide. All information you’re looking for about the best lithium iron phosphate battery is right here. Whether you want to know the dealership, how to be a dealership, or pricing&cost, the answer is right here. Read this guide to learn how to make importing lithium ion batteries simple.

  1. Features to consider when choosing the lithium-ion battery
  2. Main parts of lithium ion battery
  3. Lithium-ion Battery Compared to Lead-acid
  4. Best Material for Manufacturing Lithium-ion Battery
  5. Limitations of Lithium-ion Battery.
  6. The Manufacturing Process of a Lithium-ion Battery
  7. How to Troubleshoot a Lithium-ion Battery?
  8. Factors Determining Lithium-ion Battery Price
  9. Safety Features of a Lithium-ion Battery
  10. The future of Lithium-ion Batteries
  11. How to Skyrocket business with a Lithium-ion Battery Dealership
  12. Quality Standard Specifications of a Lithium-ion Battery
  13. Benefits of Lithium-ion Battery Rechargeable Fully
  14. How to Conduct Factory Acceptance Test for Lithium-ion Battery?

Features to consider when choosing the lithium-ion battery

Today, life has become totally remote. Therefore, the use of batteries has also become necessary to keep our routine going. The demand for batteries is increasing day by day. Hence, there is every kind of battery available on the market. But we should choose very carefully considering the reliability and safety concerns. The lithium-ion battery is the recommended and most promising technology to choose for the batteries. Today, I have discussed some features of the lithium-ion battery that you should consider when choosing.

High power density: It contains a high energy storage capacity. Hence, suitable for mobiles, PCs, energy-efficient vehicles, electrical equipment, and much more.

Less maintenance required: Unlike other technical batteries, a Li-ion battery does not require periodic charging and disposal because it requires less maintenance.

Low-temperature storage: Li-ion batteries, when stored in cool places, become more efficient for performance.

Self-discharge: It is one of such batteries that do not need to have a current to get charged. Li-ion also has characteristics to be set by itself.

Durability and Reliability: The li-ion battery is reliable and suitable for many energy-efficient applications. It does not need to be changed frequently and lasts long.


Lithium-ion batteries are efficient in performance and service life. Therefore, its demand and use have increased over time. It is used for many electrical or energy-efficient applications. Before choosing it, you should consider its features like power density, maintenance, reliability, and service life.

Main parts of lithium-ion battery

Lithium ion, one of the worldwide used batteries was first produced in 1991 by Sony. Lithium ion batteries, nowadays have a potential range of use including their excellent performance in cars, airplanes, mobile phones, large-scale solar systems, and in small households as an energy storing device.

A lithium ion battery is made of four main and essential components such as cathode, anode, electrolyte and salt bridge or separator. These parts are the basics of a lithium ion battery and the battery may not function as an energy source without any of these four parts.

1) Cathode:

Is made of lithium and is known as a negative node or negative terminal. This electrode absorbs electrons from the external circuit and is the source of lithium ions. Determination of the capacity and voltage of a battery relates to the cathode.

2) Anode:

The anode is referred to as the positive node or positive terminal. This electrode gives up electrons to the external circuit and is the storing unit of every type of lithium ion battery. As a result, the anode is oxidized (loses electrons) during the discharge of the battery. And cathode is oxidized during the charging reaction of the battery.

3) Electrolytes:

Electrolytes are generally liquids such as water with dissolved salts, acids or alkaline that function as a conductor between anode and cathode inside the battery.

4) Salt bridge:

A salt bridge even referred to as a separator is a porous material used to separate the two electrolytes (anode and cathode), but yet to maintain them connected. So that the chemical reaction would not stop.

Lithium-ion Battery Compared to Lead-acid

Energy is becoming the commodity of almost every human’s life now a day. Every individual is looking for an effective, efficient, and economic device to facilitate their needs in energy-related appliances. Thus storing energy can be considered the most wanted and significant phenomenon in an energy system.

Battery, as an electrical storage medium, is the most important and delicate part of every type of solar energy system, RV, EV, E-bike, forklift, and others. While searching for an energy storage battery used in all the systems mentioned above, two of the most common battery chemistry types are lithium-ion and lead-acid. The electrode part of a lithium-ion battery is made of metal lithium, while a lead-acid is made of metal lead. In this short article, we will explain, how is a lithium-ion battery compared to lead-acid.

Lithium-ion or lead-acid battery, which one to purchase?

Normally, differences come in performance and cost from the difference in the chemistry of batteries. However, both lithium-ion and lead-acid batteries can be considered perfect energy storage devices, here is how they stack up when compared head to head.


If you are looking for a battery at a lower price, then a lead-acid battery can simply be your choice. Purchasing and installing a lithium-ion battery system can be numerous times more expensive than a similarly-sized lead-acid battery system. despite, the higher purchasing and installation cost of a lithium-ion battery, the life cycle of a lithium-ion battery dominates over several types of batteries used in any energy storing system.


Capacity is a measure of stored charge or energy within a battery. In addition, capacity is one of the most significant factors in selecting a battery. Normally, batteries with higher capacity rates are preferable. however, they may have a high cost. A lithium-ion battery is basically of high capacity compared to a lead-acid battery, occupying the same physical size. It means that more charge may be stored in a lithium-ion battery and consequently, can be used for longer periods of time, draining energy.

Normally, a lithium-ion battery comes with three cells each of 2.6 Ah, and is combined in parallel to produce 7.8Ah, or ten 2.6Ah cells to produce 26Ah. But you can even get numerous cells of high Ah rating to fulfill your requirements of high capacity demand.

Depth of discharge

The factor, depth of discharge means what percentage of the stored energy can you drain safely after charging it completely. For example, if a battery has 60% of the depth of discharge rating, then it means that you should drain or use 60 percent of its stored energy, or it will severely be damaging to the life of the battery if used after the depth of discharge limit is reached.

Generally, a lithium-ion battery comes with 85% of the depth of discharge. On the other hand, a lead-acid battery has a depth of discharge of less than 50%. Indicating that a lithium-ion battery is suitable and efficient enough for cases where powering loads and draining energy for long periods of time is wanted.


The efficiency of a battery means how much energy stored in the battery is actually available for powering loads and how much is lost inside the battery. The lithium-ion battery has a leading efficacy than a lead-acid one. The 95 or more than 95 percent of efficiency for lithium-ion batteries can be considered so reliable, in contrast to the 80-85 percent efficiency of a lead-acid battery.

Life cycle or lifespan

One charging and discharging operation of a battery is referred to as one cycle of the battery. A battery cannot be used infinite times of charge-discharge cycles. Due to each charge-discharge cycle, the capacity of a battery decreases slightly. Therefore, choosing a perfect number of charge-discharge cycle batteries is a common desire of any buyer.

The number of life cycles of any battery may vary from study to study and from type to type. But the lithium-ion battery can last several times of life cycles compared to a lead-acid battery. As one can note a lithium-ion battery can complete 300-500 life cycles comfortably. Which is a high rate compared to the 50-100 life cycles of a lead-acid battery.


Getting to understand all of the above explanations, you can now decide whether the type of these two batteries is of your choice. But to be clever, one can easily decide that lithium-ion battery is the most effective, efficient, capacitive and lasting much time in contrast to the lead-acid battery. However, in cases where battery energy is not of frequent use, a lead-acid battery may be a better decision. By doing this, you can avoid many of the drawbacks of a lead-acid battery and save your budget instead of investing it in a high-cost lithium-ion battery.

Best Material for Manufacturing Lithium-ion Battery

There are many choices for selecting the best materials for manufacturing a lithium-ion battery. And deciding whether materials can be the most perfect choice, depends on the cost, efficiency, charge storing capacity, safety and lifespan of the materials. So the manufacturer then can pick up the best material among all different alternatives to have the best aggregation of normally used materials in a lithium-ion battery.

But before we enter the main subject, the best material for manufacturing a lithium-ion battery, it’s quite important to have a brief review of the main parts of a lithium-ion battery.

Anode:   Anode is referred to as the positive node or positive terminal. This electrode gives up electrons to the external circuit and is the charge storing unit of every type of lithium-ion battery. As a result, the anode is oxidized (loses electrons) during the discharge of the battery.

Cathode: cathode is known as a negative node or negative terminal. This electrode absorbs electrons from the external circuit and is the source of lithium ions.

Electrolytes:   Electrolytes are generally liquids such as water with dissolved salts, acids or alkalis that function as a conductor between anode and cathode inside the battery.

Salt bridge:   A salt bridge or a separator is porous material used to separate the two electrodes (anode and cathode), but yet to maintain them connected. So that the chemical reaction would not stop.

Now having a general idea about all the parts of a lithium-ion battery, let’s log in to the main article which is, indicating the perfect material for producing a lithium-ion battery.

Anode Best Materials for a Lithium-ion Battery

There is a range of materials used to manufacture the anode of a lithium-ion battery such as lithium, graphite, lithium-alloying materials, intermetallic, and silicon. Lithium can be simply pointed out as a perfect anode material but can cause problems with cyclic behavior. Graphite anodes can be considered the most utilized anodic material because of the very low price and sufficient availability. However, its poor theoretical capacity (372mAh/g) is of special concern. Alloy and intermetallic anodes have high capacities but can have mighty volume change that results in a less lifespan.

Cathode Materials for a Lithium-ion Battery

Generally used materials as the cathode part of a lithium-ion battery are, the oxides of lithium-metal (such as LiCoO2, LiMnO4), vanadium oxides, olivine, and rechargeable lithium oxides. Lithium-metal oxides encompassing cobalt and nickel are the most commonly selected materials but due to the scarce amount of cobalt in nature and its toxic characteristic, it may have some drawbacks. Manganese offers a low-cost alternative with a high thermal threshold but has some limited cycling behaviors. Vanadium oxides show large capacity and the best kinetics. However, due to lithium insertion and extraction, it may have cyclic limitations.

Electrolyte Materials for a Lithium-ion Battery

Selecting an adequate electrolyte material becomes very significant, due to the matter that it should be able to withstand the battery’s existing voltage and high temperatures. Well-known electrolyte materials can be categorized as liquid, polymer and solid-state electrolytes. Liquid electrolytes are generally organic and solvent-based. Flammability is their most common consideration. Polymer electrolytes are usually mixed in composites with ceramic nanoparticles, causing higher conductivity. Solid electrolytes are lithium-ion crystals and ceramic glasses. their exclusive criterion is that they eliminate the need for separators and the risk of thermal runaway.

Separator Materials for a Lithium-ion Battery

Separators are either considered to be synthesized in sheets and assembled with electrodes, or deposited onto one electrode. For liquid electrolyte materials, the separator can be a foam material that is soaked with electrolytes and held in place. However, separators for solid and some polymer electrolytes are not required.


During the above article, a range of lithium-ion battery materials was discussed and their well-known characteristics were analyzed briefly.

  • The most perfect material for the anode part of a lithium-ion battery can be suggested as graphite powder, due to the fact that graphite anodes can overcome the voltage requirements of the generally used cathode. They are economic, light and may not result in any aging troubles relative to other anode materials.
  • To get the best cathode material, normally the mixture of cobalt, nickel and manganese or lithium cobalt oxides is often used to combine the best properties and to meet all requirements.
  • Ionic liquid-based electrolytes can simply be suggested by many manufacturers for a lithium-ion battery as the most efficient, reliable and safe electrolytes. However, Solid electrolytes may also be considered, since they reduce the separator cost of the battery.
  • Polyethylene and polypropylene are the most commonly used separator materials, which present high performance and excellent safety considerations.

Limitations of Lithium-ion Battery

Lithium-ion, the fastest-growing battery chemistry, is of special interest to almost every energy consumer. Its high energy density, high depth of discharge, perfect cell voltage (3.6v), low maintenance, (approximately half self-discharge rate compared to all other batteries), and excellent life cycle, are all a lithium-ion battery exclusive and fantastic specifications, that make lithium-ion battery the most sufficient and practical technology in battery manufacturing market.

Despite all its interesting and advantageous characteristics, a lithium-ion battery does gain some limitations and drawbacks. Which can sometimes be of special concern for the users. Below are some of the limitations and disadvantages of a lithium-ion battery.

Requires an Extra Protection Circuit

A protection circuit is generally required for each pack to maintain safe operation during its charge and discharge period. The main task of a protection circuit is to safeguard the battery from reaching its peak voltage during the charging process, and from dropping to a too low voltage during the discharging process. And by doing this, the cell temperature is also controlled to a state with no hazard of maximum temperature state.


Aging is another frequent concern of a lithium-ion battery. However, many lithium-ion battery manufacturers do not reveal a complete explanation of this matter, but one can easily notice that a lithium-ion battery does lose its efficiency after 2-3 years. Thus if stored in a cool place and used at a regular 40% depth of discharge, the battery can even reduce its aging effect. Consequently, a matter of profit is that this is still a healthy life cycle in contrast to other battery chemistries.

High Purchasing Cost

The high purchasing cost of a lithium-ion battery is another barrier to its validity in many RVs, EVs, fishing boats, E-bike, and solar energy storage systems. A lithium-ion battery costs 40% higher than a nickel-cadmium battery, hundreds or even thousands of dollars high than lead-acid ($121/kwh*100*6 for a lead-acid battery and $605/kwh*50*1, initial cost for a lithium-ion battery). In addition, this can be the case for every battery cost compared to the lithium-ion battery. However, the payback period of lithium-ion batteries can be cost-effective compared to almost any type of battery technology.

Danger of Explosion

Lithium-ion battery, which is rapidly making their place in transportation and energy storage systems worldwide, can create some safety concerns such as fire and explosion hazards. The lithium-ion cells can undergo the thermal runaway in some events and can result in an explosion. This explosion may cause by the release of flammable gases inside the confined battery cells and can damage the whole battery or even a valuable object or human being near it. It is important to notice that these gases can result from chemical reactions inside the cell, from over-state of charge, and other parameters.

The Manufacturing Process of a Lithium-ion Battery

A lithium-ion battery is manufactured through different processes and of many materials. And they can be categorized into three steps such as electrode manufacturing, cell assembly and cell finishing. One of its most significant parts anode is made of lithium cobalt oxide (having extremely high cycling properties at high voltages), a crystalized carbon as the cathode and organic solvent, optimized for the specialty carbon as the electrolyte. But the procedures and processes steps for manufacturing a lithium-ion battery can be summarized as follows.

Electrodes Manufacturing

For producing electrodes of a lithium-ion battery, the manufacturers proceed through a number of processes and steps. Thus Some of lasting much time and some pass rapidly. The complete manufacturing process is as follows.

  • Cast a slurry onto a metallic current collector, containing some active material, conductive carbon and a binder.
  • The binder generally polyvinylidene fluoride, is used to pre-dissolve in the solvent part of the electrolytes. The solvent can usually be N-Methyl-2-pyrrolidone.
  • The mixing process continues for a while and during the process, the binder flows around and coat the active material and carbon particles.
  • The resulting slurry is then cast onto the current collector and after drying it, the process ends. Hence, the drying process may take a long period of time, assisted with an extraordinary evaporating system. It can take 12-24 hours at 120° C for the electrodes to dry completely.

The electrode of a lithium-ion battery can also be manufactured by spray painting techniques. During the spray painting technique, some specific NMP based paints are used to spray each component of electrode onto the desired surface. The spray painting technique still requires an evaporating system to dry the electrodes at higher temperatures.

Electrolytes Manufacturing

Filling electrolytes falls in the cell assembly step of the battery manufacturing process. Electrolytes, most commonly of three types are liquid, polymer and solid-state electrolytes. In which, every type with the materials used has particular advantages and limitations. But whether the type of electrolyte is chosen can be filled into the battery after the cathode-anode step is done.

  • The electrolytes are filled into the battery after the electrode is manufactured.
  • While filling the electrolyte into the battery cell, a high-precision dosing needle is used to cast it into the battery cell.
  • The electrolytes should be filled in a manner that can wet the electrodes and separator, which can be one of the most gradual steps in battery production.

All the other parts such as insulators, seals and safety devices attachment fall into the battery finishing step, which is carried out after the two crucial steps and the battery is charged fully for testing.


How to Troubleshoot a Lithium-ion Battery?

How to troubleshoot or maintain a lithium-ion battery, is a frequently asked question by many consumers. Furthermore, this is a general concern with all types of battery technologies. Hence, any charge storing technology or battery is approximately the highest costed portion of any electrical device.

Thus lithium-ion battery is leading battery chemistry compared to all other batteries in its many behaviors. It has a higher capacity and higher cell voltage (2.9v-4.2v). It shows less self-discharge and is environmentally friendly as well as having an excellent lifespan. But as with every type of battery, lithium-ion needs some maintenance and troubleshooting which is being discussed in the following article.

What If the Battery Reduces Its Voltage?

If the voltage of a lithium-ion battery cell is getting reduced (below 2v), then care must be taken to repair it or it can affect battery life, which can cause result in high self-discharge or uneven current.

Solution: Charge the battery by using the charger directly with over-voltage protection.

If the Battery has High Internal Resistance

The internal resistance of a lithium-ion battery will increase highly 1. if it detects equipment differences. 2. if stored for a long time, would also result in excessive capacity loss and increase the internal resistance of the battery. 3. Or it can be the reason for abnormal heating during its manufacturing process (spot welding or other).

Solution: the trouble can be shot by testing it via the AC bridge method for case 1, having a charge and discharge activation for case 2, and paying extremely high concentration to welding procedure by manufacturers for case

Expansion of Lithium-ion Battery

Sometimes, the lithium-ion battery can naturally expand if overcharged. The overcharging phenomenon normally causes the electrolytes of the battery to decompose, increase internal pressure and consequently reach an expansion. In addition, the battery can also be expanded during its manufacturing process.

Solution: the lithium-ion expansion resulting from overcharging can be avoided by a controlled charging mechanism. Particularly the battery should not be charged for more than 12 hours at a time. And the manufacturers are strictly required to control the entire battery production process to prevent any short circuits and overheating.

If the Battery Reduces Lifespan

Sometimes, lithium-ion battery does not last for the indicated life cycle and shows a capacity reduction heavily. That can be due to high charging and discharging or lack of the prescribed temperature while charging or discharging.

Solution: An important factor in charging a battery is not to charge it up to 100% which can cause a severe disorder of battery voltage and energy-saving capacity. Instead, an 85% charging limit is suggested by almost all manufacturers. Furthermore, high discharge can also result in, potential capacity losses for a lithium-ion battery. It is predicted that 5-10 shallow discharge cycles are equal to one full discharge. In addition, obeying the C rating for charge-discharge cycles is more effective for safe battery function.

Factors Determining Lithium-ion Battery Price

Lithium-ion is a kind of rechargeable battery in which lithium-ion moves from the cathode (negative electrode) to anode (positive electrode) during discharge of the battery and vice versa while charging. A lithium-ion battery has potential application in areas such as a range of solar energy systems, EVs, E-bike, forklifts, RVs, and other large and small-scale systems.

Hence it’s one of the high-priced batteries used worldwide. As a general evaluation, a lithium-ion battery for an electric vehicle can cost between $7000-$20000, making it by far the most expensive item of the entire vehicle cost. However, its cost has come down 80-85 percent in the last decade and will continue to an, even more, low ($60/kWh) price in the future due to technological improvements.

But the main issue is that what are the common factors determining lithium-ion battery price? What are high-cost materials and low-cost materials? And finally, the most essential factors to whom the whole price of the battery refers. This short article could be subjected to those factors that determine the lithium-ion battery price.

Raw Material Price

Raw materials are needed for a lithium-ion battery and their cost can differ roughly on the size, capacity and power of the battery. For instance, the most common cylindrical cell, the so-called 18650 cell has 18 mm width, 65 mm length and a total mass of about 40 g, and a capacity of approximately 1.35 Ah. And the raw materials price for this lithium-ion battery cell is calculated to be $1.28/cell.

As the energy density of a lithium-ion battery gets increases, the relative mass or size and materials required also continue to increase following the mass, materials, and cost path of a simple 18650 cell. For example, if the 40 g mass 18650 cell raw materials cost $1.28 to produce, then the 325 g mass and 10Ah capacity battery materials will cost $1.28*10/1.35, and 3430 g and 100Ah battery raw materials will cost $1.28*100/1.35 to produce, and so on.

Raw Materials Processing Price

The processing cost of raw materials usually varies potentially with different types of materials. And it’s very often a sophisticated job to calculate separately with fine accuracy. Therefore, it’s a common practice to include all of them with the materials price.

Manufacturing and Labor Price

While manufacturing a lithium-ion battery, it has to pass through a range of complicated processes which include: mixing and coating, slitting, cutting, winding, tab welding, automated assembly as well as testing and packaging. A total number of 76-104 workers would be required, working in two shifts to produce 100,000 cells 18650 units. Consequently, the estimated cost of labor and overhead costs can be expected to be $0.42 based on a 18650 cell.


Total Price

Now after adding up all the raw materials expenses and manufacturing and labor expenses, the total price of a lithium-ion battery could be pointed out as $1.70/18650 cell. From this calculation, one can find out the cost of several numbers of high capacity batteries for EVs, E-bike, forklifts, RVs, solar energy systems, and a range of other large and small scale systems.


Safety Features of a Lithium-ion Battery

The lithium-ion battery that was firstly introduced by Sony in 1991, has some mighty safety risks. Its high energy density, long life cycle, high depth of discharge rate, and many other advantages are still the most successful factors of any battery technology available today (almost 2 billion lithium-ion batteries are manufactured annually). But one should remind himself of the recall of the early rechargeable metallic lithium battery which was due to the infliction of a man’s face by releasing hot gases.

From that time, efforts and struggles were accelerated in order to execute safety concerns in lithium battery technology. The research resulted from the idea of replacing the metallic lithium battery with a lithium-ion battery which is relatively safe. But still, there may be safety features of a lithium-ion battery such as the danger of explosion and/or fire. And that can be due to improper use, storage, charge, and other factors which is summarized below.

  • Physical collision with earth or other objects such as dropping and crushing can cause the lithium-ion battery to be damaged severely.
  • Too high temperatures can also cause to fail or even explode a lithium-ion battery. Especially when it exceeds 130° F or more.
  • If the charging temperature inside a lithium-ion battery or its environment is freezing (32° F), then the battery could also be damaged. In addition, below freezing point charge process leads to permanent lithium build up on the anode (a reason for battery failure)
  • The battery should be charged and discharged following the manufacturer’s instructions and C rating. For instance, if a lithium-ion battery has a C- rating of 10, then it’s recommended to charge and discharge in 10 hours, or it will cause the battery to fail if charged or discharged in less than this time.
  • In some cases, the chemical reactions in the electrolytes and electrodes of the battery can produce gases of by-products that can increase the pressure of the cell. The gas pressure continues to increase to a point where the by-products leak out and even in some cases can cause to ignite.

How to Obey all Safety Factors of a Lithium-ion Battery to Avoid Its Dangers?

  • Before using a lithium-ion battery, try to confirm that the battery itself, charger, and all equipment are tested in accordance with an appropriate test standard.
  • Be sure to obey all the instructions for use, charging, and maintenance given by the manufacturer.
  • If there is a need of replacing the current electronic devices from the battery and connecting other ones, ensure that they are specifically designed and are capable of the battery.
  • Remove all the connected devices and batteries from the charger if charged fully.
  • Always remember to store the lithium-ion battery in a dry and cool location and far from heaters and other high-temperature appliances.
  • Stay safe from many hazards of a lithium-ion battery by preventing the battery from impacting and damaging. A good way for this is, to inspect the batteries from cracking, hissing, leaking, and other damaging signs.
  • Stay safe by removing a damaged battery from the service and keeping it in a secure location until disposing of it by local regulations.


The future of Lithium-ion Batteries

The world is related to energy. Energy is the commodity everyone needs for enhancing daily life and facilitating day-to-day problems. And as the demand for energy gets increases, the need of cultivating more energy plants and storing technologies rises too. The leading battery technology today is lithium-ion battery technology. Since people look forward to seeing the coming aspects and benefits of lithium-ion batteries and what will be the future of the lithium-ion battery.

Cost of Lithium-ion Battery in Future

One of the few limits of a lithium-ion battery is its high cost. A lithium-ion battery costs 40% higher than a nickel-cadmium battery, hundreds or even thousands of dollars high than a lead-acid. Using a lithium-ion battery in an electric vehicle will cost about $7000-20000, hence would be the most expensive part of an electrical vehicle. But researchers indicate 80-85% come down in its price in the last decade and will proceed to reduce the high purchasing cost until it gets to an even more affordable one.

Manufacturing Materials

Once there was a time when metallic lithium batteries were used. One should remind himself of the recall of the early rechargeable metallic lithium battery which was due to the infliction of a man’s face by releasing hot gases. Now energy storage and release are provided by the movement of lithium ions from the positive to the negative electrode via the electrolytes. In addition to this innovation in lithium-ion battery components, there could be several innovations in its manufacturing materials and compound. And with these new innovative compounds, lithium-ion battery technology is expected to reach a high energy limit in the future. Furthermore, they can reduce the safety hazards and high cost of the battery by a significant amount.


The lithium battery has gone through a long journey in the last few decades. Starting its journey firstly with metallic lithium battery proceeding by lithium-ion with the help of using lithium ions as the charge transferring medium. executing many innovative and improving changes in its manufacturing components and chemical compounds since 1991 when the first lithium battery with lithium ion electrodes was introduced, led to an even more acceptable and advantageous battery used ever. There are hard attempts for manufacturing a new generation of advanced lithium-ion batteries in the future, and that will come into practice before we have the first generation of solid-state batteries. A new generation of the current lithium-ion batteries will have some amazing and special impacts on all types of energy storage systems and will be a unique approach toward having safety, high energy, and high power in the renewable energy sector. In addition, acquiring a cleaner environment with no carbon emission will be the most expected and pleasing aspect when the lithium-ion battery with its new generation is used in transportation and productivity systems.

How to Skyrocket business with a Lithium-ion Battery Dealership

Lithium-ion batteries are the most capacitive, have longer life cycles, and are the only optimum solution for high-performance products. In addition, one can easily notice the weight of a traditional lead-acid battery which is just as potentially high as the weight of a lithium-ion battery with its engineered vehicle.

So as a matter of fact, it’s normally not a so complicated job to boost and skyrocket your business via such a popular and successful battery technology. But as everyone knows making a loyal following of customers and keeping the improved capacity of your product may always need special consideration of the manufacturers.

While trying to increase your battery sales, many challenges may be waiting for you toward your success in this way. It is a matter of growing your business to reach a wider range of audiences as well as keeping your previous customers coming back. Therefore, the significant factor in order to execute these two matters, you need to bring any major technology changes to your products by applying research and market analysis. Furthermore, being in touch with your clients to know what they expect from your products, could also be a key component of your promotion. But how to really bring all these factors into action and how to skyrocket business with a lithium-ion battery dealership?

Make Your Products Trustful

Providing trusted and well-performing batteries to the market can help your lithium-ion battery dealership leave special impacts in customers’ hearts. You will always be their favorite. On the contrary, if your lithium-ion battery fails prematurely, the customers are highly expected not to trust you anymore. They may even blame your design instead of the failing battery.

Obey All Regulations

There are many rules, specifications, standards (such as safety standards, performance standards, and testing standards), and other regulations for a lithium-ion battery business. So one is essentially wanted to complete all the regulations and specifications to prove that he/she has the ability. And by performing all these materials, he/she will be able to improve the products and therefore can skyrocket his business with lithium-ion batteries.

Be Careful with Competition and Selecting Location

It will be pretty important for a lithium-ion battery business owner to first select a fine location or tradeable area for the business and also to bring improvements in his/her productions so that the business will come up with all the available challenges and competitions. Furthermore, hard seeking and research must be done in order to bring improvements and new innovations in the battery technology and manufacturing process as well as find a location that is easy to access and is a central place in the city.

Quality Standard Specifications of a Lithium-ion Battery

A lithium-ion battery has some quality standards and specifications, which have to be summarized and noticed well. This lithium-ion battery technology has been used for lighting homes, driving EVs, E-bike, running laptops, and mobile phones as well as benefiting numerous other processes and requirements.

Due to its lightweight and high capacity or energy density, it has gained the tendency of many consumers around the world. A lithium-ion battery has four main components, structuring and shaping the battery. The component anode produces charge during the charging cycle and gives it to the external circuit during the discharge cycle, the component cathode, gaining ions during discharge and vice versa while charging. The electrolyte is a medium for connecting the cathode and anode physically, and a separator being playing the role of a barrier between anode and cathode.

Nominal Capacity and Maximum Capacity

When a battery is fully charged and then used to drain the entire energy from it at a specific constant current rate, the amount of energy withdrawn from the battery is called the nominal capacity. Normally the amount of nominal capacity and voltage relates to the chemical reaction of the battery. For instance, if a battery of 500Ah energy density has 24v voltage, then its overall nominal capacity would be 500Ah*24v = 12,000 Wh or 12kWh. The nominal capacity can usually be found out with the help of the C- a rate of the battery. It’s quite significant to remember that only the energy in the amount of depth of discharge can be drained from all the nominal capacity of the battery in order to serve the battery safely.

Maximum Capacity

The maximum capacity of a battery is the measure that shows the highest capacity of a battery when it was new and was not still used. Since the battery loses its capacity with time and may lose up to 20% of its original capacity with 500 cycles. For example, if a lithium-ion battery has 100Ah capacity and loses 10% of its original capacity after 250 cycles, then it’s said that the maximum capacity of the battery is 100Ah, however, the nominal capacity after 250 cycles is now 90Ah.

Some general standards of a lithium-ion battery

  1. IEC 61960- performance standard: This is an international Electro-Technical Commission (IEC) standard. This indicates that the battery in your hands is a lithium-ion battery of alkaline or other non-acid electrolytes and is commonly used for portable applications.
  2. IEC 62133-2:2017- safety standard: This standard also relates to the international Electro-Technical Commission, which indicates that the battery contains alkaline and other non-acid electrolytes and is usable for portable appliances.
  3. IEC 61959:2004- Testing standard: This standard is for secondary cells and batteries that contain electrolytes of alkalis and other non-acid liquids.
  4. UN-1642, 5thEdition- Safety Standard: This standard is specially used for the safety standards of lithium-ion batteries.
  5. UL-95040,2ndEdition-Safety standard: This standard is commonly used for energy storage systems and equipment by ANSI/CAN/UL.
  6. UL-9540A, 4thEdition-Testing standard: This standard is particularly applied for testing methods of evaluating thermal runaway fire propagation in battery energy storage systems.
  7. UL-1974, 1stEdition-Testing standard: ANSI/CAN/UL standard for evaluation for repurposing batteries.

Benefits of Lithium-ion Battery Rechargeable Fully

One can easily find out many advantages and benefits of a lithium-ion battery. Although its only downside is its high cost, lithium-ion batteries power thousands of appliances and devices around the world. But researches show a big fall in lithium-ion battery price in the last few years and will continue to a more affordable cost in coming decades. People use lithium-ion batteries in EVs, E-bikes, RVs, fishing boats, solar energy storing systems, and even for lightning homes in some countries where there is a shortage of other electricity sources. In addition, we will mention and describe some of the lithium-ion batteries’ pros and benefits with a little more explanation.

It Has the Longest Lifespan

As mentioned before the only drawback of a lithium-ion battery is its high cost. But considering its long life cycle, one may discover that a lithium-ion battery can accomplish your energy needs for several times longer periods than a lead-acid or nickel-cadmium battery. Hence without any exaggeration, it can be said that some large-capacity lithium-ion batteries can last for more than 8 years. In this case, your investments in storing energy would be reduced in an amount and will definitely not let you return to the battery market for a new purchase.

Requires Less Maintenance

Unlike flooded batteries that need to be flooded in water and then monitored continuously, a lithium-ion battery does need to be flooded nor monitored. Therefore, an extra controlling system and monitoring group are not warned for an extra amount of budget. In a conclusion, using a lithium-ion battery will reduce your investments in managing a controlling system and monitoring group in order to safely maintain the battery.

Negligible Environment Impacts

While using a lithium-ion battery in EVs, E-bikes, E Fishing boats, and other devices and means, a lithium-ion battery can be considered as completely eco-friendly. It will serve several times more beneficial than fossil fuel alternatives. In addition, using a lithium-ion battery in all types of vehicles will significantly reduce greenhouse effects that result from the emission of carbon dye oxide and other gases. Hence it has the lowest level of toxic heavy metals.

Weighs Less but Works More

When we say that a lithium-ion battery normally comes with high energy density, it does not mean that it will be as heavy as its capacity. Instead, it’s easily portable, much smaller, and lighter than many other batteries. For instance, a typical 51Ah lithium-ion battery weighs 6-7kg which is distinctly the same weight as a 24Ah lead-acid battery.

High Energy Density

One of the most significant reasons for more consumers to choose a lithium-ion battery is that with all its low weight and small mass characteristics, a lithium-ion battery can store plenty amount of energy relative to other bigger batteries. A lithium-ion battery may contain 100-265Wh/kg energy density which is the highest ever of all battery technology.

Low Self-discharge

Self-discharge is a natural phenomenon with all types of battery technologies which is the reduction of the battery’s capacity with time due to chemical reactions inside the battery. Then it’s not important whether the battery powers a load or is not being used. Self-discharge of a lithium-ion battery can reach a peak rate of 5% in its first 24 hours after being charged fully. And may then reach 1-2% per month. Thus it can be considered as negligible compared to a nickel-based battery that loses 10-15 capacity after charge as well as per month basis.



How to Conduct Factory Acceptance Test for Lithium-ion Battery

Lithium-ion battery passes through many several types of tests while manufacturing in a factory. The high demand for batteries and people’s dependency on them has risen all the considerations of creating some specific testing methods. The testing methods can be required to assure capacity loss, charge-discharge testing for monitoring the charging and discharging process of the battery, high & low-temperature testing for indicating the temperature limits of the battery while charging or discharging, aging testing, and others. Below are some of the methods that show how to conduct a factory acceptance test for lithium-ion batteries. But it can be noted that all these lithium-ion battery testing systems relate to the Polinovel factory of lithium-ion batteries.

Capacity testing

For testing the capacity of a lithium-ion battery, the Polinovel factory uses the method of dividing the capacity of the battery. Then getting a consistent capacity will mean that this battery refers to the same group, or if it results in an inconsistent capacity, then it will be subjected to another group.

Charge-discharge testing

Charge-discharge testing normally depends on some specific requirements related to the rate and charging and discharging process of each cell. Generally, customers will be required to complete a few cycles within a selected time. (normally two days)

 High and Low-Temperature Testing

The increase and decrease of temperature can directly affect a lithium-ion battery. High and low-temperature testing can take one day to be done.

Ask us to get a quick quote->

Tags: Best Material for Manufacturing Lithium-ion Battery, lead-acid battery, lithium battery companies, lithium-ion battery manufacturers, lithium-ion battery suppliers, Lithium-ion Battery
1 reply

Leave a Reply

Want to join the discussion?
Feel free to contribute!

Leave a Reply