Find Latest Battery and Technology News, Customized Special Shaped and High Rate Lifepo4 Battery on Maxworld

solid electrolyte of lithium battery

The difference between solid electrolyte and liquid lithium battery electrolyte

The difference between solid electrolyte and liquid lithium battery electrolyte Lithium battery manufacturers analyze the difference between solid electrolytes and liquid electrolytes for lithium batteries. At present, the battery electrolyte mainly used in lithium batteries are divided into liquid electrolytes and solid electrolytes. Liquid electrolytes are commonly called electrolytes. On the one hand, the electrolyte of lithium batteries provides some active lithium ions, which are used as conductive ions during charge and discharge. On the other hand, the electrolyte provides ion channels, or carriers, so that lithium ions can move in them. In this article, lithium battery manufacturers will analyze the difference between solid electrolytes and liquid electrolytes for lithium batteries. Lithium battery manufacturers analyze the difference between lithium battery solid electrolyte and liquid electrolyte 1. Liquid electrolyte The choice of electrolyte has a great influence on the performance of lithium batteries. It must be chemically stable, especially not easy to decompose at higher potentials and higher temperature environments, and has higher ionic conductivity, and it has a good effect on cathode and anode materials. It must be inert and not corrupt them. Due to the high charge and discharge potential of lithium batteries and the chemically active lithium embedded in the anode material, the electrolyte must use organic compounds instead of water. However, the ionic conductivity of organic matter is not good, so it is necessary to add a soluble conductive salt in the organic solvent to improve the ionic conductivity. At present, lithium-ion batteries mainly use liquid electrolytes. At present, most of the electrolytes used in commercial lithium batteries use LiPF6 EC2DMC, which has higher ionic conductivity and better electrochemical stability. Because of the characteristics of liquid electrolytes, a variety of auxiliary agents need to be added to actual use to improve the characteristics of the electrolyte. 2. Solid electrolyte

Read More »
What is the difference between battery in series and parallel?

What is the difference between battery in series and parallel

What is the difference between battery in series and parallel? Introduction Due to the limited voltage and capacity of single batteries, it is necessary to combine series and parallel in actual use to obtain higher voltage and capacity to meet the actual power supply requirements of the equipment. In this passage, we will talk about what is the difference between batteries in series and parallel. Definition of lithium battery in series and parallel Lithium battery in series means that the voltage is added, the capacity remains unchanged, and the internal resistance increases. Whereas lithium batteries in parallel means the voltage remains the same, the capacity is added, the internal resistance is reduced, and the power supply time is prolonged. And what do we do if we want to increase both voltage and capacity? Here comes the lithium battery series and parallel to realize it, there are both parallel combinations and series combinations in the middle of the battery pack, which increases the voltage and capacity. In practice, for series voltage, 3.7V single cells can be assembled into a battery pack with a voltage of 3.7*(N)V according to needs (N: number of single cells), such as 7.4V, 12V, 24V, 36V, 48V, 60V, 72V, etc. For, parallel capacity, a 2000mAh single battery can be assembled into a battery pack with a capacity of 2*(N)Ah (N: number of single batteries), such as 4000mAh, 6000mAh, 8000mAh, 5Ah, 10Ah, 20Ah, 30Ah, 50Ah, 100Ah, etc. Lithium battery packs of battery in series and parallel What is a battery pack? Lithium battery PACK refers to the processing, assembly, and packaging of lithium battery packs. The process of assembling lithium batteries into groups is called PACK, which can be a single battery or a lithium battery pack connected in series and parallel. The lithium battery pack is usually composed of a plastic case, a protective plate, a battery cell,

Read More »

What is the energy density of lithium ion battery

What is the energy density of lithium ion battery Introduce What determines the cruising range of new energy vehicles? The endurance of new energy vehicles mainly depends on the available power and energy consumption of the vehicle. When the same energy consumption remains unchanged, and the volume and weight of the battery pack remain unchanged, the single maximum driving range of a new energy vehicle mainly depends on the energy density of lithium-ion batteries. Endurance ↑ = available power ↑ ÷ energy consumption ↓ What is energy density of lithium ion battery? Energy density refers to the amount of energy stored in a unit of a certain space or mass matter. Lithium batteries’ energy density is the average per unit volume or quality release of electricity. Lithium battery energy density is usually divided into two dimensions: weight energy density and bulk density. Lithium battery energy density weight = x discharge battery capacity/weight platform, the basic unit for Wh/kg (w/kg) Cell volume energy density = battery capacity by discharge platform/volume, the basic unit for Wh/L (w/L) The greater the energy density of a lithium battery, the unit volume or weight the more electricity storage. What is the Lithium battery energy density of the monomer? The energy density of lithium-ion batteries usually refers to two different concepts, one is single lithium battery energy density, and another is the energy density of the battery system. The battery cell is the smallest unit of a battery system. M a battery of a module, a battery pack N modules. This is the basic structure of a vehicle’s power battery. As the name implies, the energy density of a single cell is the energy density of the single cell level. What is the system energy density? After completion of the system energy density refers to the monomer composition, weight, or

Read More »
Thermal runaway

What is thermal runaway in a battery

What is thermal runaway in a battery? Perhaps one of the biggest disadvantages of using batteries is that they need to operate in a relatively narrow temperature range. The safety and stability of battery cells depend on keeping the internal temperature within a certain range. If the temperature at either end exceeds a critical level, thermal runaway will occur, damage the battery, and even worse, cause a fire. This is a chain reaction within the battery cell, and once it starts, it is difficult to stop. This happens when the temperature inside the battery reaches a temperature that causes a chemical reaction inside the battery. This chemical reaction generates more heat, which increases the temperature, leading to further chemical reactions that generate more heat. In this situation, the temperature of the battery cell rises very fast (milliseconds). The energy stored in the battery is released very suddenly. This chain reaction produces extremely high temperatures (approximately 752 degrees Fahrenheit / 400 degrees Celsius). These temperatures can cause the battery to deflate, and the fire is so high that it is almost impossible to extinguish. The danger of thermal runaway In recent years, the thermal runaway of lithium-ion batteries has become some undesirable media due to fires caused by mobile phones and hoverboard batteries. However, it may occur in all battery types. In extreme cases, it can cause the battery to explode and catch fire. In smaller cases, it can cause the battery to melt or become damaged beyond repair. Fortunately, there are new technologies that allow us to make batteries safer and prevent the causes of these chain reactions. What causes thermal runaway? There are several situations that can cause battery thermal runaway. It may occur due to physical damage of the battery or improper maintenance of the battery resulting in an internal short

Read More »
Car lithium battery capacity

The difference between car lithium 12v battery capacity and battery capacity

The difference between car lithium 12V battery capacity and battery capacity The difference between lithium 12v 42ah Lifepo4 Battery  capacity and battery capacity for vehicles. In the context of the era of energy conservation and environmental protection, electric vehicles have become an inevitable trend in the development of the automotive industry. Lithium batteries and accumulators for vehicles are the two major use of electric vehicles. What is the difference in capacity? Car lithium 12v battery capacity The amount of power that a 12v 42ah Lifepo4 Battery  can give under certain discharge conditions is called the capacity of the lithium battery, which is represented by the symbol C. The commonly used unit is ampere hour, abbreviated as ampere hour (Ah) or milliampere hour (mAh). 1. The capacity of LiFePo4 can be divided into theoretical capacity, rated capacity, and actual capacity. 2. Theoretical capacity is the highest theoretical value obtained by calculating the mass of the active material according to Faraday’s law. In order to compare different series of lithium batteries, the concept of specific capacity is commonly used, that is, the theoretical power that a unit volume or unit mass lithium battery can give. The unit is Ah/kg (mAh/g) or Ah/L (mAh/cm3). 3. The actual capacity refers to the amount of power that the lithium battery can output under certain conditions. It is equal to the product of discharge current and discharge time, the unit is Ah, and its value is less than the theoretical capacity. 4. The rated capacity is also called the guaranteed capacity, which is the minimum capacity that the lithium battery should discharge under certain discharge conditions according to the standards promulgated by the state or relevant departments. Battery capacity Storage lithium phosphate refers to all chemical energy batteries that can be recharged and used repeatedly after the power has been used to a

Read More »
What is a battery life cycle

What is the lithium-ion battery life cycle

What is the lithium-ion battery life cycle? You definitely don’t want to get into trouble when the battery is dead. Whether your deep-cycle battery has been in use for many years or you just bought a brand new battery, it’s important to know how long it should last. Many factors affect the lithium polymer life cycle, but before we get into them, we will introduce the exact meaning of the lithium polymer life cycle and how to calculate it.  When you use the lithium polymer and charge it, it will slowly lose its ability to restore its original capacity. The life12v 42ah Lifepo4 Battery  cycle of a battery is the number of charge and discharge cycles it can complete before it loses performance. How do you calculate the lithium-ion battery life cycle? In fact, the first time you discharge the 12v 42ah Lifepo4 Battery , it will no longer be fully charged. Of course, this does not mean that your lithium polymer has reached the end of its life. Before the end of the life cycle is determined, each manufacturer will provide acceptable performance and capacity reduction data. There is no standard test, but the general rule of thumb is that the battery life cycle is the number of cycles you get before you can’t charge the 12v 42ah Lifepo4 Battery  to more than 80% of its original capacity. How to determine the depth of discharge? Another way to understand the lithium polymer battery  capacity is based on the depth of discharge. The depth of discharge is the percentage of the used battery capacity relative to the total capacity. For example, if a brand new lithium polymer battery  rated at 100 Ah is discharged to 60 Ah, the discharge depth of this cycle is 40%. If we review our definition of lithium-ion battery life cycle, if we cannot charge the same lithium polymer

Read More »
different types of Cells

Cylindrical cell Vs prismatic cell Vs pouch cell

Cylindrical cell VS Prismatic cell VS Pouch cell There are three types of lithium battery packaging: cylindrical, prismatic, and soft package. Cylindrical batteries, with their cylindrical shape and construction, were one of the first mass-produced battery types and are still mass-produced and dominant in some applications. Prismatic cell batteries, on the other hand, are popular because of their high capacity, thin shape, and efficient use of space. Their prismatic shape makes it easy to connect multiple cells together to form larger packs. Finally, bag batteries are known for their lighter construction with their sealed flexible foil as containers. There are many types of cylindrical batteries, such as 14650, 17490, 18650, 21700, 26500, etc. Many models use this type of battery; Tesla, for example, uses 21,700 cylindrical batteries for its Model 3. Cylindrical cell Advantage Cylindrical lithium battery technology has existed for some time, so the output and consistency of battery packs are high. The cost of these packages is also low, making them suitable for mass production. Cylindrical batteries are particularly convenient because of their variety of combinations and applicability to electric vehicle design. Disadvantage On the other hand, these batteries are often packaged in steel or aluminum cases, making them bulky and low-power. Application Cylindrical batteries are commonly found in medical devices, laptops, electric bikes, and power tools. These batteries are also used in Tesla cars. Prismatic Cell Prismatic cell batteries are used in consumer electronics and electric vehicles, and their packaging advantage lies in the layered approach to their materials. They are shaped similar to a pack of gum or a small chocolate bar, and while they come in different sizes, there is no universal format and each manufacturer designs its own. Square lithium battery The casing of the square lithium battery is made of aluminum alloy and stainless steel. A winding

Read More »
ESS energy storage system

Introduction of ESS system

Introduction of ESS system What is ESS system? Energy storage systems (ESSs) are considered a promising solution for future high renewable penetration power systems. An energy storage system (ESS) is a device that converts electrical energy in a power system into a form that can be stored, so that it can be converted back to electrical energy when needed. ESS systems are developing a cost-effective, reliable and environmentally friendly all-iron mixed flow battery.  A flow battery is an easy-to-charge system that stores electrolytes (energy-providing substances) in an external tank in liquid form. ESS flow battery technology is characterized by its low-cost electrolyte based on the abundant iron on the earth, and its innovative battery hardware design, which greatly improves the power density, makes the battery smaller and lower cost. Creating a high-performance, low-cost storage system will enable widespread adoption of distributed energy storage systems and help bring more renewable energy technologies, such as wind and solar energy, to the grid. Pros of ESS system: A. Promote the effective use of intermittent renewable energy B. Can be combined into an intelligent integrated energy system C. Reduce the need for additional peak generation capacity D. Improve grid reliability E. Performance and cost continue to improve F.  Allow the integration of renewables and fossil fuels Cons of ESS system: A. “Round-trip” inefficient energy loss B. Additional cost and complexity C. Additional infrastructure and space requirements The core of ESS: battery system The core of the ESS system is a battery. This component acts as the device that allows storage of the incoming energy from the power source at any time, and to later discharge as needed. A battery is an electrochemical component, typically made of lithium ion or lithium iron phosphate technology, that converts incoming electrical energy into chemical energy within its structure during charging. Then, when the load discharges when it needs power, the component converts this chemical

Read More »
battery electrolyte

What is battery electrolyte and how does it work

What is battery electrolyte and how does it work? Whether it is toys for kids, wireless power tools or electric cars, batteries are becoming a standard part of our daily lives. The key component of a battery is the internal battery electrolyte. Today, we are studying what is 12v 42ah Lifepo4 Battery   electrolyte and how it can maintain the life of your 12v 42ah Lifepo4 Battery . Let’s dive in! What is battery electrolyte? The battery electrolyte is a solution inside the battery. Actually, it depends on the type of battery as it can be a liquid or paste-like substance. However, the role of the electrolyte is the same regardless of the battery type: it transfers positively charged ions between the cathode and anode. How does battery electrolyte work? There are three main components of the batteries- the negative electrode, the anode and the electrolyte that separates the two erminals. Electrolyte is a chemical substance that allows electric charge to pass between two terminals. The electrolyte brings the chemicals needed for the reaction into contact with the anode and cathode, thereby converting the stored energy into usable electrical energy. This response powers the connected device, whether it’s a light, a vacuum cleaner or an electric car. What is the battery electrolyte made of? In fact, different types of batteries relys on different types of different electrolytes and its chemical reactions. For example, lead-acid batteries often use sulfuric acid to produce the desired reaction. Zinc-air batteries rely on zinc oxide with oxygen to react. Potassium hydroxide is the electrolyte in ordinary household alkaline batteries. The most common used electrolyte in lithium batteries is lithium hexafluorophosphate (LiPF6) and other lithium salt solutions. If you think back to high school chemistry classes, you may remember to wear goggles and other protective equipment when handling chemicals. The chemicals used to produce chemical reactions in batteries are usually

Read More »

Don't want to miss any industry information of lifepo4 battery suppliers?

It only takes 5 seconds to fill out the form below.

Our Products

Subscribe To Our Newsletter

The latest insights on lithium battery technology sent straight to you.

Share Now