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5 Key Benefits of Battery Energy Storage Systems (BESS)  

Installing battery energy storage improves your use of renewable energy, offers a backup power source, means less dependence on the grid, reduces your carbon footprint, and offers long-term cost savings. Find out more about the benefits of BESS in this article. 

Whether you are looking to streamline your business or are keen to improve the energy efficiency of your home, investing in battery energy storage is potentially a great option for you.  

At AceOn, we work at the cutting edge of BESS technology in the UK and have seen first-hand how transformative battery energy storage can be. So, if you’re on the fence about this emerging technology, here are five key benefits of battery energy storage systems that you can’t afford to ignore.  

Improved use of renewable energy  

Renewable energy has been around for a long time now, but there are many instances in which it is wasted. Without a storage solution, renewable energy can only be used when the conditions are favourable (such as when the sun’s out for solar).  

When you install a battery energy storage system, you can harness renewable energy, store it, and use it at a time when no energy is being produced. This enables you to use renewable energy sources much more efficiently.  

Backup power  

Though some people are keen to turn to BESS as their sole power bank, others are content to rely upon it as a backup power source. In the face of more inclement weather and extended periods of blackout in some parts of the world, having a backup power source is a smart move.  

The benefits to business are immeasurable, but having a BESS as a backup power for your home is also extremely beneficial. This means that you won’t be cut off from the world in case of a power outage and can add security to your home or business. 

Less dependence on the grid  

One of the biggest benefits of battery energy storage is that you become less dependent on the grid after installation. Although the National Grid in the UK is comparably reliable, it’s not fool proof and some parts of the UK experience more frequent power outages.  

What’s more, as we’re facing increasing climate uncertainty, being less dependent on the National Grid has obvious benefits, as the climate could lead to increased outages.  

Reduce carbon footprint  

As we’re collectively moving towards net zero, installing a BESS at your home or place of work is an excellent way to reduce your carbon footprint. Harnessing renewable energy through BESS reduces your greenhouse gas emissions and minimises pollution, offering you peace of mind as you commit to your personal carbon footprint goals.  

BESS also waste much less power than other energy sources as you can store any energy that you don’t consume. At a time when the UK is working so hard to meet ambitious climate targets, reducing your carbon footprint is a viable way of making a positive contribution.  

Long-term cost savings  

Although BESS are not cheap to install, they more than pay for themselves over time. This is because you can make huge savings when it comes to your electricity bills, while having a BESS even adds value to your home and business.  

Ultimately, if you can afford the initial financial outlay, installing battery energy storage at home or your place of work will have positive long-term financial implications. 

Recap: The benefits of battery energy storage  

The overwhelming benefits of battery energy storage certainly outweigh the negatives and every year, we’re seeing more and more people turn to BESS to improve their use of renewable energy.  


48v 200ah lithium ion battery for solar system

Safe Management of Household Lithium Batteries

There are two types of lithium-based batteries, Primary Lithium (metal) and Rechargeable Lithium Ion. Lithium Primary batteries are starting to replace the commonly used alkaline batteries because they are longer lasting. These batteries can be found as AA/AAA, C, D, Coin/Button cell, and 9v and are usually labeled with the word “lithium”. Lithium batteries are used in common household items such as flashlights, cameras, toys, and for medical devices and security systems. Lithium-Ion batteries are rechargeable and are used in vaping devices, many personal electronics such as cell phones, tablets, and laptops, E-Bikes, electric toothbrushes, tools, hoverboards, scooters, and for solar power backup storage. As the industry advances, more and more products will utilize these powerful batteries. Lithium batteries can cause fires and even explode if managed incorrectly. Keep all lithium batteries out of the trash and out of your household recycling.

1. INDENTIFIYING Lithium primary or Lithium-ion rechargeable batteries

Lithium Primary batteries may be marked “Lithium;” button/coin cells may begin with (CR###).
Lithium Primary Batteries (non-rechargeable) can be found as AA/AAA, C,
D, Coin/Button cell, and 9v. They are starting to replace many common
alkaline batteries because they are longer-lasting.
Lithium-Ion batteries may be marked “Rechargeable,” “Lithium Ion,” “LiION,” “Li-ion,” “Li-Ion”, “LiPo” (lithium polymer); button/coin cell begins with
(LIR###). They may or may not have a battery seal or other mark.

2. STORING/HANDLING Lithium Batteries

• Do not remove any lithium battery that is not intended to be replaceable within the product it powers (such as cell phones, vaping devices, thin laptops, and other electronic products).
o The battery may be glued into the product. Forced removal of the battery can result in an immediate fire or explosion.
o The battery may be in silver colored, cellophane-type bags or hard-plastic casing. Tearing or puncturing the bag or crushing/penetrating the plastic casing can result in an immediate fire or explosion.
• After removing a spent battery from a product, bag it individually in a clear sealable bag or tape the terminals with clear packing tape.
o This prevents fires resulting from contact with other batteries or other conductive materials.
o Less-durable tapes (such as masking or cellophane tape) and open bags commonly fall off during transport.
o Non-clear bags or tapes (such as duct tape or electrical tape) do not allow a visible identification of the chemistry of the battery when being sorted for recycling and can be a safety hazard to workers.
• Never store ANY batteries where the terminals are touching or anywhere they can come into contact with metal objects such as keys or coins.
• Consider storing large quantities of lithium-based batteries in a separate containment area or building to prevent property loss in the event of a reaction or fire.

3. HIGH WATT-HOUR Lithium-ion batteries (>300 watt-hours) 

• Automatically considered a hazardous material, whether they are damaged or not. • Require CFR49 certification and paperwork to transport or ship. Watt-hours are calculated by multiplying volts by amp-hours, which are labelled on batteries. These large batteries are commonly found in e-bikes, e-scooters, landscaping tools, and more. Call2Recycle offers a high watt-hour kit that is specially permitted by Department of Transportation to exempt a shipper from CFR49 requirements. Contact your solid waste management district or municipality or Call2Recycle for more information. 

4. HANDLING DAMAGED Lithium batteries 

Do not use damaged or abused batteries. • Store outdoors in a watertight covered container filled with sand or kitty litter. • Contact your solid waste management district or municipality for proper management in your area (VTrecycles.com). 

IF a lithium battery starts to swell, smoke, or catch fire
1. Do NOT touch the battery with bare hands.
2. Immediately bring the battery outside (step away as soon as possible to avoid inhalation) and place it in a container of kitty litter or sand(dirt).
3. Contact your solid waste management district or municipality for proper management.

Lithium-Ion Battery’s Structure and How It Works

Lithium ions in lithium-ion batteries move between cathode and anode, causing a chemical reaction and generating electricity. 

A battery is charged when lithium ions move from cathode to anode, and is discharged when the lithium ions move back to the cathode as it releases energy. For this process to happen, the battery needs an electrolyte through which lithium ions can pass, and a separator to keep the cathode and anode separated. In general, the cathode, anode, separator, and electrolyte make up the four major components of a lithium-ion battery.

Cathode

In a lithium-ion battery, lithium ions enter into the cathode, which can be thought of like a house for lithium ions. Lithium is a perfect cathode material since it tends to lose electrons and turn into a positive ion. However, since elemental lithium is unstable, lithium oxide, a combination of lithium and oxygen, is used instead.

The cathode determines the capacity and voltage of a battery, which are the critical components of battery performance. Battery capacity improves as the lithium proportion increases. The voltage is determined by the potential difference between the electrodes. Therefore, the potential value due to the structure of the cathode and anode influences voltage. Recently, as the demand for high-performance cathode materials increases, various cathode materials like NCA (nickel/cobalt/aluminum) and NCMA (nickel/cobalt/manganese/aluminum) are under development.

Anode

Anode materials store and release lithium ions from the cathode, allowing current to flow through an external circuit. When the battery is charged, lithium ions are in the anode. When the anode and cathode are connected with a conducting wire, lithium ions move from the anode to the cathode via the electrolyte, while the electron separated from the lithium ions move along the wire, generating electricity. You can think of it as lithium ions leaving home and generating electricity while working.

Graphite can store many ions and is mainly used for anode materials. However, as the process of storing and releasing lithium ions is repeated, the structure of graphite changes, and the number of ions that can be stored decreases, reducing battery life. That is why the next-generation anode materials, such as silicon with a large capacity and can accelerate charging, are currently being developed.

Electrolyte

Electrolyte is a medium that helps lithium ions move between the cathode and anode inside the battery. It can be thought of as a form of transportation that lithium ions take to commute to work. The electrolyte must have high ionic conductivity for the smooth movement of lithium ions, as well as high electrochemical stability and high flash point for safety. Also, it is necessary to prevent the electrons from entering the electrolyte and make them only move along the external conducting wire.

Currently, liquid electrolytes are widely used for this purpose. However, research is now being carried out on solid or gel-type electrolytes with better safety and performance.

Separator

As it is essential to completely separate work from home to achieve a good work-life balance, a separator prevents the cathode and anode from having physical contact. Tiny pores on the separator allow lithium ions to move. In other words, the separator blocks the contact between the two electrodes but allows ions to move through.

The separator needs to have high electrical insulation and thermal stability for safety, and it must also automatically block the movement of ions at a temperature above a certain level. Currently, polyethylene (PE) and polypropylene (PP) are widely used as separators. A study is currently being conducted on making the separator thinner to miniaturize the battery.

So far, we have looked at the four main components of a lithium-ion battery and how they work. Lithium-ion batteries have made our lives as convenient as it is today, and yet, even at this moment, more studies are being carried out to overcome their limitations. LG Energy Solution is leading the industry and is heading the development of next-generation batteries. On <Battery Day 2021> held in April 2021, LG Energy Solution announced plans to commercialize lithium-sulfur batteries in 2025 and all-solid-state batteries between 2025 and 2027.

In September 2021, LG Energy Solution, through a joint study with the University of California San Diego (UCSD), announced that it had overcome the technical limitations of the all-solid-state battery, which could only be charged above 60℃. The company has developed a long-life all-solid-state battery technology that can be charged at room temperature (25℃) at a fast rate. The technological breakthrough was recognized and published in the renowned scientific journal, Science. Even now, many people are striving to commercialize next-generation batteries, and we are, in fact, a step closer to the future without even noticing it.

 

How Much Does a Lithium-Ion Battery Cost in 2024?

Most lithium-ion batteries cost $10 to $20,000, depending on the device it powers. An electric vehicle battery is the most expensive, typically costing $4,760 to $19,200. Next is solar batteries, which usually cost $6,800 to $10,700. However, most outdoor power tool batteries only cost $85 to $330, and cell phone batteries can run as little as $10.

Due to an increasing concern about climate change, there is a high public interest in battery technology. Lithium-ion (Li-ion) batteries are a source of clean, renewable energy. However, many consumers looking to switch from gas-guzzling power tools and automobiles are left wondering how much Li-ion batteries cost, so we broke it down for you. 

battery storage battery pack for solar system home

Why Lithium-ion is the best?

Compared with traditional battery technology, lithium-ion batteries charge faster, last longer and have a higher power density for more battery life in a lighter package. When you know a little about how they work, they can work that much better for you.

It charges fast for convenience and slow for longevity.

Your Apple lithium-ion battery uses fast charging to quickly reach 80 per cent of its capacity, then switches to slower trickle charging. The amount of time it takes to reach that first 80 per cent will vary depending on your settings and which device you’re charging. Software may limit charging above 80 per cent when the recommended battery temperatures are exceeded. This combined process not only lets you get out and about sooner, it also extends the lifespan of your battery.

Why lithium battery is the best-1

It makes charging easier.

Charge your Apple lithium-ion battery whenever you want. There’s no need to let it discharge 100% before recharging. Apple lithium-ion batteries work in charge cycles. You complete one charge cycle when you’ve used (discharged) an amount that represents 100% of your battery’s capacity* — but not necessarily all from one charge. For instance, you might use 75% of your battery’s capacity one day, then recharge it fully overnight. If you use 25% the next day, you will have discharged a total of 100%, and the two days will add up to one charge cycle. It could take several days to complete a cycle. The capacity of any type of battery will diminish after a certain amount of recharging. With lithium-ion batteries, the capacity diminishes slightly with each complete charge cycle. Apple lithium-ion batteries are designed to hold at least 80% of their original capacity for a high number of charge cycles, which varies depending on the product.

Why lithium battery is the best-2

 

The Difference Between Lithium Polymer Battery and Lithium Ion Battery

The Difference Between Lithium Polymer Battery and Lithium Ion Battery

Lithium battery are divided into liquid lithium battery and lithium polymer battery. Lithium polymer battery is an upgraded product of lithium ion battery. Compared with the popular lithium-ion battery, lithium polymer battery has the advantages of large capacity, small size (thin), safety (no explosion) and so on.

Lithium polymer battery (Li-polymer): It has many obvious advantages such as high energy density, smaller size, ultra-thin, lightweight, high safety and low cost, and is a new type Battery. In terms of shape, lithium polymer battery have ultra-thin features, and can be made into batteries of any shape and capacity to meet the needs of various products. The minimum thickness that this type of battery can reach can reach 0.5mm.

Compared with lithium ion battery, the characteristics of lithium polymer battery are as follows:

1. There is no battery leakage problem. lithium polymer battery does not contain liquid electrolyte and uses colloidal solids.

2.Lithium polymer battery can be made into a thin battery: with a capacity of 3.7V 500mAh, its thickness can be as thin as 5mm.Such as Luoyang Auspicious New Energy Co.,Ltd Battery.

3. Lithium polymer battery can be designed into a variety of shapes.

4. The battery can be bent and deformed: the lithium polymer battery can be bent up to about 900 degrees.

5. Since there is no liquid, lithium polymer battery can be made into a multi-layer combination in a single particle to achieve high voltage.

6. The capacity will be twice as high as a lithium-ion battery of the same size.

battery for home energy storage power storage wall

What is home energy storage?

What is home energy storage?

1.Home energy storage

Home energy storage lithium battery system mainly refers to the installation of residential energy storage system, its mode of operation includes independent operation, and small wind turbine supporting operation, rooftop photovoltaic
and other renewable energy generation equipment and home thermal storage equipment. Applications of home energy storage systems include: power charging management, power cost control (low charge and high discharge), power supply reliability, distributed renewable energy access and energy storage battery applications for electric vehicles.
 
2、Plant energy storage
Lithium battery pack can also be used for factory energy storage system. I believe everyone will be familiar with factories, because in every city, there are some factories, including electronics factories, garment factories and food factories, etc.. These factories have made great contributions to economic development. Some products including lithium battery packs and production equipment will be used in factories, and their application can improve the efficiency of factory operations.
 
3、Photovoltaic energy storage Photovoltaic
energy storage significance to carry out significant, smooth the power change curve, improve the accuracy of the working power can be predicted, enhance the ability of the PV power generation technology system over distribution, improve the friendliness of our power grid. Applied to photovoltaic, solar energy storage lithium battery pack internal management information system, product production performance is relatively stable, high security. As a storage device for photovoltaic systems, lithium storage efficiency can be increased to 95%, which can significantly and obviously reduce the cost of solar power generation enterprises in China. Lithium battery pack in the system at the same time to develop play an energy through the regulation and balance the load two important role, it will be photovoltaic power generation control system data output of electrical energy into chemical energy storage, in order to be used when the power supply is insufficient.
 
4、Energy storage system

The invention can optimize the demand-side power distribution, adjust the load regulation of microgrid, improve the economic efficiency of microgrid system, solve the mismatch between peak power consumption and peak power generation, give full play to flexibility and rapid response capability, and realize the optimal allocation of power resources. With the escalation of supply-demand conflict in the grid system and the promotion of relevant policies, the domestic distributed energy storage market is booming and heating up gradually.

5.Microgrid Energy Storage System
Micro-grid is a collection of load and micro-energy, which can operate independently in emergency situations. Lithiumbattery pack energy storage is an important part of microgrid energy storage power plant. High-performance lithium iron phosphate battery pack energy storage system can store the excess energy and deliver it to the load when needed, making full use of various energy sources and playing a vital role in the whole microgrid. With its superior

performance, lithium iron phosphate battery pack can significantly improve the overall performance of the microgrid system and the utilization of various energy sources.s leo.

Advantages of Lithium Iron Phosphate Battery

Advantages of Lithium Iron Phosphate Battery

lithium iron phosphate battery

Lithium iron phosphate batteries, like lithium manganese oxide, lithium cobalt oxide, and ternary lithium batteries, are both branches of lithium ion batteries. Its performance is mainly suitable for power applications. At this time, it is called lithium iron phosphate power battery, also called lithium iron. battery. Therefore, the advantage of lithium iron phosphate battery mainly refers to its comparison with other batteries in power applications. In this sense, it will mainly compare its relative advantages with ternary lithium batteries and lead-acid batteries.

1. The advantages of high temperature resistance compared with ternary lithium batteries. The high-temperature performance of lithium iron phosphate batteries is better, and can withstand high temperatures of 350°C to 500°C, while lithium manganate/lithium cobalt oxide is usually only about 200°C. The materials of modified ternary lithium batteries will generally be Decomposes at 200°C.

Second, the “elder” among the three-the absolute advantage of long life. Lithium iron phosphate batteries have a longer cycle life than lead-acid batteries and ternary lithium batteries. The “long life” of lead-acid batteries is only about 300 times, up to 500 times; the ternary lithium battery theoretically can reach 2000 times, and the capacity will decrease to 60% when it is actually used about 1000 times; while the true life of lithium iron phosphate batteries That is, it reaches 2000 times, at this time there is 95% of the capacity, and its conceptual cycle life reaches more than 3000 times.

3. There are many advantages compared with lead-acid batteries:

1. Large capacity. The monomer can be made into 5Ah~1000 Ah (1 Ah=1000m Ah), while the lead-acid battery 2V monomer is usually 100Ah~150 Ah, with a small variation range.

2. Light weight. The volume of the lithium iron phosphate battery of the same capacity is 2/3 of the volume of the lead-acid battery, and the weight is 1/3 of the latter.

3. Strong fast charging ability. The start-up current of lithium iron phosphate batteries can reach 2C, which can realize high-rate charging; the current requirement of lead-acid batteries is generally between 0.1C and 0.2C, which cannot achieve fast charging performance.

4. Environmental protection. Lead-acid batteries have a large amount of heavy metal-lead, which produces waste liquid, while lithium iron phosphate batteries do not contain any heavy metals, and there is no pollution in production and use.

5. High cost performance. Although lead-acid batteries are cheaper than lithium iron phosphate batteries because of their cheap materials, they are less economical than lithium iron phosphate batteries in terms of service life and routine maintenance. Practical application results show that the cost performance of lithium iron phosphate batteries is more than 4 times that of lead-acid batteries.

Although the application range of lithium iron phosphate battery is mainly manifested in the direction of power, it can also be extended to more fields in theory. This is determined by the various advantages shown in the above comparison. If the energy density and discharge rate are further With some improvements, it is entirely possible to enter the traditional application areas of other types of lithium-ion batteries.

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