As we all know, many electric curtains on the market are battery-driven. As the market demand for electric curtains continues to expand, the demand for 18650 battery pack are also increasing. The batteries for electric curtains are very similar in appearance and size.
Currently, the batteries mainly used for electric curtains include 18650 lithium ion battery, 18650 lifepo4 battery, 18650 sodium ion battery, Ni-MH battery
At present, sodium-ion battery is still in its infancy. Some customers have begun testing samples, and there should be greater feedback in the market in recent years. Sodium-ion batteries are also a new trend in the future development of the battery industry.
Ni-MH battery pack 12V, 10S1P 12V 2500mAh.
This type of battery has mature technology, various models to choose from, and the price is not expensive.
HIMAX makes different type of rechargeable battery for electric curtains.
Himax has now also begun to provide sodium-ion battery solutions to our customers to meet the needs of industry development. We have more than 10 years experience and we we got as high as 99% of satisfaction on quality in these years.
Your inquiries are warmly welcome.
Contact Himax now to unlock your exclusive battery customization options, Himax offers a wide range of options and flexible customization services to meet the needs of different users.
If you have any question, please feel free to contact us:
Name: Dawn Zeng (Director)
E-mail address: sales@himaxelectronics.com
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In the race to develop the most efficient and sustainable energy storage technology, two leading contenders have emerged: sodium ion batteries and li ion customized battery packs. While lithium ion batteries currently hold the market share, sodium ion batteries offer several advantages that could disrupt the energy storage landscape in the coming years.
Li ion customized battery packs, which are widely used in consumer electronics, electric vehicles, and grid-scale energy storage systems, have a long track record of performance and reliability. Lithium ion batteries store energy in the form of lithium ions, which can travel through an electrolyte to power the battery. They have a high energy density, meaning they can store a large amount of energy in a small space. Lithium ion batteries also have a relatively long lifespan, making them a cost-effective choice for many applications.
However, lithium is a rare metal, making li ion customized battery packs expensive and environmentally unfriendly to produce. The extraction and refinement of lithium require significant resources and can have negative impacts on the environment. Furthermore, lithium ion batteries may not be the best solution for large-scale grid storage or for widespread use in electric vehicles due to their limited supply and high cost.
Sodium ion batteries, on the other hand, offer a more sustainable and cost-effective alternative to lithium ion batteries. Sodium is abundant and widely distributed, making it a less expensive and more environmentally friendly material for battery production. Sodium ion batteries work similarly to lithium ion batteries, storing energy in the form of sodium ions that travel through an electrolyte. They have a high specific capacity, meaning they can store more energy per unit weight compared to lithium ion batteries.
Another advantage of sodium ion batteries is their wide temperature range. They can operate in a variety of climates and conditions, making them suitable for use in extreme environments or in remote locations where temperature control is challenging. This flexibility could make sodium ion batteries a good choice for grid-scale storage in areas with variable climates or limited infrastructure.
Despite their advantages, sodium ion batteries still face challenges before they can compete with lithium ion batteries on the market. Researchers are working to improve the performance, lifespan, and cost-effectiveness of sodium ion batteries to make them viable alternatives. Development efforts are focused on improving the electrode materials, developing new electrolytes, and optimizing battery designs to improve energy density and charge/discharge rates.
The future of energy storage is uncertain as more research is conducted on both sodium ion batteries and li ion customized battery packs. It remains to be seen which technology will ultimately prevail. However, as the race continues, it’s clear that the development of sustainable and cost-effective energy storage solutions is critical for meeting the growing demand for clean and efficient energy worldwide.
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In today’s fast-paced world, the demand for efficient and sustainable energy storage solutions is constantly on the rise. One of the most promising technologies in this field is the Sodium Na Ion Battery Pack. Let’s explore the benefits of this advanced energy storage solution and understand why it’s revolutionizing the way we power our devices and vehicles.
High Energy Density: Sodium Na Ion Battery Packs offer exceptionally high energy density, meaning they can store more energy in a smaller space. This makes them an excellent choice for devices that require compact yet powerful energy sources, such as electric vehicles and portable electronic devices.
Extended Lifespan: With proper care and use, Sodium Na Ion Battery Packs can last for hundreds of charge-discharge cycles, significantly longer than many other types of batteries. This ensures longer-lasting performance and reduces the need for frequent replacements, saving time and money.
Fast Charging: Sodium Na Ion Battery Packs can be charged quickly, significantly reducing charging times compared to other batteries. This is particularly beneficial for electric vehicles, where quick charging can enhance the driving experience and reduce the time spent stationary charging.
Environmentally Friendly: Unlike some traditional batteries that contain harmful substances, Sodium Na Ion Battery Packs are environmentally friendly. They are safe to dispose of and are composed of materials that are easily recyclable, making them more sustainable and eco-friendly.
Scalability: Sodium Na Ion Battery Packs can be scaled up or down depending on the application, providing flexibility in terms of power and capacity requirements. This allows for efficient customization to fit the needs of various devices and systems.
Durability: The robust design of Sodium Na Ion Battery Packs makes them highly durable and resilient to harsh conditions. They can withstand extreme temperatures, vibrations, and other challenging environmental factors, making them suitable for use in various industrial, automotive, and aerospace applications.
In conclusion, the Sodium Na Ion Battery Pack offers a range of remarkable benefits that make it a highly suitable energy storage solution for a variety of applications. Its high energy density, extended lifespan, fast charging capabilities, environmental friendliness, scalability, and durability provide unprecedented performance in powering our devices and vehicles efficiently and sustainably. As the demand for clean and efficient energy storage solutions continues to grow, the Sodium Na Ion Battery Pack is set to play a pivotal role in meeting these demands and shaping a brighter energy future.
If you have any question, please feel free to contact us:
Name: Dawn Zeng (Director)
E-mail address: sales@himaxelectronics.com
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A research team has successfully constructed a glassy Li-ion conduction network and developed amorphous tantalum chloride solid electrolytes (SEs) with high li ion customized battery packs conductivity.
The research results were published in the Journal of the American Chemical Society.
The study shows that compared with ceramic SEs, amorphous SEs distinguish themselves by their inherent unique glassy networks for intimate solid-solid contact and extraordinary li ion customized battery packs conduction percolation.
In addition, amorphous SEs are conducive to fast li ion customized battery packs conduction and are promising for realizing the effective use of high-capacity cathodes and stable cycling; thus, they significantly increase the energy density of all-solid-state lithium batteries (ASSLBs).
However, due to the low areal capacity of the thin-film cathode and the poor room-temperature ionic conductivity, the amorphous Li-ion conduction phosphorous oxynitride (Li1.9PO3.3N0.5, LiPON) is inferior to the current commercialized Li-ion batteries in terms of the energy/power density.
To overcome this challenge, it is necessary to develop amorphous SEs with high Li-ion conductivity and ideal chemical (or electrochemical) stability. It has been revealed that crystalline halides, compounds in which the halogens are negatively valenced, including fluorides, chlorides, bromides, and iodides, are promising to realize high-energy-density ASSLBs for their high voltage stability and high ionic conductivity. However, there are still few studies on developing amorphous chloride SEs.
Researchers proposed a new class of amorphous chloride SEs with high Li-ion conductivity, demonstrating excellent compatibility for high-nickel cathodes, and realized a high-energy-density ASSLB with a wide range of temperatures and stable cycling.
The researchers determined the structural features of the LiTaCl6 amorphous matrix by employing random surface walking global optimization combined with a global neural network potential (SSW-NN) function for a full-situ energy surface search and one-dimensional solid-state nuclear magnetic resonance lithium spectroscopy for the decoupling of chemical environments, X-ray absorption fine-structure fitting, and low-temperature transmission electron microscopy for the microstructural characterization of the matrix.
Based on the flexibility of its component design, a series of high-performance and cost-effective Li-ion composite solid electrolyte materials with the highest room-temperature Li-ion conductivity up to 7 mS cm-1 were further prepared, which meets the practical application requirements of high-magnification ASSLBs.
Furthermore, researchers verified the applicability of the ASSLBs constructed based on amorphous chloride over a wide temperature range: i.e., it can achieve a high rate (3.4 C) close to 10,000 cycles of stable operation in a freezing environment of -10°C. The component flexibility, fast ionic conductivity, and excellent chemical and electrochemical stability exhibited by the amorphous chloride SEs provide new ideas for further designing new SEs and constructing high-ratio ASSLBs.
This breakthrough extends a series of high-performance composite SEs, overcomes the limitations of the structure and component design of traditional crystalline SEs, and paves the way for realizing high-nickel cathodes with high performance for ASSLBs.
The research team was led by Prof. Yao Hongbin from the University of Science and Technology of China (USTC), in collaboration with Prof. Shang Cheng from Fudan University and Prof. Tao Xinyong at Zhejiang University of Technology.
More information: Feng Li et al, Amorphous Chloride Solid Electrolytes with High Li-Ion Conductivity for Stable Cycling of All-Solid-State High-Nickel Cathodes, Journal of the American Chemical Society (2023). DOI: 10.1021/jacs.3c10602
Journal information: Journal of the American Chemical Society
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Summary:
This article provides valuable insights into enhancing the lifespan of li ion customized battery packs. Covering key factors like charging, storage conditions, and proper maintenance, it equips readers with the knowledge to ensure maximum performance and longevity of their batteries.
Body:
Li ion customized battery packs have become an integral part of our daily lives, powering everything from smartphones to electric vehicles. However, ensuring their longevity can be a challenge. Here’s a guide to increasing the lifespan of li ion customized battery packs.
1.Proper Charging:
Charging the battery to full capacity and draining it completely can shorten its lifespan. It’s recommended to charge the battery when it reaches about 40-80% discharge level to minimize damage to the battery.
Using a high-quality charger that adheres to battery manufacturer’s recommended charging parameters is essential for maintaining battery health.
Avoid charging or discharging the battery at high temperatures as this can damage the battery’s internal structure, leading to premature aging.
2.Storage Conditions:
When not in use, li ion customized battery packs should be stored in a cool, dry place. Extreme temperatures can affect battery performance and longevity.
It’s best to store the battery at about 50% charge level to prevent damage caused by deep discharging or overcharging.
Regularly charging and discharging the battery even when not in use helps maintain battery health.
3.Proper Maintenance:
Regularly cleaning the battery contacts with a lint-free cloth can help prevent corrosion and ensure efficient charging and discharging.
Inspecting for cracks, tears, or other damage on the battery casing and ensuring it’s securely fastened can prevent leaks and failures.
It’s essential to use only recommended chargers and not to attempt repairs or modifications on the battery as this can lead to damage or malfunction.
By following these guidelines, you can ensure that your lithium-ion batteries perform at their best for longer, extending their lifespan and providing reliable power throughout their service life. Remember, proper care and maintenance are key to achieving maximum performance from your lithium-ion batteries.
If you have any question, please feel free to contact us:
Name: Dawn Zeng (Director)
E-mail address: sales@himaxelectronics.com
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5V batteries are widely employed in various portable devices, characterized by a moderate voltage, compact size, light weight, and relatively high power output, making them an ideal energy source for many mobile devices.
Here are some common portable devices that typically utilize 5V batteries:
Smartphones: The voltage level of 5V batteries is relatively moderate, allowing them to provide sufficient power for smartphones while maintaining a reasonable battery life. This ensures that smartphones can maintain good battery performance over an entire charging cycle.
Tablets: Designed for lightness and portability, tablets often incorporate 5V batteries, offering a balanced power management solution to meet the performance requirements of tablets while maintaining a relatively long battery life. Similar to smartphones, tablets frequently use 5V batteries to support high-resolution screens and complex applications.
Portable Chargers: Since most mobile devices use USB as a charging standard, and the standard voltage for USB charging is 5V, portable chargers with 5V batteries can directly support various USB charging devices, providing broader compatibility.
Bluetooth Headphones and Earphones: Bluetooth headphones and earphones are typically low-power devices that don’t require high voltage to provide sufficient energy. The 5V battery voltage is moderate in this scenario, meeting the power needs of headphones and making them lightweight and easy to carry.
Handheld Gaming Consoles: Designed for portability, handheld gaming consoles often use 5V batteries due to their relatively small size and lightweight, supporting extended gaming experiences.
Smartwatches and Health Trackers: Many smartwatches and health trackers support USB charging with a standard voltage of 5V. By adopting 5V batteries, these devices can directly utilize standard USB charging cables, providing a convenient and universal charging method.
Drones: Small and portable drones typically use 5V batteries to supply the required power for flight.
Cameras and Camcorders: Some portable cameras and camcorders use 5V batteries, making them more convenient to carry and use.
Handheld Electronic Devices: Including small speakers, flashlights, and mobile wireless routers, various portable electronic devices also commonly use 5V batteries.
When applying 5V batteries, it’s essential to consider the following aspects:
Compatibility: Ensure that the selected 5V battery is compatible with the device’s voltage requirements to prevent potential damage or performance degradation.
Quality and Reliability: Opt for high-quality and reliable brands of 5V batteries to ensure performance and safety. Low-quality batteries may pose risks such as leakage, overheating, and other safety hazards.
Charger Selection: Use a charger that aligns with the device’s specifications in terms of charging current and voltage. Using an incorrect charger may impact battery life and safety.
Charging Cycles: Avoid frequent deep discharge cycles, as this can accelerate the aging of 5V batteries. Regular charging and maintaining the battery at an appropriate charge level contribute to sustained performance.
Temperature Control: Avoid using or charging 5V batteries in extreme temperatures, as extreme conditions may affect battery performance and lifespan. High temperatures can lead to overheating, while low temperatures may cause a reduction in battery capacity.
Avoid Overdischarge and Overcharge: Prevent both full discharge and overcharging of 5V batteries. This practice helps extend the battery’s lifespan and reduce internal stress.
Storage Conditions: If a device will not be used for an extended period, ensure the battery is fully charged before storage and store it in a cool, dry place. Avoid storing devices and batteries in environments with high temperatures or humidity.
Maintenance Alerts: Some devices may provide maintenance alerts or settings related to battery care. It’s crucial to follow the manufacturer’s recommendations and perform maintenance promptly.
Monitoring During Charging: Keep the device nearby during charging to take timely action in case of any abnormalities. Overcharging can lead to overheating and safety issues.
Prevent Impact and Compression: Avoid subjecting 5V batteries to strong impacts or compression to prevent battery damage, leakage, or short circuits.
5V rechargeable batteries are a common portable power source. Through careful selection, use, and maintenance of 5V batteries, their performance can be optimized, and their lifespan extended. For more information about battery products or other advanced technological solutions, please feel free to contact us.
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In recent years, compared to li ion customized battery packs, sodium-ion batteries have continued to develop in the industry and are now gradually being put into use.
What are the outstanding advantages of sodium-ion batteries compared with li ion customized battery packs?
According to current industry test data analysis, sodium-ion batteries not only have better safety, but are more cold-resistant than li ion customized battery packs when encountering low temperatures of -40°C.
Sodium-ion batteries have no over-discharge characteristics, allowing sodium-ion batteries to discharge to zero volts. The energy density of sodium-ion batteries is greater than 100Wh/kg, which is comparable to lithium iron phosphate batteries. However, its cost advantage is obvious, and it is expected to replace traditional lead-acid batteries in the large-scale energy storage industry.
The working principle of sodium-ion batteries is the same as that of lithium-ion batteries, and the existing production equipment of lithium ion battery companies can be directly used to produce sodium-ion batteries. Since there is basically no equipment investment, it is easy for companies to produce them as alternative batteries.
Although the energy density of sodium-ion batteries is not as high as lithium-ion batteries, due to the abundant Na resources and easy availability, and the current high price of lithium carbonate, Na-ion batteries still have very broad application prospects in the long run. It still has application prospects in some fields that do not require high energy density, such as grid energy storage, peak shaving, wind power energy storage, etc.
Himax has now also begun to provide sodium-ion battery solutions to our customers to meet the needs of industry development.
Your inquiries are warmly welcome.
Contact Himax now to unlock your exclusive battery customization options, Himax offers a wide range of options and flexible customization services to meet the needs of different users.
If you have any question, please feel free to contact us:
Name: Dawn Zeng (Director)
E-mail address: sales@himaxelectronics.com
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While 18650 lithium ion battery pack currently dominate the industry, serious concern remains about the limited availability of lithium used in these batteries. Conversely, sodium-ion batteries provide a more sustainable alternative due to the tremendous abundance of salt in our oceans, thereby potentially providing a lower-cost alternative to the rapidly growing demand for energy storage.
Currently most sodium-ion batteries contain a liquid electrolyte, which has a fundamental flammability risk. In contrast, Sodium (Na) Super Ionic Conductor (NASICON) materials are non-flammable solid-state electrolytes with high ionic conductivity and superior chemical and electrochemical stability.
Researchers within the University of Maryland’s A. James Clark School of Engineering, have now developed a NASICON-based solid-state sodium battery (SSSB) architecture that outperforms current sodium-ion batteries in its ability to use sodium metal as the anode for higher energy density, cycle it at record high rates, and all with a more stable ceramic electrolyte that is not flammable like current liquid electrolytes.
Dr. Eric Wachsman, Distinguished University Professor and Director of the Maryland Energy Innovation Institute notes, “Sodium opens the opportunity for more sustainable and lower cost energy storage while solid-state sodium-metal technology provides the opportunity for higher energy density batteries. However, until now no one has been able to achieve the high room temperature solid-state sodium-metal cycling rates we have achieved here.”
The unique 3D electrolyte architecture was recently published in Energy & Environmental Science and provides the promise of high energy density and commercially viable solid-state sodium batteries. The successful demonstration of both stable sodium cycling at high current densities and full cell cycling with thin 3D structured ion-conducting NASICON solid-electrolytes are a significant advancement towards sustainable and more economical energy storage technology.
More information: Prem Wicram Jaschin et al, High-rate cycling in 3D dual-doped NASICON architectures toward room-temperature sodium-metal-anode solid-state batteries, Energy & Environmental Science (2023). DOI: 10.1039/D3EE03879C
Journal information: Energy & Environmental Science
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Researchers led by Genki Kobayashi at the RIKEN Cluster for Pioneering Research in Japan have developed a solid electrolyte for transporting hydride ions (H−) at room temperature.
This breakthrough means that the advantages of hydrogen-based solid-state batteries and fuel cells are within practical reach, including improved safety, efficiency, and energy density, which are essential for advancing toward a practical hydrogen-based energy economy. The study was published in the journal Advanced Energy Materials.
For hydrogen-based energy storage and fuel to become more widespread, it needs to be safe, very efficient, and as simple as possible. Current hydrogen-based fuel cells used in electric cars work by allowing hydrogen protons to pass from one end of the fuel cell to the other through a polymer membrane when generating energy.
Efficient, high-speed hydrogen movement in these fuel cells requires water, meaning that the membrane must be continually hydrated so as not to dry out. This constraint adds a layer of complexity and cost to battery and fuel cell design, limiting the practicality of a next-generation hydrogen-based energy economy. To overcome this problem, scientists have been struggling to find a way to conduct negative hydride ions through solid materials, particularly at room temperature.
The wait is over. “We have achieved a true milestone,” says Kobayashi. “Our result is the first demonstration of a hydride ion-conducting solid electrolyte at room temperature.”
The team had been experimenting with lanthanum hydrides (LaH3-δ) for several reasons: the hydrogen can be released and captured relatively easily, hydride ion conduction is very high, they can work below 100°C, and have a crystal structure.
But, at room temperature, the number of hydrogens attached to lanthanum fluctuates between 2 and 3, making it impossible to have efficient conduction. This problem is called hydrogen non-stoichiometry and was the biggest obstacle overcome in the new study. When the researchers replaced some of the lanthanum with strontium (Sr) and added just a pinch of oxygen—for a basic formula of La1-xSrxH3-x-2yOy, they got the results they were hoping for.
The team prepared crystalline samples of the material using a process called ball-milling, followed by annealing. They studied the samples at room temperature and found that they could conduct hydride ions at a high rate. Then, they tested its performance in a solid-state fuel cell made from the new material and titanium, varying the amounts of strontium and oxygen in the formula. With an optimal value of at least 0.2 strontium, they observed complete 100% conversion of titanium to titanium hydride, or TiH2. This means that almost zero hydride ions were wasted.
“In the short-term, our results provide material design guidelines for hydride ion-conducting solid electrolytes,” says Kobayashi. “In the long-term, we believe this is an inflection point in the development of batteries, fuel cells, and electrolytic cells that operate by using hydrogen.”
The next step will be to improve performance and create electrode materials that can reversibly absorb and release hydrogen. This would allow batteries to be recharged, as well as make it possible to place hydrogen in storage and easily release it when needed, which is a requirement for hydrogen-based energy use.
More information: Yoshiki Izumi et al, Electropositive Metal Doping into Lanthanum Hydride for H− Conducting Solid Electrolyte Use at Room Temperature, Advanced Energy Materials (2023). DOI: 10.1002/aenm.202301993
Journal information: Advanced Energy Materials
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Batteries are typically identified by their chemistry and voltage. “5V” stands for 5 volts, which is a measure of the electrical potential difference or voltage that the battery can deliver. Batteries with a 5V output are commonly associated with USB (Universal Serial Bus) power, and they are often used to charge or power various electronic devices.
The physical appearance of a 5V battery would depend on its specific form factor and type. Here are some diverse form factors and types:
Cylindrical Batteries
Some devices use regular AA or AAA batteries, typically delivering 1.5 volts each, but they include internal boost converters to increase the voltage to 5V. Through battery holders, innovative configurations, and the application of boost converters, these familiar cylindrical cells become essential building blocks for customized power solutions.
Coin Cell Batteries
Like the CR2032, coin cell batteries are flat and round. These batteries usually provide 3 volts, and a boost converter can be used to increase the output to 5 volts.
USB Power Banks
USB ports on the power bank indicate the 5V output. They often have a rectangular or cylindrical shape, similar to a small brick or tube. USB power banks commonly provide 5 volts for charging electronic devices.
Custom Battery Packs
For those seeking a tailored approach to portable power, custom battery packs come into play. Devices with unique form factors or specific power requirements often rely on custom-designed battery solutions. These can vary widely in shape and appearance based on the application and design specifications.
Rechargeable Lithium-ion Batteries
As we delve deeper, rechargeable lithium-ion batteries take the spotlight. Renowned for their energy density and versatility, these batteries come in various shapes and sizes, often cylindrical, and have a label indicating the voltage. A voltage regulator or booster might be used to achieve a 5V output.
Remember, achieving a 5V output might involve additional circuitry or combining multiple batteries, as many standard batteries provide lower voltages. From USB power banks to custom packs and beyond, the options are as varied as the applications they serve. As technology continues to advance, the quest for portable power solutions will undoubtedly lead to even more innovative form factors.
HIMAX can provide customized 5v rechargeable battery packs according to your needs. If you have any question, please feel free to contact us:
Name: Dawn Zeng (Director)
E-mail address: sales@himaxelectronics.com
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