Frequently asked questions
Absolutely. With their low self-discharge and ability to perform under varied conditions, LTO batteries are ideal for off-grid energy storage and emergency backup systems.
Chargers specifically designed for lithium-ion cells, with voltage and current regulation, optimize the performance and lifespan of LTO batteries.
Yes, LTO batteries are recyclable, with facilities equipped to reclaim lithium, titanium, and other materials, contributing to a more sustainable lifecycle.
LTO batteries are lighter, last significantly longer, and recharge faster than lead-acid batteries, providing superior performance in demanding applications.
LTO batteries are low-maintenance. Periodic inspections of charge levels and battery health help maintain optimal performance, particularly in high-stress applications.
The rapid charge capability and extended cycle life make LTO batteries a preferred choice in electric buses and fleet vehicles, reducing downtime and maintenance costs.
While LFP batteries are known for their stability and cost-effectiveness, LTO batteries excel in rapid charging and durability, ideal for applications needing ultra-long life and fast turnaround times.
LTO batteries have a lower environmental impact compared to some other lithium-ion chemistries due to their long cycle life, which reduces waste over time.
LTO batteries perform reliably in both cold and hot environments, making them versatile for applications exposed to temperature extremes.
Yes, LTO batteries are among the safest lithium-ion battery types due to their excellent thermal stability, low flammability, and reduced risk of thermal runaway.
The lifespan of an LTO battery is one of its most significant advantages. LTO batteries can last for 10,000 cycles or more, far outlasting traditional lithium-ion batteries which typically have 2,000-3,000 cycles. This long lifespan makes LTO batteries particularly well-suited for applications that require frequent cycling or long-term reliability.
Absolutely. With a long cycle life, high efficiency, and ability to hold a charge over extended periods, LFP batteries are a great option for off-grid solar systems and backup power solutions
LFP batteries perform best with chargers specifically designed for lithium-ion cells, which regulate voltage and current. Using a compatible charger can extend battery life and improve performance.
Yes, LFP batteries are recyclable. Many facilities are equipped to reclaim lithium, iron, and phosphate components, making LFP batteries a more environmentally friendly choice when it comes to end-of-life disposal.
LFP batteries are lighter, more compact, and have a longer lifespan than lead-acid batteries. They also provide a higher energy density and maintain consistent power output, making them a more efficient option in many applications.
LFP batteries are generally low-maintenance. Routine checks for charge levels and temperature management can help ensure optimal performance, especially in demanding or extreme environments.
LFP batteries deliver reliable long-term storage, essential for balancing renewable energy output with demand, making them ideal for both residential and grid-scale use.
LFP batteries are valued for their safety, longevity, and thermal stability, whereas NMC batteries offer higher energy density, ideal for compact applications.
LFP batteries are more eco-friendly, as they rely less on rare and toxic metals like cobalt, making them a safer choice for the environment.
While LFP batteries can function in cold environments, performance may decrease below 0°C. Many systems use heating elements to ensure optimal performance.
Yes, LFP batteries are among the safest lithium-ion battery types due to their thermal stability and reduced risk of thermal runaway.
The lifespan of an LFP battery is one of its standout features. These batteries are renowned for their long cycle life—typically around 2,000 to 3,000 cycles, which is significantly higher than traditional lithium-ion chemistries. This means LFP batteries can last for 10-15 years or more, depending on usage patterns.
Key factors influencing the lifespan of LFP batteries include:
- Depth of discharge (DoD): Shallow discharges (i.e., not draining the battery completely) can extend the lifespan.
- Temperature: LFP batteries perform best in moderate temperatures. High temperatures can degrade the battery faster.
- Charge and discharge rates: Charging and discharging at high currents can shorten the battery’s lifespan.
Key challenges and limitations of energy storage systems include the high upfront costs of certain technologies, limited energy storage capacity for certain applications, the need for proper maintenance and monitoring, potential environmental impacts associated with the manufacturing and disposal of batteries, and regulatory and policy barriers that may hinder the widespread adoption of energy storage systems.
Businesses and homeowners can integrate energy storage systems into their existing infrastructure by retrofitting them to their solar or renewable energy installations. They can work with energy storage system providers to assess their energy needs, determine the appropriate storage capacity, and ensure compatibility with the existing renewable energy setup.
Emerging trends and innovations in energy storage systems include advancements in battery technologies, such as improved energy density and longer lifespans, the development of new storage technologies like hydrogen storage and flow batteries, and the integration of energy storage with advanced control systems and artificial intelligence for optimized operation and management.
Energy storage systems contribute to grid stability and reliability by providing grid support services such as frequency regulation, voltage control, and load balancing. They can respond quickly to fluctuations in electricity supply and demand, helping to maintain a stable grid and improving the overall reliability of the electricity system.
Environmental benefits of using energy storage systems include increased integration of renewable energy sources, leading to reduced reliance on fossil fuels and decreased greenhouse gas emissions. By storing excess renewable energy and releasing it when needed, energy storage systems help smooth out the variability of renewables and contribute to a more stable and sustainable energy infrastructure.
Key factors to consider when choosing an energy storage system include capacity and power rating to meet energy demands, system efficiency to maximize energy utilization, battery technology with suitable characteristics for the application, compatibility, and scalability with existing infrastructure, and cost considerations along with potential returns on investment.
Energy storage systems can help reduce electricity costs in various ways. They enable time-of-use optimization by storing excess energy during low-demand periods and using it during high-demand periods, thus avoiding purchasing expensive electricity during peak rates.
They also help manage demand charges by discharging stored energy during peak periods, reducing the maximum power drawn from the grid. Additionally, energy storage systems can provide grid services such as frequency regulation and peak shaving, generating revenue or reducing costs for system owners.
There are several types of energy storage systems available, including battery energy storage systems (BESS) utilizing technologies like lithium-ion, lead-acid, or flow batteries, pumped hydro storage, compressed air energy storage (CAES), thermal energy storage (TES), and flywheel energy storage. Each type has its characteristics, advantages, and applications.
Energy storage systems work by capturing and storing electricity for later use. They typically employ batteries to store the excess energy generated by renewable sources such as solar or wind. When demand is high or renewable sources are not producing enough power, the stored energy is discharged to meet the demand.
The benefits of energy storage systems include increased utilization of renewable energy, energy independence during outages, reduced reliance on the grid, cost savings, improved integration of renewables, and reduced greenhouse gas emissions.
The importance of energy storage systems in the renewable energy sector lies in their ability to address the intermittent nature of renewable sources. They enable the reliable and efficient use of renewable energy by storing excess energy and releasing it when needed, thereby ensuring a consistent and stable power supply.
Yes, energy storage systems contribute to more sustainable and environmentally friendly energy infrastructure. They promote the efficient use of renewable energy, reduce reliance on fossil fuels, and help mitigate greenhouse gas emissions.
Depending on your location and the policies of your local utility company, it may be possible to sell excess energy back to the grid. This is known as “net metering” or “feed-in tariffs” in some regions.
The duration for which an energy storage system can power a home or business depends on various factors, such as the capacity of the batteries and the energy consumption of the property. Larger battery capacities can provide power for longer durations.
Yes, energy storage systems can be retrofitted to existing solar panel installations. They can be integrated with new and existing solar setups, allowing users to maximize their solar energy utilization.
Energy storage systems offer several benefits, including:
- Increased self-consumption of solar energy
- Energy independence during grid outages
- Reduced reliance on the electrical grid
- Lower energy costs by utilizing stored energy during peak demand times
- Enhanced integration of renewable energy sources into the grid
An energy storage system for solar refers to a technology that captures and stores excess energy produced by solar panels. It enables homeowners or businesses to use the stored energy during periods of low solar generation or when the grid is down.
Crystal Batteriesâ„¢ consists of a number of unique special features including: a micro porous super absorbent matt (SAM), thick plates cast from high purity lead calcium selenium alloy (which ensures an extended life), and a SiO2 based electrolyte solution. During the charge / discharge cycles the electrolyte solidifies and forms a white crystalline powder. This eventually results in a safer, high performing and environmentally friendlier battery. Crystal Batteriesâ„¢ can be used as a substitute for most battery technologies in the lead category, such as lead acid, lead gel and AGM.
Crystal Batteriesâ„¢ are being used in a wide range of applications including, but not limited to telecoms, ups, petrochem/marine, defence, renewable energy, health care, manufacturing, transportation and electric motion (wheelchairs, golf carts & trolleys), caravan & RV, Recreational 4WD, LED Lighting, robotics and more.
Crystal Batteriesâ„¢ have a design life of 18 years. For Cycle life check our data sheets and catalog for specific information.
Crystal Batteriesâ„¢ have an extremely low self-discharge and can be stored for more than two years without any top-up charging prior to use.
Crystal Batteries™ can operate in a wide temperature range from -40°C (-40˚F) to +65°C (149˚F). Crystal Batteries™ can even be charged below zero degrees ˚C.
Crystal Batteriesâ„¢ hold less acid, no cadmium, no antimony. Crystal Batteriesâ„¢ are up to 99% recyclable and are classified as non-hazardous goods for transport. Crystal Batteriesâ„¢ are also extremely low gassing and produce no dangerous gases. They can also be used indoors or in confined spaces.
Yes, Crystal Batteriesâ„¢ have a lower internal resistance than lead acid batteries due to the difference in active material of the positive electrode.
Yes, Crystal Batteriesâ„¢ can be charged up to 3C (In Boost for short periods) without any impact on their cycle life. This means they can be charged 2-3 faster than other batteries. Standard charging requires 0.3C for GS, LS, FT range and 0.2C for EV Range.
Due to the construction and chemical reaction inside a Crystal Batteriesâ„¢, sulfation hardly ever occurs. Crystal Batteriesâ„¢ contain less sulphuric acid. They do not contain toxins such as cadmium or antimony either.
Yes, Crystal Batteriesâ„¢ can be discharged in full frequently, even to 0 Volt. This makes Crystal Batteriesâ„¢ extremely resilient for deep discharging. Deep discharging will reduce the cycle life.
Yes, Crystal Batteries™ can be partially charged i.e. you don’t have to charge them fully to be able to use them. If you operate the battery from a partial state of charge constantly it does pay to do a maintenance charge (deep discharge followed by a full charge) occasionally to get the best out of the battery.
Determine how many battery amps your application needs and how long it is needed for. Multiply both values to calculate the necessary ampere-hours (Ah). Add a 20% safety margin and select a battery from our product range overview. Parallel batteries deliver greater electric currents and series-connected batteries deliver higher voltage. In both cases, the storage capacity (Wh = watt hours) increased by the amount of force each additional battery has.
Crystal Batteriesâ„¢ are being used in a wide range of applications including, but not limited to telecoms, ups, petrochem/marine, defence, renewable energy, health care, manufacturing, transportation and electric motion (wheelchairs, golf carts & trolleys), caravan & RV, Recreational 4WD, LED Lighting, robotics and more.
AMP-SC-35A – 2.7 kg (6 lbs) | AMP-SC-60A – 3 kg (6.6 lbs)
