Unik Techno • June 20, 2024

Mastering UPS Battery Capacity Planning for Industrial Systems

In industrial settings, power supply dependability is critical. Activities' maintenance in the event of a power outage greatly depends on Uninterrupted Power Systems. This blog explores how to efficiently plan battery capacity for industrial UPS systems, providing guidance for maximum dependability and performance.   


Determining the Necessary Load Conditions

Start by determining how much power the essential equipment needs. For this, a list of all the devices linked to the UPS system must be created, and their power consumption in watts and volt-amperes (VA) must be determined. Accurately estimating the active and apparent power will ensure that your UPS energy storage system is the right size, eliminating inefficiencies and guaranteeing dependable power protection. Underestimating the power needs can result in an underpowered backup system or needless spending on an overpowered system.   



Accommodating Future Expansion

Planning for battery capacity with forward-thinking entails projecting future growth. Industrial settings are dynamic and may grow or require modifications to their operational requirements. Plan your UPS battery system for growth in the future so that it can continue to function correctly without constant upgrades. To select a system that can grow with your needs, consider the possibility of scaling operations, seasonal fluctuations and the anticipated lifespan of the UPS batteries. 



Understanding  Power Consumption Patterns 

Devices vary in how they use power, particularly in the initial stages. When equipment starts up, it needs more power than it needs to run continuously, referred to as inrush current. A thorough comprehension of these dynamics aids in selecting a large UPS battery capacity that can efficiently handle transient loads. To guarantee that the UPS batteries can continuously handle all power demands, one must consider both the typical operational and peak loads during startup.   



Redundancy and Efficiency   

High-efficiency systems can save money since they consume less energy and cool down more quickly. Since they are made to reduce energy losses during power conversion, they are more cost-effective over time. Calculate the required redundancy level to improve system dependability and guarantee a steady power supply. One can achieve redundancy by having backup UPS batteries that can take over and offer additional protection if the primary unit fails.   



Evaluating Runtime Requirements   

Determine the necessary runtime during blackouts to help choose the suitable UPS battery capacity. This crucial information helps you determine how long vital systems will continue functioning until backup generators are turned on or the systems are securely shut down. Consider the worst-case scenario for power outages and ensure your UPS can continue operating for as long as it takes to shut down vital equipment or restore electricity securely.   


Assessment of the Environment 

Temperature is a single environmental concern that might affect the lifespan and effectiveness of UPS batteries. Extreme weather could affect the life of batteries because they are susceptible to temperature. To enhance longevity and efficiency, select a solution that will operate well in the specific environmental conditions that you find yourself in. Maintaining ideal circumstances for your UPS can be facilitated by installing suitable ecological controls, such as climate-controlled rooms.   


Choosing the Correct UPS Topology

UPS systems offer varying topologies of power protection. The best protection is provided by online systems, which isolate the load from power outages by continuously converting incoming power to DC and back to AC. For less critical applications, Line-Interactive systems offer good protection and efficiency. Because of its affordability and basic safety, offline UPS is suitable for non-critical applications. Select the topology best suited to your needs and budget to ensure efficient power management.   

   

Battery capacity planning requires carefully considering many aspects of industrial UPS systems. By following these best practices, organisations can guarantee operational dependability and a continuous power supply.   

   

Contact UNIK for more information on optimising battery capacity and selecting the best high-capacity UPS for your industrial needs. Our stationary battery solutions for industrial UPS systems offer scalability, efficiency, and reliability tailored to your requirements. Our experts are here to assist you in ensuring uninterrupted power supply and operational efficiency. 


By Unik Techno August 1, 2025
Sulfation is a widespread yet often overlooked issue in the world of lead-acid batteries. Frequently dubbed the “ silent killer” , it operates without obvious warning signs, quietly reducing both battery performance and service life. Whether used in industrial machinery, UPS systems, or off-grid energy storage, sulfation poses a serious risk to any application reliant on reliable battery power. What is Sulfation in Lead Acid Batteries? At its core, sulfation refers to the accumulation of lead sulphate crystals on the battery’s internal plates. This occurs naturally during discharge as the active material on the plates reacts with sulphuric acid. In a properly maintained battery, these crystals dissolve again during the charging process. However, when a battery is left undercharged, stored in a discharged state, or routinely subjected to deep discharge cycles, these sulphate crystals begin to harden. Over time, they become dense and irreversible, severely inhibiting the battery’s ability to hold and deliver electrical charge. What Causes Sulfation in Lead Acid Batteries? Understanding the root causes of battery sulfation is the first step to avoiding it. One of the most common contributors is infrequent or incomplete charging. A battery that is not brought back to a full state of charge after use may retain a residue of sulphate on the plates. This residue becomes the starting point for permanent sulfation, especially if the battery is neglected over repeated cycles. It is not just charging habits either—environmental conditions also play a significant role. High ambient temperatures accelerate the electrochemical reactions inside a battery, increasing the likelihood of crystal formation and growth. In warmer climates, or in confined battery enclosures without proper ventilation, this risk is amplified. Prevention of Sulfation in Lead Acid Batteries Prevention begins with proper charging practices. Always use a smart charger that can automatically adjust the charging voltage and current based on the battery’s state-of-charge. These chargers typically include bulk, absorption, and float stages that ensure a complete and balanced charge. Some models even include pulse or maintenance modes that help dissolve early-stage sulphate deposits, reducing the onset of crystallisation. Routine maintenance is another critical factor. For flooded lead-acid batteries, it’s important to regularly check electrolyte levels and top up with demineralised water when necessary. Low electrolyte levels expose the upper portions of the battery plates to air, causing oxidation and increasing the likelihood of sulphate build-up. In addition to fluid checks, make sure to clean terminal posts, check for corrosion, and tighten connections to ensure efficient current flow. Equalisation charging is a powerful tool in the prevention arsenal. This is a controlled overcharge applied periodically—usually once every 30 to 90 days that helps equalise the voltage between cells and reverses mild sulfation. Equalisation charges are particularly effective in larger battery banks where cell imbalance is common. However, they should only be performed according to the manufacturer’s guidelines, as excessive overcharging can damage the battery. Storage practices also matter. If a battery is left unused for extended periods, it must be stored fully charged and kept in a cool, dry environment. Batteries in storage should be recharged every 60 to 90 days to prevent the slow self-discharge that can lead to sulphate crystallisation. Even sealed lead-acid batteries are vulnerable if stored improperly. While some specialised de-sulfation chargers claim to reverse sulfation through high-frequency pulse technology, their effectiveness is generally limited to early-stage sulphate deposits. Once the crystals become hard and dense, recovery is unlikely, and battery capacity is permanently reduced. Prevention remains far more effective than any attempted cure. The consequences of ignoring sulfation can be expensive. Reduced runtime, increased charging times, and eventual failure can disrupt operations and require premature battery replacement. For businesses, this translates to higher operational costs, increased downtime, and reduced energy efficiency. At UNIK Batteries, we believe that prevention is the smartest investment. By manufacturing high-quality lead-acid batteries and state-of-the-art charging components, we help customers protect their power infrastructure from day one. Whether you operate forklifts , golf carts , maintain a solar backup system , or manage a unit of UPS batteries , we have the right solution to keep you powered and protected from sulfation. Contact us to explore our range of batteries and charging components today!
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