Inside the Race to Power AI’s Energy-Hungry Revolution
The Rise of AI is Straining Data Center Power Systems We’re all familiar with how artificial intelligence is reshaping the current and future...
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Best Practices for Maintaining Data Center Uptime
Data centers are the backbone of modern digital infrastructure. Ensuring uninterrupted service during power disruptions requires proactive planning and robust systems. Backup battery systems are central to this effort, providing a critical bridge between utility power...
Are Maintenance-Free Batteries Really Maintenance-Free? Understanding VRLA Battery Maintenance
The term "maintenance-free" has been around for a long time, primarily used by the automotive industry to highlight the convenience of batteries that don’t require water refills. In automotive applications, this makes sense. But when it comes to industrial stationary...
The Importance of Battery Systems in Modern Life: Lead-Acid, Nickel-Cadmium, and the Rise of Lithium-Ion
Batteries play an integral role in the systems that power the world around us. From keeping communication networks running to providing essential backup power in critical infrastructure, they ensure that power is available when it's needed most. Among the most common...
EquaLink Battery Management System
Product News Release – Announcing New Battery Management System
The EquaLink Battery Management System (BMS), delivers a complete and comprehensive diagnostic and monitoring solution for critical battery maintenance programs and required NERC / IEEE reporting.
Menomonee Falls, Wisconsin, February 5, 2016 – SBS Testing and Monitoring, a division of Storage Battery Systems, LLC (SBS), an industry leader in battery testing equipment and Power Solutions™, is pleased to announce the release of their new EquaLink Battery Management and Monitoring System.
Part 2: Can your generation plant survive an unplanned or emergency trip without sustaining major damage?
TEST EQUIPMENT
The equipment used in a capacity test should be a computer-based battery discharge test system with automatic data logging.
It should be capable of conducting single or multiple steps, constant current or constant power (kilowatt) discharge tests. It should include a video display of all pertinent data relating to a discharge test such as individual cell voltages, load current, overall battery voltage, average cell voltage, minimum cell voltage, maximum cell voltage, elapsed test time, program step number and program step elapsed time, battery location and battery identification number.
5 Common Mistakes in Battery System Capacity Testing
IEEE and NERC both require battery capacity testing as a means of predicting a battery system’s ability to perform when called upon during a loss of AC power, for acceptance of new installations, and in determination of end of life criteria for system replacement. While NERC is very vague and just states that “Capacity testing must be done at said interval”, IEEE 450, 1106 and 1188 have clearly defined frequencies, prerequisites and instructions on how these tests should be conducted.
From results that are submitted to us for warranty consideration or review, a group of common errors have come to light. Below are the top 5 most common mistakes that are seen in capacity testing.
Part 1: Can your generation plant survive an unplanned or emergency trip without sustaining major damage?
INTRODUCTION
Good question, and one your insurance company or investors are likely to ask and want documentation on.
The heart of the safety system that allows for an orderly and safe generating unit shutdown is the station battery and associated DC system. The generating unit will sustain major or even catastrophic damage if the station battery and associated DC system fail to perform as specified in the system design criteria.