Maxivolt Case Studies

Get insight into the world of surge suppression and witness some of the innovative solutions we’re implementing for clients around the world.

Food Processing

Food Processing KEY INSIGHT Manufacturing capacity and efficiency have seen huge growth through technological advancements in recent years, but this progress comes with new challenges.

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water authority pumps

Water Treatment

Water Treatment KEY INSIGHT Disrupted groundwater production, treatment, and distribution can affect the health and welfare of communities, not to mention hampering industrial operations and

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Manufacturing

KEY INSIGHT Technological advancements in manufacturing have provided a major growth in production capacity and efficiency. Unfortunately, the electronic components that make these advancements possible

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Oil Production

KEY INSIGHT Reacting to unplanned maintenance issues prevents teams from being able to focus on important tasks and projects. Not only is this frustrating, but

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Industrial Water Well

Water Production

KEY INSIGHT Reliable groundwater production is mission-critical to many communities, industrial operations, and other establishments.  Replacing a downhole pump is typically a painful and expensive

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Lighting

KEY INSIGHT New lighting technologies have overtaken the lighting industry based on low energy consumption and long-life expectancies.  The energy savings are real, but many

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Maxivolt Tech Notes

Understand transient voltage through real-world application.

Picture of soup spelling out "SPD"

Surge Protection Industry  Terminology Explained

SPD. TVSS. I(n). kA. MCOV. VPR. SCCR. The surge protection industry is a virtual swamp of alphabet soup.
Most SPD specifications describe device capability under controlled conditions. Very few describe system behavior. Effective surge protection is determined by how the device interacts with the electrical system, not how it performs in isolation.
Below we’ve compiled the definitions to these (and more) to help electricians, maintenance personnel, and engineers wade through industry jargon.

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man with flashlight during power outage

Why Power Outages Cause Equipment Failure

Power outages don’t just interrupt operations — they can trigger transient overvoltage events that damage and/or destroy equipment, and cause equipment malfunctions. Understanding why this happens and how to prevent it is critical for reliability, uptime, and safeguarding sensitive assets.

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Diagnosing “Ghost Faults”

Ghost faults—also sometimes called phantom or elusive faults—are intermittent electrical anomalies that cause unexpected and unwanted behavior in equipment (e.g. nuisance trips, resets, flickers).

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3 Must-Haves for Power Quality

Protect equipment and reduce downtime with three power quality essentials: transient voltage mitigation, harmonic control, and proper grounding. Learn how a layered approach improves reliability, efficiency, and asset life.

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Transformers on pole

Transformers Do Not Stop Transient Voltage

Transformers are a staple in electrical systems, stepping voltage up or down as needed. But when it comes to one of the most prevalent power quality threats—transient overvoltage—transformers fall short. Here’s why that matters more than one might think.

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Common Pump-Off Controller Failure Modes and Their Fixes

Like all automation technologies, POCs are not without their challenges. Despite their advanced capabilities, they can become sources of inefficiency or downtime if not properly configured, hardened, and maintained. Understanding the common failure modes associated with POCs is essential for technicians tasked with ensuring reliable and optimized pump operation.

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Over 36 Years Experience & Knowledge Protecting Industries from Transient Voltage

Product selection, placement, and installation are critical to the performance of a surge suppression system. Maxivolt determines what devices are needed based on the immunity level of the specific electrical load to be protected. The placement of the devices is then determined based on the ideal location to maximize protection against both externally and internally generated power surges. Next the device must be installed as “the path of least resistance” in the system. Coordination of these 3 critical factors ensures the client’s surge suppression system will perform to its optimum capabilities.