Your insurance broker mentions that your 2026 renewal will require a “current arc flash study,” and suddenly the electrical system that has been running for years feels like a risk you cannot quite see or measure. You know OSHA cares about electrical safety and you know your people work in and around energized equipment, but an arc flash assessment sounds like a major project dropped on an already full plate. The real worry is simple: if you do not get this right, could coverage be delayed or priced out of reach.
Manufacturing leaders across Garland and the Dallas area are hearing similar messages from underwriters and loss-control representatives. Insurers are tightening expectations around electrical risk, and they are pointing directly to NFPA 70E and arc flash documentation as proof that a plant is taking hazards seriously. That means this is no longer just a “nice to have” safety initiative, it is becoming part of the cost of doing business and staying insured.
At ElectricMan, we see this shift up close. We have been a family-owned electrical service provider in Dallas since 2004, and our company is led by a Master Electrician with more than 35 years in the field. Our licensed, background-checked technicians work in commercial and industrial facilities every week, including plants in Garland, helping owners prepare for OSHA inspections, insurer visits, and major electrical upgrades. In this guide, we will share what we have learned so you can plan your arc flash assessment before 2026, instead of reacting under pressure.
Why 2026 Arc Flash Requirements Are On Your Insurance Radar
Insurance carriers have always cared about fire and electrical losses, but for years the focus tended to be on obvious issues, such as overloaded panels or lack of basic maintenance. In recent renewal cycles, especially heading toward 2026, more Garland manufacturers are seeing specific questions about “arc flash studies,” “NFPA 70E compliance,” and “electrical safety programs” in their underwriting questionnaires. This reflects a broader shift in how carriers handle industrial risk, moving from reactive claim handling to proactive verification that hazards are identified and documented.
Behind those questions sit two key reference points. NFPA 70E outlines how employers should identify arc flash hazards, assess risk, label equipment, and choose appropriate PPE. OSHA does not enforce NFPA 70E directly, but it expects employers to protect workers from known electrical hazards under its general duty clause and electrical safety rules. Insurers use these standards and expectations as a benchmark. If a plant cannot produce a recent arc flash risk assessment or accurate labels on energized equipment, many carriers interpret that as an unmanaged risk that can drive up severity if something goes wrong.
We are seeing this play out on the ground in Dallas-area facilities. Loss-control representatives walk through a plant and look for labeled switchgear, panelboards, and motor control centers. Underwriters may ask when the last arc flash study was performed and whether the system has changed since. For some Garland manufacturers, this is the first time anyone has linked electrical engineering work to insurance pricing and coverage conditions. Because we support commercial and industrial clients across the region, we have a clear view of how these expectations are tightening and how long it takes to respond properly.
What Arc Flash Actually Is In A Manufacturing Facility
To understand why carriers care, it helps to translate arc flash from a code phrase into what it looks like on the shop floor. An arc flash is a rapid, explosive release of energy caused by a fault in an electrical system, where current leaves its intended path and travels through air between conductors or from a conductor to ground. When this happens inside a panelboard, switchgear, or MCC bucket, it can create a blinding flash, extreme heat, and pressure waves that can burn and injure anyone working nearby. Arc blast is the mechanical shock wave that can accompany this event, throwing tools and components at high speed.
Engineers quantify the severity of an arc flash in terms of incident energy, which is the thermal energy hitting a surface, usually measured at a specific working distance. In simpler terms, it is a measure of how much heat will reach a worker standing at arm’s length when an arc occurs. Higher incident energy means more severe burns and damage, which is why NFPA 70E and insurers care about it. The arc flash boundary is the distance at which the incident energy drops to a level where a person is likely to survive with treatable burns instead of fatal injuries.
In a typical Garland manufacturing facility, arc flash risk is concentrated wherever personnel interact with energized parts. That includes main service switchgear near the utility feed, large distribution panelboards, motor control centers running conveyor systems or process lines, and dedicated control panels for major equipment. When maintenance technicians open covers to troubleshoot, rack a breaker, or test equipment, they may be working inside the potential arc flash boundary. Without knowing the incident energy at that location, it is hard to choose the right PPE, tools, and procedures.
Our team at ElectricMan sees these conditions firsthand during electrical safety inspections and panel work. We often find that equipment looks clean from the outside but shows signs of modifications, loose terminations, or aging components inside, all of which can influence how a fault behaves. This is why a good arc flash assessment starts with a realistic picture of what is installed and how people actually work on it, not just the nameplate on the front cover.
What An Arc Flash Assessment Includes Beyond Stickers
One of the biggest surprises for plant managers is how involved a proper arc flash assessment really is. It is not just a technician walking around with a label maker. A complete assessment starts with data collection, which means building or verifying a one-line diagram of your electrical distribution system, from the service entrance down to branch panels and major loads. That includes documenting transformer sizes, cable lengths, breaker and fuse ratings, and any protective relay settings. In many Garland plants, this is the first time anyone has tried to capture the entire system on paper since the building was constructed or remodeled.
Once that data is gathered, it is entered into engineering software or used with calculation methods to perform short-circuit and protective device coordination studies. The goal is to determine how much fault current could be available at each piece of equipment and how quickly protective devices would clear a fault. Those two factors, available fault current and clearing time, drive the incident energy values at different working distances. The result is a set of calculated arc flash energies and boundaries for each panel, switchboard, or MCC section that meets the criteria in NFPA 70E.
With those results in hand, the next step is labeling. Arc flash labels are not generic “Danger, High Voltage” stickers. They typically include information such as the calculated incident energy or PPE category, the arc flash boundary, the nominal voltage, and the working distance used in the calculation. These labels give your maintenance team and contractors a clear, location-specific picture of what kind of protection they need before they open a cover or perform certain tasks. They also supply the documented evidence insurers and OSHA inspectors are looking for when they ask how you manage electrical hazards.
In practice, an assessment also reveals discrepancies and opportunities for improvement. Our technicians sometimes find panels that were added without updating drawings, breakers that were swapped for different types, or settings that do not match original coordination plans. Because we arrive in well-stocked service vans and are used to working around live production environments, we can often address smaller corrective items during the same project phase, and we schedule any larger upgrades in a way that fits your production windows.
It is important to remember that an arc flash assessment is not a one-time event. NFPA 70E expects these studies to be kept up to date, particularly when there are major changes to the electrical system, such as new distribution equipment, large motors, or transformer upgrades. Many facilities treat a five-year interval as a planning benchmark, but any significant change can trigger a needed update. Building your first study ahead of 2026 puts you in a much better position to manage updates on your own timeline instead of rushing whenever an insurer or inspector asks.
How Arc Flash Studies Impact Your Insurance, OSHA Compliance, and Workforce Safety
From an insurer’s perspective, a manufacturing plant without a current arc flash assessment is an unknown. The carrier might see clean housekeeping and basic lockout/tagout procedures, but if there is no documented incident energy analysis or labeling, it has little assurance that electrical hazards are fully understood. When underwriters review your file, that gap can translate into tougher questions, stricter conditions, or pressure to complete a study on a tight timeline tied to renewal.
When you have a documented arc flash risk assessment and properly labeled equipment, you can answer those questions more confidently. Loss-control representatives can see that you have identified specific hazard levels at your switchgear, panelboards, and MCCs. They can review your procedures and PPE requirements knowing they are built on NFPA 70E methods instead of guesswork. While no contractor can guarantee how any particular insurer will respond, plants with current studies are typically in a stronger position to discuss terms than those without them.
On the regulatory side, OSHA expects employers to protect workers from electrical hazards, including those posed by arc flash. It often looks to NFPA 70E as a consensus standard that outlines what reasonable hazard identification and control look like. If an incident occurs and there is no evidence that risks were assessed or that workers had appropriate PPE information, the investigation can be far more difficult for the employer. An arc flash assessment, combined with training and procedures, shows that you took concrete steps to understand and address those hazards.
Safety for your team is where the work really pays off day to day. After a study, maintenance staff have clearer guidance on what they need to wear and how to approach energized work. Supervisors can use labels and documentation to enforce safe work practices instead of relying on informal rules. In some cases, the assessment may suggest adjustments to breaker settings or replacement of obsolete gear to reduce incident energy and lower PPE requirements. At ElectricMan, we routinely pair study results with targeted upgrades, such as panel and breaker replacements, to bring risk and operational impact into a better balance.
Common Misconceptions Garland Plants Have About Arc Flash Assessments
Because arc flash requirements have grown over time, many Garland manufacturers have picked up partial information that leads to misconceptions. One common belief is that the warning stickers applied by equipment manufacturers at the factory count as a full arc flash labeling program. Those OEM labels generally warn of potential arc flash hazards in a general sense, but they are not based on calculations for your specific installation, available fault current, or protective devices. NFPA 70E expects labels to reflect the actual incident energy or PPE category at the equipment as installed and maintained in your facility.
Another misconception is that arc flash studies are only for very large industrial plants or utilities. Smaller manufacturers with a handful of production lines sometimes assume they are too small for these requirements to apply. In reality, NFPA 70E and OSHA expectations are based on the presence of electrical hazards, not just plant size. If your employees are opening panelboards, working in MCCs, or servicing large motors in Garland, the potential for arc flash is there regardless of your square footage, and insurers recognize that.
A third misconception is that arc flash assessments are purely “paperwork for the insurer” that will not change anything about how the plant operates. In practice, meaningful assessments almost always lead to changes. That might include updated PPE rules, clearer job planning, or adjustments to overcurrent devices. Sometimes the study reveals that incident energy at a critical piece of equipment is far higher than anyone expected, which can lead to conversations about mitigation options. Treating the study as a living tool, rather than a one-time report, is what differentiates plants that truly lower risk from those that simply file the document away.
We understand how these misconceptions take hold. Before 2004, when we launched ElectricMan, our Master Electrician saw many projects where electrical work and safety programs were handled separately. Today we make a point of connecting the two for our Dallas-area clients so they see how assessments, labels, and upgrades fit together. That perspective helps us explain arc flash requirements in a way that resonates with both safety managers and operations leaders who have to keep production moving.
Planning Your Arc Flash Assessment Timeline Before 2026
Most insurance-driven requirements become stressful when they collide with fixed deadlines. Arc flash assessments are no different. A thorough study involves several phases: an initial conversation and site walk, data collection in the field, engineering analysis, label production and installation, and then any corrective work you choose to pursue. For a smaller facility, the field work might be completed in a day or two, while larger or more complex plants can take longer, especially if drawings are outdated or access to equipment has to be carefully staged.
Engineering analysis and label preparation also take time. Once data is entered into modeling software, results need to be reviewed to catch anomalies and ensure the assumptions match how your system actually operates. If there are questions about particular feeders or devices, follow-up verification may be needed. After labels are printed, they need to be installed on the correct equipment, which often happens during scheduled maintenance windows. Trying to compress all of this into the weeks before renewal can lead to scheduling conflicts and rushed decisions.
Production schedules are another critical factor. Very few Garland manufacturers can shut down an entire facility for an electrician to walk every panel. Instead, data collection is often staged by area or coordinated with existing downtime. At ElectricMan, our 24/7 availability helps here. We can schedule after-hours or weekend work where appropriate, and our well-stocked service vans allow us to gather data and address minor issues without repeat trips. Planning this ahead of 2026 lets you align the project with your own shutdowns and busy seasons instead of letting the carrier’s timeline dictate your schedule.
As a rule of thumb, it helps to start conversations at least several months before a key insurance date, especially if your facility has never had an arc flash study. That gives time to locate existing one-line diagrams, review past changes, and decide how aggressively you want to tackle any upgrades the study may recommend. Once you have the first assessment in place, future updates can be scoped and scheduled more easily as your system evolves.
What To Look For In An Electrical Partner For Arc Flash Work
Choosing the right electrical partner for arc flash work matters as much as deciding to move forward in the first place. A good partner understands both the engineering side of calculations and the practical side of working around energized equipment in a live manufacturing environment. You want a team that has hands-on experience with commercial and industrial distribution systems, such as switchgear, panelboards, and motor control centers, not just residential service panels.
When you talk with potential providers, ask how they handle building or updating one-line diagrams, how they obtain available fault current information from the utility, and how they coordinate data collection with production schedules. It is also worth asking how they approach follow-up work. Some firms can only deliver a report, leaving you to find another contractor for breaker replacements, panel upgrades, or label installation. Working with a company that can perform both the assessment and the corrective work can simplify planning and reduce downtime.
Credentials and workforce standards matter too. Any team performing arc flash related tasks should consist of licensed, insured electricians who are vetted for background and drug use, especially when they will be around critical production equipment and in restricted areas. At ElectricMan, all of our technicians are licensed and certified, and every team member passes thorough background checks and drug testing. Our business is family-owned and Dallas based, with a reputation reflected in awards and a longstanding A+ rating with the Better Business Bureau. That stability means we are here for the long haul, to support your initial study and the updates that follow.
Finally, look for a partner who explains things in terms your team can use. Arc flash results can be full of technical numbers, but plant managers and maintenance supervisors need clear direction on what to do next. Our approach is to translate findings into practical recommendations, from PPE charts to breaker setting adjustments, so the information actually improves how people work instead of sitting in a binder.
Next Steps For Garland Manufacturers Preparing For 2026
If your insurer has started mentioning arc flash studies or NFPA 70E, the most productive move is to turn that vague requirement into a concrete plan. Start by gathering what you already have: any existing one-line diagrams, panel schedules, and records of major electrical projects. Make a quick inventory of your main distribution equipment and the areas where maintenance staff do energized work. Note your key insurance dates so you know how long you have to work with, and where a study can realistically fit into your production calendar.
From there, you can prioritize. Facilities with older gear, frequent troubleshooting on live equipment, or recent expansions are often good candidates to address first. Bringing in an electrical partner early for a site walk can help refine that priority list and give you a clearer sense of scope, timing, and budget. At ElectricMan, we work with Garland manufacturers to map out phased approaches when needed, balancing insurance expectations, safety improvements, and operational constraints.
Arc flash assessments are becoming a standard part of doing business for manufacturers, but they do not have to be a last-minute scramble. With the right plan and partner, you can turn the 2026 insurance requirement into an opportunity to strengthen safety, reduce risk, and gain more control over how your electrical system is documented and maintained. When you are ready to talk through options for your facility, our team is here to help.
(972) 362-1804