How Dangerous Is Being an Electrician? What the Data Shows
Published on October 20, 2026 by Anna Coucke | Edited by Nate Bortz
Electricians spend their careers working around something most people are taught to avoid: live electrical systems. That makes the job sound dangerous, and there is no question that a mistake can have serious consequences.
But the actual risk of being an electrician is better understood using data than through fear. They face hazards ranging from shock, burns, and arc flashes to falls and physical strain, but utilizing modern training, safety procedures, and protective equipment can reduce many of those risks.
So, how dangerous is electrical work compared with other trades, and what does the job really look like from a safety standpoint? The available data can help put it into perspective.
Is Being an Electrician Dangerous?
It won't surprise you that being an electrician comes with more workplace risk than a typical office job. In 2024, the U.S. Bureau of Labor Statistics (BLS) reported that 53 electricians died from work-related injuries, for a fatal injury rate of 5.3 deaths per 100,000 full-time workers. However, electricians had a lower fatal injury rate than several related trades.
- Roofers: 48.7
- Construction laborers: 15.8
- Power-line installers and repairers: 13.8
- Carpenters: 7.5
- Plumbers, pipefitters, and steamfitters: 6.9
- Painters: 6.6
So while electrical work carries more risk than the average occupation, its fatal injury rate is well below many other construction and trade jobs.
Much of that risk comes from more than just electricity. The hazardous nature of working on a construction site or at height contributes to the danger. However, modern safety standards, training, and personal protective equipment (PPE) have made the trade significantly safer than it was several decades ago.
What are the Dangers Associated with Electrical Work?
Residential, commercial, and industrial electricians face many of the same hazards, but the exact job and setting can affect exactly how those hazards show up. The most serious dangers include shock, electrocution, and burns. Other injuries can result from falls, physical strain, or accidents related to jobsite conditions.
Shock, Electrocution, and Burns
An electric shock happens when electrical current passes through the body. The outcome depends partly on how much current flows through the person, where it travels, and how long the exposure lasts. A shock may cause anything from a quick zap to serious burns or life-threatening injuries.
Electrocution specifically means death caused by electrical current. This is why preventing accidental contact with energized equipment is a major part of electrical safety. The Occupational Safety and Health Administration (OSHA) generally requires de-energizing exposed live parts before work begins unless doing so would create another hazard or is not feasible.
Burns are another concern. Current passing through the body can heat and damage tissue below the skin, so an electrical burn may be more serious than it first appears.
An arc flash can cause burns, too, but in a different way. They happen when electrical current travels through the air between conductors or from a conductor to ground, releasing a sudden burst of heat and energy. Temperatures can become extremely high, and the blast may throw molten metal or other hot material into the surrounding area. A nearby worker doesn’t have to touch an energized part to be injured by an arc flash.
This is illustrated by an incident in 2020 where an electrician and apprentice were replacing wiring in a commercial building. The apprentice contacted 480-volt equipment inside an electrical disconnect panel, causing an arc flash.
Both workers were hospitalized with severe burns, including the electrician who was exposed to the flash without being the person who made direct contact with the equipment.
Environmental Hazards
Any type of building can introduce passive risks, including asbestos, lead, dust, and mold. But certain environments present unique hazards.
Residential projects may require working around older wiring, previous repairs, tight spaces, or a hot attic. While homes commonly use 120/240V service, which is lower than other settings, the property's condition can be just as dangerous as the voltage.
Commercial jobs usually involve larger systems, including 208V or 480Y/277V equipment. The jobsite poses its own risks, especially during construction, when hazards from temporary power, unfinished areas, and moving equipment may be present.
Industrial work often brings electricians closer to machinery and equipment that can store or release hazardous energy. That makes procedures for shutting down and isolating equipment especially important in this line of work.
Working outdoors adds another layer of concern for electricians: the weather. Ice can make ladders and work surfaces slippery, while high temperatures can increase the risk of heat exhaustion during physically demanding jobs. After major storms, electricians may also be called to work around fallen power lines and standing water that could be energized.
Other Major Risks
Not every injury is caused by electricity. Falls are a significant risk when electricians work from ladders, scaffolding, roofs, elevated platforms, or other heights.
In July 2024, an electrician was killed while installing conduit in a commercial building. He was working approximately 17 feet above the ground when a coworker opened a garage door that struck his ladder. The electrician fell onto the concrete floor and suffered fatal head injuries as a result.
That accident had nothing to do with electricity. It demonstrates why fall prevention and communication are important aspects of electrical safety, particularly on active construction sites.
The general physical demands also create risk. Repeatedly pulling large-gauge wire, carrying equipment, working overhead, and spending extended periods in awkward positions can contribute to acute or chronic physical injuries.
How Safety Has Improved Over Time
Modern electrical work is still risky, but thankfully, it has gotten safer over the past few decades. When the Occupational Safety and Health Act established OSHA in 1970, workplace fatalities were far more common than they are today. The agency estimates that roughly 38 American workers died on the job each day in 1970, compared with about 14 in 2024.
Electrical hazards have become less deadly over time. According to the Centers for Disease Control and Prevention (CDC), workplace electrocution deaths fell from 577 in 1980 to 329 in 1989, a 54% decline in the fatality rate.
During that decade, researchers were taking a closer look at controlling workplace hazards. In 1982, the National Institute for Occupational Safety and Health (NIOSH) launched its Fatality Assessment and Control Evaluation (FACE) program to investigate workplace deaths and identify ways to prevent similar accidents.
In 1989, OSHA introduced a federal lockout/tagout standard for general industry, requiring employers to establish procedures to prevent equipment from being unexpectedly energized during maintenance. That rule took effect in 1990 and remains an important part of workplace safety today.
While today’s electricians have better equipment and established procedures for managing electrical hazards, the risks haven't disappeared completely.
The Role of Personal Protective Equipment (PPE)
PPE helps provide protection when a hazard cannot be completely removed or controlled. What a worker needs depends on the task and the risks present. Common PPE items used include:
- Insulating gloves: Used for certain tasks on or near energized parts and must be rated for the voltage involved.
- Protective footwear: Some jobs may call for footwear with electrical-hazard protection.
- Arc-rated clothing: Worn when an arc-flash assessment shows that thermal protection is needed.
- Safety glasses, goggles, or face protection: Protect the eyes and face from flying debris and, when properly selected, electrical arc hazards.
- Hard hats: Protect against impact hazards, and certain types are also designed to provide electrical protection.
- Fall-protection equipment: Used when a job exposes an electrician to fall hazards that require protection.
PPE only works when it is an appropriate match to the hazard and is in usable condition. It needs to be selected carefully and used as part of the overall safety procedure rather than treated as a substitute for controlling the hazard itself.
Safety Training and Licensing Requirements
Becoming an electrician involves a lot of coursework and on-the-job learning. Apprentices typically spend several years working under supervision while also completing classroom instruction in electrical theory, code requirements, and safety.
That training gives new electricians time to build practical experience before taking on more responsibility.
Licensing works differently depending on the state or local jurisdiction. Most states require electricians to be licensed, and many applicants must pass an exam that includes questions about the NEC and local electrical requirements.
Requirements can change as codes are updated, so completing continuing education is usually required to renew a license.
JADE Learning offers online continuing education and exam-prep courses that fit multiple career stages, whether you are new to the trade or looking to advance to the next license tier.
Don’t settle for generic training. Choose a state-specific course that includes expertly crafted material based on specific license and renewal requirements.