Airbag Injuries in Georgia: What Deployment Does to You

Pages on this subject keep repeating that a victim strikes the bag at roughly 100 miles per hour. That figure describes the bag, not the person.

Airbag injuries come from a small explosive device that finishes its work in a fraction of a second. Meanwhile the injuries best documented in the medical literature are mostly not the ones those pages list. The research contradicts two of the usual entries outright.

Below, we explain what a deployment actually does to a body. We also cover why the distance between you and the module decides the outcome.

What an Airbag Actually Is

Start with the device, because the mental picture most people carry is wrong.

An airbag is not a cushion waiting to catch you. It is a pyrotechnic inflator. NHTSA says it fills the bag “within the blink of an eye – or less than 1/20th of a second.”

Now the number everyone misquotes. Testing cited by NHTSA measured the bag’s leading edge as it left the module cover. Leading edge speed “ranged from a low of 170 km/h to a high of 328 km/h.”

Convert that and the confusion becomes obvious. Those figures run 106 to 204 miles per hour, and they describe the front surface of an inflating bag. No agency has ever said an occupant travels at that speed.

So the mechanism runs the other direction. NHTSA blames the bag or its module cover for “making aggressive contact with the vehicle occupant.” That contact happens during the inflation phase, while the bag is still filling.

Thresholds surprise people too. IIHS puts the unbelted trigger near a rigid-wall impact of 10 to 12 miles per hour. Belted, it climbs to about 16, and a side bag can fire as low as 8.

What Airbag Injuries Actually Look Like

Four injury families carry real support in the literature. Only two appear on the usual list.

Eyes lead the research. One study covered 22,236 crashes. It found eye injury in 3.1 percent of occupants exposed to a deployment, against 2.0 percent of the unexposed.

Two details sharpen that. Among exposed occupants, 88 percent of eye injuries came from the bag itself. Corneal abrasions ran 0.5 percent against 0.04 percent.

Read it honestly, though. The same work found that airbags increase minor eye injuries while reducing serious ones. Its data covers 1993 through 1999.

Burns rarely get mentioned at all. A 2021 systematic review split published cases into 38 percent chemical and 25 percent thermal. Upper extremities burned most often at 42 percent, with eyes at 25 and the face at 21.

One limit travels with those figures. The review pooled 24 patients from case reports. Treat it as a description of what happens, not a measure of how often.

Hands and forearms take a beating. A 2024 review reports upper-limb injury “up to four times more likely” where a bag deploys. Two mechanisms recur: the arm caught between the bag and the torso, or the hand trapped in the steering wheel spokes.

Hearing loss belongs here and almost never appears. One series followed 20 patients. Four suffered a tympanic membrane perforation requiring surgical closure. Seventeen reported hearing loss, and 17 reported tinnitus.

Those patients came from an ear clinic’s referrals. So the figures describe that clinic rather than a population risk.

Why Whiplash Does Not Belong on That List

Here the standard injury list collapses, and knowing why protects a real claim.

Cervical injury shows no airbag signal. A 2018 study looked at restrained drivers. Cervical spine injury appeared in 3.7 percent of cases with deployment, against 6.5 percent without, and that difference did not reach significance.

Brain injury fails the same test. No source attributes traumatic brain injury to a deployment in a normally positioned occupant. That makes sense, since reducing head injury is the whole design purpose.

One exception survives. For occupants sitting too close, trauma from the bag and module cover is well documented. The risk turns on position rather than on deployment alone.

That distinction matters commercially. Blame the airbag for every injury in the crash and the defense gets an easy expert. Build instead on burns, eye trauma, a perforated eardrum, or a shattered hand.

Why Distance Decides Everything

Proximity is the single variable that turns a safety device into a weapon.

NHTSA still publishes a minimum. The agency “recommends keeping a 10-inch minimum between the air bag cover” and the breastbone. Note the landmark: chest, not head.

IIHS adds two warnings people ignore. “Arms and legs should never be resting against an airbag.” Children also “shouldn’t lean against the door area where the side airbag is stored.”

Four out-of-position groups appear in the federal record. Infants ride in rear-facing child seats. Unbelted children sit in the right-front seat. Short-statured drivers sit close to the wheel, and hard pre-crash braking throws unbelted occupants forward.

The History Behind Today’s Airbags

Those out-of-position deaths are not theoretical, and the record is startling.

Federal crash investigators counted them directly. Through , NHTSA confirmed 284 frontal airbag related fatalities. The total breaks down to 180 children, 91 adult drivers, and 13 adult passengers, with 28 of the children in rear-facing child seats.

Vehicle age explains most of it. IIHS reports that “nearly 90% of the deaths occurred in vehicles manufactured before 1998.” More than 90 percent of those involved children and infants.

Regulators responded twice. NHTSA depowered airbags in 1997, then issued the advanced airbag rule in 2000. That rule demanded systems which sense the occupant, not only the crash.

The fix largely worked. A 2013 NHTSA evaluation found that certified-advanced airbags “have essentially eliminated risk for child passengers or small adults.” IIHS adds that “serious injuries from properly functioning airbags are rare.”

One caveat belongs with all of it. Those counts stop in 2007, and no agency publishes a current tally of airbag-induced deaths.

What a Modern Airbag System Contains

Older pages describe three parts: a bag module, a diagnostic unit, and crash sensors. That picture fits a vehicle from the 1990s.

Today the list runs longer. An airbag control unit decides deployment, fed by crash sensors and satellite sensors in the doors and pillars. Around it sit occupant classification sensors, seat track position sensors, buckle switches, multi-stage inflators, and belt pretensioners.

That buckle switch does real work. Without it the module could not raise the deployment threshold for a belted occupant.

One component carries a hidden hazard. The control module holds a reserve capacitor, so the bag can still fire after a crash severs battery power. Service manuals warn that “deployment power is available for as long as 2 minutes.”

So the right questions in a modern case are narrow. Did the bag fire at full force or reduced force? And did occupant sensing classify the person in that seat correctly?

Why the Airbag Is Not the Whole Story

Candor here costs nothing and buys credibility.

NHTSA frames the device modestly. Airbags are “supplemental protection and are designed to work in combination with seat belts.”

Compare the two numbers. Seat belts cut fatal injury to front-seat car occupants by 45 percent, and light-truck occupants by 60. Frontal airbags cut fatalities by 14 percent among unbelted occupants and 11 percent among belted ones.

Both things stay true at once. Frontal airbags “have saved more than 50,000 lives,” and the same device sends people to burn units and ear clinics.

Talk to an Atlanta Car Accident Lawyer

Shane Smith Law pulls the control module data, the occupant classification record, and the recall history. Those records decide whether the airbag performed as designed. We also check the inflator itself, which our page on defective airbag claims covers in detail. Call (980) 246-2656 for a free consultation.