How to Doff PPE: The Correct Removal Sequence

The standard PPE doffing sequence removes the most contaminated items first while keeping your hands as the last protected surface, and it goes: gloves, gown, eye protection, mask or respirator, with hand hygiene performed between each step. Getting this order wrong is not a minor slip. Observational studies consistently find that the majority of healthcare workers make at least one error during doffing, and those errors create real contamination on skin and clothing that was supposed to stay clean.

The Step-by-Step Removal Sequence

The sequence taught by infection-control guidelines follows a logic: the outer layer, which has had the most contact with contaminated surfaces, comes off first. Your gloved hands do the heavy lifting of removing everything else before the gloves themselves come off. Here is the standard order for a typical ensemble of gloves, gown, eye protection, and a mask or respirator:

Gloves: Grasp the outside of one glove near the wrist and peel it off, turning it inside out. Hold the removed glove in the still-gloved hand. Slide a finger under the wrist of the remaining glove and peel it off over the first glove, creating a ball of inside-out material. Dispose of both gloves immediately.
Hand hygiene: Use alcohol-based hand rub or wash with soap and water.
Gown: Unfasten the ties at the back. Pull the gown away from your body at the shoulders, touching only the inside. Roll the gown into a bundle with the contaminated outside facing inward. Discard it.
Hand hygiene: Clean your hands again.
Eye protection: Remove goggles or a face shield by grasping the strap or earpieces at the back or sides of your head. Lift away from your face without touching the front surface. Either discard or place in a designated receptacle for reprocessing.
Hand hygiene: Clean your hands once more.
Mask or respirator: For a surgical mask, grasp the ties or ear loops and lift away from your face without touching the front. For an N95 respirator, tilt your head slightly forward, pull the bottom strap over your head first, then the top strap. Let the respirator fall forward and away from your face. Discard it.
Hand hygiene: Final hand cleaning.

The repeated hand hygiene is not optional padding. Each removal step risks transferring contamination from the item you just handled to the next thing you touch. Clean hands between steps interrupt that chain.

Why the Order Is Not Arbitrary

Gloves come off first because they are the most heavily contaminated item on your body. Every surface you touched during patient care left material on those gloves. If you reached for your face shield or mask first while still gloved, you would drag whatever was on the gloves across items sitting near your eyes, nose, and mouth. The gown comes off next for the same reason: its outer surface has been exposed to the care environment, and leaving it on while you remove face protection increases the chance of brushing contaminated fabric against your skin. Eye protection and the mask come off last because they cover the mucous membranes of your eyes, nose, and mouth, which are the entry points pathogens care about most. By the time you reach them, the outer contaminated layers are already in the waste bin.

A scoping review examining body contamination after PPE removal found that all studies it included reported some degree of post-doffing contamination, with the hands, wrists, face, and neck being the most frequently affected sites.¹ Those locations make sense when you consider the mechanics: the hands are doing the removing, the wrists sit at the boundary between glove and gown, and the face and neck are exposed as the last protective layers come off.

How Often Doffing Goes Wrong

The honest answer is: most of the time. An observational study of healthcare workers found that roughly 90 percent of observed doffing events included at least one error, whether in the sequence itself, the removal technique, or the choice of PPE worn in the first place.² The most common mistakes were pulling the gown off from the front rather than from behind, removing eye protection along with the mask in a single motion, and touching potentially contaminated outer surfaces or PPE during the process.

Another study tracking fluorescent tracer contamination during doffing found an average of just over two contamination incidents per person. The steps most likely to produce contamination were removing the respirator, removing shoe covers, and removing the hood.³ These are the items closest to your face and head, which underscores why they are saved for last and why even experienced workers struggle with them.

A study mapping the specific body sites most prone to contamination during doffing identified the left hand and wrist, left lower leg, chest, and left abdomen as key vulnerable areas.⁴ The left-side pattern likely reflects the dominant right hand doing the removing while the left side of the body receives incidental contact. For left-handed workers, the pattern may reverse.

Cognitive Load and Why Doffing Is Harder Than Putting PPE On

Donning PPE is relatively straightforward: you layer things on, and the stakes feel lower because you are not yet near a patient. Doffing happens after a potentially exhausting care session, in a contaminated environment, when you are tired, hot, and sometimes anxious. Research on cognitive load during PPE use bears this out. In one study, nearly three-quarters of participants reported feeling mentally overloaded specifically during the doffing phase. Before training, every single participant failed doffing, and over 98 percent contaminated themselves. After a simulation-based educational session, success rates climbed to about 95 percent and self-contamination dropped to under 10 percent, but the mental effort involved remained a consistent concern.⁵ The gown or coverall and the N95 mask were the items that caused the most difficulty.

This is not a failure of individual discipline. PPE doffing asks you to perform a precise, multi-step motor sequence in a specific order while simultaneously avoiding contact with contaminated surfaces, remembering to clean your hands between each step, and managing equipment that is often sticky with sweat and difficult to grip. The cognitive demand is genuinely high, which is why structural supports such as checklists, buddy observers, and environmental cues matter so much.

The Buddy System and Remote Monitoring

Having a trained observer watch you doff PPE is one of the most effective ways to catch errors in real time. The observer’s job is to talk you through each step, flag any moment where you accidentally touch a contaminated surface, and keep you on sequence. During high-consequence pathogen responses, this buddy system is standard protocol.

An interesting development during the COVID-19 pandemic was the use of remote audio-visual monitoring as an alternative to having a buddy physically present in the doffing area. A study comparing remote video monitoring to the traditional onsite buddy system found that the proportion of doffing errors was significantly lower in the remote-monitored group, with a relative risk of just 0.34 compared to the standard buddy approach.⁶ That roughly translates to a two-thirds reduction in errors. The remote setup may work better in part because the observer has a clear camera view without the distraction of being in a potentially contaminated space themselves, and the worker being monitored may follow instructions more carefully when they know they are on camera.

Training That Actually Sticks

Classroom instruction on PPE removal tends to fade quickly. More effective approaches involve simulation, where workers practice doffing in conditions that mimic real clinical scenarios and get immediate feedback on their mistakes.

One notable training tool, called VIOLET, uses a healthcare mannequin rigged to deliver simulated body fluids, including projectile vomit, coughs, diarrhea, and sweat, each tagged with a different UV-fluorescent color. After workers examine the mannequin while wearing PPE, they remove their equipment and stand under ultraviolet light. Any fluorescent traces on their skin or scrubs show exactly where contamination transferred during doffing.⁷ The visual impact of seeing glowing streaks across your forearms or neck is far more memorable than reading a poster about hand hygiene compliance.

Technology-assisted prompting is another avenue showing promise. An intelligent interaction voice prompting system tested with medical staff boosted PPE-removal accuracy from 78 percent to 100 percent.⁸ The system talks the worker through each step in the correct order, essentially acting as an automated buddy. For facilities that cannot always assign a human observer to the doffing area, audio prompts offer a practical alternative.

Where You Doff Matters as Much as How

The physical space in which you remove PPE plays a major role in whether the process stays safe. Ideally, doffing happens in a dedicated anteroom, a transitional space between the contaminated patient area and the clean corridor. A systematic review of anteroom design found that features such as negative-pressure ventilation, HEPA filtration, hand-sanitizer dispensers, a sink, a mirror for self-checking, and clear zones marked for PPE removal all contributed to reducing transmission risk.⁹ The mirror is an underrated detail: it lets you see whether your mask is still in place or whether you have traces of contamination on your face before you remove the final items.

Not every facility has the luxury of a built-in anteroom. During the COVID-19 pandemic, hospitals improvised with temporary structures. One portable design, called TrainerWall, is a modular, self-supporting anteroom made from antimicrobial materials with integrated sanitization features, built for rapid deployment in both well-resourced and resource-limited settings.¹⁰ These kinds of adaptable solutions acknowledge a practical reality: even perfect doffing technique loses some of its protective value if the space around you is poorly ventilated or cluttered with contaminated waste.

Adaptations for High-Consequence Pathogens

When the pathogen in question carries a high fatality rate, as with Ebola virus disease, the PPE ensemble is heavier and the doffing protocol is considerably more involved. Instead of gloves, gown, goggles, and mask, workers may be wearing fluid-resistant coveralls, a powered air-purifying respirator, rubber boots, double or triple gloves, an apron over the coverall, and a hood. The basic principle remains the same (outermost and most contaminated items first, face protection last), but the number of steps increases and the opportunities for error multiply.

A study comparing three different high-level PPE ensembles during simulated Ebola care found that the more complex ensembles carried higher contamination risks during doffing. Environmental contamination was also detected on surfaces in the doffing area, including rubbish bin covers, chairs, faucets, and sinks.¹¹ Those environmental surfaces become secondary contamination sources: you remove your gloves cleanly, then grab a contaminated faucet handle to wash your hands. This is why high-consequence pathogen protocols typically include a dedicated assistant who opens bins, turns on taps, and sprays down surfaces as the worker progresses through each doffing step.

In these settings, the doffing area itself is usually divided into zones, sometimes marked with colored tape or floor paint to indicate which items come off in which zone. Workers move through the zones sequentially, and an observer or buddy is not optional but mandatory.

Equipment Design and Small Innovations

Most PPE was not originally designed with easy removal in mind. Gloves cling to sweaty skin. Gowns tie at the back where you cannot see. Respirator straps tangle in hair. These design shortcomings directly contribute to doffing errors.

Researchers have experimented with modifications to make removal safer. One example is the “Doffy glove,” a standard nitrile exam glove fitted with a small flap near the wrist area designed to give the wearer a grip point for peeling off the glove without touching its outer surface. In testing, participants found the tab helpful for removing the first glove but were uncertain how to use it effectively for the second one, since the first glove was already off.¹² That kind of user feedback illustrates a recurring challenge: innovations that solve one step in the sequence sometimes create confusion at another.

Other design explorations have included gowns with breakaway seams that allow the wearer to pull the gown apart rather than sliding it off, color-coded tie points to indicate the order of unfastening, and pre-perforated tabs on face shields. None of these has become a universal standard yet, partly because infection-control guidelines need to validate any new design against contamination data before recommending it widely.

Disposing of PPE After Removal

What happens to PPE after you take it off is part of the safety chain. In clinical settings, used PPE is classified as biomedical waste and goes into designated bins, usually lined with color-coded bags that indicate the level of hazard. Items should be placed directly into the bin as they come off, not set down on a surface to be dealt with later.

During the COVID-19 pandemic, the volume of disposable PPE created waste-management challenges on a global scale. Guidelines recommended that discarded masks and gloves be stored in sealed bags for a minimum of 72 hours before final disposal to reduce the risk of residual viral transmission.¹³ In community settings, where members of the public were discarding masks in household trash, the same guidance applied: bag the items separately, let them sit, and treat them as general solid waste after the holding period.

For reusable components like goggles, powered air-purifying respirator units, and rubber boots, decontamination protocols vary by facility and pathogen. These items typically go into a separate bin or tray for reprocessing rather than into the waste stream. Getting the right item into the right receptacle is yet another cognitive demand during a process that already taxes attention, which circles back to why clear labeling, spatial design, and observer support in the doffing area all contribute to getting the job done safely.