A joint research team from South Korea’s KAIST and Stanford University has developed an innovative robotic clothing system capable of dressing a person automatically without requiring the wearer to use their hands or assistance from another individual.
The wearable technology uses soft, air-powered robotic structures embedded inside garments. Inspired by the way climbing ivy grows along surfaces, these flexible “vine robots” gradually pull clothing around the body by turning the fabric inside out as it moves, allowing the garment to naturally wrap around the wearer in approximately 10 seconds.
Unlike many wearable robotic systems, the technology functions even while the user is moving. Researchers say the system does not require the wearer to remain perfectly still or rely on complex motion-tracking algorithms, making it significantly more practical for real-world environments.
The robotic mechanism advances by extending only its tip rather than moving the entire structure. This allows it to adapt to different body shapes while navigating curves, narrow spaces, and varying surface conditions, including slippery or inclined areas. The soft robotic design also improves safety by reducing rigid mechanical components that could interfere with natural movement.
While the concept was inspired by a simple everyday scenario—automatically putting on a raincoat while cycling—the research team believes the technology has far broader applications.
One of the most promising uses is in healthcare, where self-dressing garments could help elderly individuals and people with physical disabilities maintain greater independence. The system could reduce reliance on caregivers while simplifying daily routines for users with limited mobility.
Industrial and professional environments also stand to benefit. Workers in semiconductor cleanrooms, where contamination control is critical, could put on protective suits more quickly and consistently without touching sensitive equipment. Likewise, firefighters, medical teams, and hazardous materials personnel could deploy protective clothing rapidly during emergencies, reducing preparation time when every second matters.
The researchers also emphasize that advances in robotics are not driven solely by artificial intelligence software. Mechanical innovation remains equally important, and intelligent physical systems like self-dressing garments demonstrate how hardware engineering can complement AI to solve practical human challenges.
The research has been published in IEEE Robotics and Automation Letters, highlighting growing interest in wearable robotics that extend beyond industrial automation into healthcare, public safety, and everyday consumer applications.
