The extended reality market could be approaching a major shift as augmented reality displays gain momentum against virtual reality. New market forecasts suggest AR display shipments could overtake VR displays by 2030, reflecting growing interest in smart glasses and lightweight wearable technologies that integrate digital information into everyday life.

According to Omdia’s forecast for the XR near-eye display market, shipments of AR displays are expected to reach 21 million units by 2030, compared with 19 million units for VR displays. If the forecast materializes, it would mark an important turning point for an industry that has historically been dominated by virtual reality headsets.

The longer-term outlook suggests an even more significant change. VR displays currently account for an estimated 72% of the XR near-eye display market in 2026, while AR represents around 28%. By 2032, Omdia forecasts VR’s share could decline to 43%, while AR could grow to approximately 57%.

The projected transition reflects an important difference between the two technologies. Virtual reality typically places users inside a fully digital environment and often requires relatively large headsets. Augmented reality instead overlays digital information onto the user’s view of the physical world, potentially allowing the technology to be incorporated into devices that resemble conventional eyewear.

That form factor could make AR particularly attractive for everyday computing. Smart glasses could eventually provide navigation directions, notifications, translation, photography, communication and AI-powered assistance without requiring users to constantly interact with a smartphone.

Artificial intelligence is also becoming increasingly connected to the development of smart glasses. Combining cameras, microphones and sensors with AI models could allow wearable devices to understand more about their surroundings and provide contextual assistance. A user could potentially look at an object and ask for information about it, receive real-time translations during a conversation or access relevant digital information without reaching for another device.

However, creating smart glasses that consumers are comfortable wearing throughout the day remains a significant engineering challenge.

Omdia highlights a fundamental trade-off between battery life, device weight and performance. More powerful processors and advanced displays can enable richer experiences but also require additional energy. Larger batteries can extend operating time but increase weight, while reducing the size and weight of a device can limit its computing capabilities.

Manufacturers therefore need to balance all three factors if AR glasses are to become practical mainstream devices. Consumers are unlikely to embrace glasses that feel excessively heavy, require frequent charging or provide too little functionality compared with existing smartphones and wearable devices.

Display technology itself will also play an important role. AR glasses require compact displays capable of presenting clear digital information while still allowing users to see their physical surroundings. These components must be small, bright and energy efficient enough to operate inside lightweight eyewear, creating technical requirements that differ considerably from conventional screens.

Despite these challenges, interest in smart glasses has accelerated as technology companies explore alternatives to smartphones as the next major personal computing platform. Improvements in artificial intelligence, semiconductor efficiency, optical technology and wearable design are helping manufacturers experiment with devices that feel increasingly similar to ordinary glasses.

The potential applications extend well beyond consumer entertainment. Businesses could use AR glasses for remote technical assistance, manufacturing, logistics, healthcare, education and field operations. Workers could receive instructions or access information while keeping their hands free, while specialists could remotely guide colleagues through complicated procedures.

AR could also change how people experience tourism, museums and cultural attractions by placing contextual digital information directly into physical environments. Navigation and accessibility applications could similarly provide real-time guidance without requiring users to continuously look down at a smartphone.

Virtual reality is unlikely to disappear as AR grows. VR continues to offer advantages for applications that benefit from complete immersion, including gaming, simulation, training, design and specialized professional environments. Instead, the forecast suggests that AR could become the larger segment of the near-eye display market as wearable devices expand into a broader range of everyday applications.

The distinction between AR and VR may also become less rigid over time. Future XR devices could offer varying levels of immersion depending on what users are doing, combining elements of augmented, mixed and virtual reality within increasingly flexible hardware.

If AR display shipments ultimately surpass VR by 2030, the milestone would represent more than a change in display-market rankings. It could signal a broader transition in spatial computing from devices designed primarily for immersive experiences toward wearable technology intended to become part of everyday life.

The next several years will therefore be crucial for the smart-glasses industry. Manufacturers will need to improve battery efficiency, reduce device weight, increase performance and demonstrate applications compelling enough for consumers and businesses to adopt the technology.

As those technologies mature, augmented reality could gradually move from a specialized experience into a more familiar form of personal computing. The forecast rise of AR displays suggests that the future of XR may increasingly be shaped not by devices that separate users from the physical world, but by technology designed to enhance the world already around them.