XPANCEO and JBD Move Smart Contact Lenses Closer to Commercial Reality With Custom Micro-Display

XPANCEO and JBD are pushing augmented reality toward one of its most ambitious form factors: a display built directly into a contact lens. The companies have announced the next phase of their collaboration, centered on the co-development of a custom micro-display designed specifically for integration into XPANCEO’s smart contact lens platform.

The announcement matters because smart contact lenses are not simply smaller smart glasses. They require an entirely different engineering model. A display that sits on or near the eye must be thin enough to remain comfortable, efficient enough to operate within extreme power limits, and optically precise enough to produce an image the wearer can comfortably focus on. XPANCEO’s broader vision is to replace traditional screens with an invisible, always-available digital layer, while also enabling health, identity, aerospace, industrial, and sports applications through a single lens-based platform.

Why a Contact Lens Display Is So Difficult

The new XPANCEO and JBD project builds on earlier proof-of-concept work between the two companies. During the first phase, the teams created a printed circuit board with an integrated micro-display and connected that screen to the lens processing unit. They also developed an optical system designed to form a precise image that the human eye can focus on despite the display being positioned extremely close to the eye.

That optical challenge is one of the biggest differences between contact-lens AR and glasses-based AR. The human eye is not designed to focus on an object sitting directly on its surface. XPANCEO’s approach relies on specialized projection optics that guide image-forming light in a way that can be comfortably interpreted by the wearer.

The form factor is equally demanding. Conventional smart glasses can hide displays, batteries, sensors, processors, and optical modules inside a frame. A smart contact lens has no such luxury. XPANCEO says the display components must stay around the thickness of a human hair, with the final display expected to measure no more than a fraction of a millimeter in diameter. That constraint forces every part of the system, from optics to power delivery, to be rethought from the ground up.

JBD Brings MicroLED Expertise to an Extreme Form Factor

JBD is a natural partner for this stage of the project. Founded in 2015, the company specializes in MicroLED display technology and has developed capabilities across material growth, MicroLED manufacturing, packaging, testing, and hardware and software drive design. Its product portfolio includes MicroLED micro-displays, projectors, optical modules, development kits, and AR waveguide test and correction systems.

The company’s existing products are aimed primarily at near-eye applications such as AR and AI smart glasses, where brightness, size, and efficiency are critical. JBD’s current display lineup includes compact MicroLED panels and optical modules designed for lightweight AR systems.

For XPANCEO, however, even today’s compact AR components are still too large and power-hungry for a contact lens. That is why the two companies are not simply adapting an off-the-shelf display. They are co-developing a micro-display architecture tailored to a lens, where the display must work inside a curved, soft, ultra-thin device that sits directly on the eye.

Lower Brightness Could Become a Major Advantage

Brightness is one of the main pain points in AR glasses. Outdoor use often demands extremely bright displays because much of the emitted light is lost as it travels through waveguides, lenses, and optical combiners before reaching the user’s eye. Smart contact lenses change that equation.

Because XPANCEO’s system projects images directly toward the retina, it can potentially achieve a usable image at much lower brightness than smart glasses. That lower brightness requirement is not just a comfort or safety consideration. It is central to power efficiency. Less brightness means less energy consumption, which is critical in a device where every micron of space matters.

This is where the collaboration moves beyond the display surface and into the electronics that drive it. In conventional displays, the backplane is designed to support the high current levels needed for bright LEDs. In a smart contact lens, that same design would waste power. XPANCEO and JBD are therefore working on a specialized backplane optimized for ultra-low-current operation, reducing unnecessary power loss and helping the display operate within the strict energy limits of a lens.

Power Remains the Commercial Bottleneck

The display is only one piece of the commercialization puzzle. XPANCEO has also been working on the power challenge through a separate partnership with ITEN, a French solid-state energy storage company. In April 2026, XPANCEO and ITEN announced a proof of concept for integrating a microbattery into a smart contact lens, with the goal of creating energy storage that is thin, durable, stable, and safe enough for a device worn directly on the eye.

XPANCEO has described smart contact lenses as requiring different power levels for different functions. Low-power biosensing or wireless communication may be supported through energy harvesting, including energy from blinking, thermal differences, tear-fluid chemistry, or integrated solar cells. AR image projection, however, demands more intense bursts of power, making high-density energy storage essential.

That makes the JBD collaboration especially important. A lower-power display architecture reduces the burden on the battery, the wireless power system, and the thermal design of the lens. In a device that must remain soft, safe, lightweight, and nearly invisible, efficiency is not a feature. It is the path to viability.

From Prototype to Manufacturable Component

Several companies have demonstrated early smart contact lens concepts over the years, but commercial readiness remains elusive. The difference between a compelling lab prototype and a mass-market device is enormous, especially for hardware that must interact safely with the eye.

XPANCEO’s latest collaboration with JBD is focused not only on making the display small enough, but also on making it manufacturable. The companies are aiming to establish a path toward the first mass-market production run of specialized contact lens micro-displays. That is a meaningful shift from experimental demonstration to supply-chain development.

XPANCEO has been steadily positioning itself for that transition. The company says it has applied for more than 50 patents, assembled a scientific advisory board chaired by Nobel laureate Sir Konstantin Novoselov, and built a Dubai-based R&D team of more than 100 scientists, engineers, and product experts. It also says 70% of its team consists of top-tier scientists and engineers, with more than half holding PhDs.

A Step Toward Invisible Computing

XPANCEO’s stated ambition is larger than AR overlays. The company describes smart contact lenses as an invisible computing platform for the AI era, combining XR, biosensing, identity verification, health monitoring, and hands-free contextual information in a single interface. Its product materials point to use cases across consumer experiences, healthcare, aerospace, industrial operations, fintech identity, and sports performance.

That vision will still require major progress in safety validation, comfort, regulatory approval, manufacturing yield, battery integration, wireless communication, and real-world usability. But the XPANCEO-JBD partnership addresses one of the core technical barriers: how to create a display small, efficient, and specialized enough for a smart contact lens.

If successful, the custom micro-display could become a foundational component for a new class of wearable computing. Smart glasses are already trying to make AI more ambient. Smart contact lenses go further, attempting to remove the device from view altogether. The result would not be another screen, but a digital layer embedded directly into human vision.