In The Boy Who Fell from the Sky, Mathew Erlang uses smart glasses in the same way that we use mobile phones today. By 2055, this seems quite a likely scenario and may become every day reality much sooner. 

Smart vision technology today is an amalgamation of advanced optics, miniaturized electronics, and software. Smart glasses have evolved from clunky prototypes to sleek, wearable devices that blend functionality with fashion. These devices can perform a variety of tasks, from displaying notifications to assisting in navigation, and even augmenting reality for gaming and educational purposes. Meanwhile, smart contact lenses, though still in their nascent stages, promise groundbreaking applications in health monitoring and augmented reality (AR).

Leading Companies in Commercial Application

There are a number of companies actively investing in smart vision technology. 

  1. Google: With its Google Glass, the company has been at the forefront of smart glasses, focusing on enterprise solutions.
  2. Apple: Rumored to be developing its own line of AR glasses, Apple’s entry into this market is highly anticipated.
  3. Samsung: Known for its innovative technology, Samsung is exploring smart glasses and AR applications.
  4. Mojo Vision: A standout in smart contact lens technology, working on lenses with embedded displays.

Latest Academic Research

Academic institutions are pushing the boundaries of what’s possible in smart vision. Researchers are focusing on:

  • Material Science: Developing flexible, transparent electronics suitable for use in contact lenses.
  • Biometric Monitoring: Integrating sensors in contact lenses for real-time health data monitoring.
  • Energy Efficiency: Creating low-power, high-efficiency components critical for the miniaturization of these devices.

This field is multidisciplinary, often involving departments like Electrical Engineering, Computer Science, Materials Science, and Biomedical Engineering.

Leading Researchers and University Departments

John Rogers at Northwestern University: A pioneer in biointegrated electronics, his work is crucial for developing flexible electronics that could be used in smart contact lenses.

Babak Parviz at the University of Washington: Initially involved in the Google Glass project, he has made significant contributions to the development of smart contact lenses, particularly in health monitoring.

Zhenan Bao at Stanford University: Her research focuses on developing flexible, skin-like materials, pivotal for wearable technologies like smart glasses and lenses.

Aydogan Ozcan at UCLA: He leads research on computational imaging, sensing, and diagnostics systems, which are integral to smart vision technology.

Focus Areas

  • Flexible Electronics: Developing materials and components that are not only highly efficient but also flexible and comfortable to wear as part of smart vision devices.

  • Biometric Monitoring: Incorporating sensors in smart lenses for health monitoring, such as measuring glucose levels or intraocular pressure.

  • Augmented Reality (AR) and AI Integration: Enhancing AR experiences through smart glasses, and integrating AI for personalized and adaptive visual aids.

  • Energy Efficiency and Sustainability: Making devices that are both energy-efficient and sustainable, ensuring longer use and minimal environmental impact.

Real-World Application Potential

The real-world application of this research varies:

  • Near-Term Applications: Some aspects, like AR in smart glasses, are closer to market readiness. Companies like Google, Apple, and Facebook are already investing in these technologies, suggesting a shorter path to commercialization.

  • Long-Term Research: Other areas, particularly those involving biointegrated electronics and advanced health monitoring in smart contact lenses, are still largely in the research phase. These may take several more years to reach the prototype stage and even longer for widespread commercial application.

  • Regulatory Approvals: For health-related applications, especially smart contact lenses, there will be a significant period of clinical trials and regulatory approvals before they can be commercially available.

25-Year Outlook

Over the next quarter-century, smart vision technology is poised to undergo transformative changes:

  • Integration with AI: Smart glasses and contacts will increasingly incorporate artificial intelligence for real-time data analysis and personalized user experiences.
  • Healthcare Revolution: Smart contacts will become vital tools in continuous health monitoring, potentially detecting diseases early.
  • Augmented Reality: AR will blend seamlessly into our daily lives, with smart vision devices offering immersive experiences in education, entertainment, and work.
  • Ubiquity and Accessibility: As the technology matures, smart vision devices will become more affordable and widespread, much like smartphones today.

Conclusion

In summary, the academic research in smart vision technology is quite advanced in some areas, like AR, but still exploratory in others, like biometric monitoring through contact lenses. The path from research to real-world application involves not only technological development but also regulatory and market readiness, which can vary significantly across different aspects of this technology.