The global shift towards digital transformation and the metaverse is driving unprecedented demand for advanced visual interfaces. Industries from healthcare to entertainment require more realistic and interactive 3D visualization, pushing the limits of current display technologies. This patent offers a timely solution to meet these evolving needs, enabling richer content delivery and enhanced user engagement across professional and consumer markets.
Achieves high spatial resolution and realistic depth perception by combining multiple lens arrays with time-division display, overcoming limitations of conventional multi-view systems.
Suppresses brightness reduction by over 20% by maximizing light utilization efficiency with switchable element lenses, delivering vivid images compared to typical 3D displays.
Enables diverse implementations with a simplified design, comprising a display means and two types of lens arrays, eliminating complex optics and facilitating integration into various display products for mass production.
This patent protects a 3D video display device featuring multiple switchable lens arrays with specific pitch and focal length configurations, enabling high spatial resolution and brightness. Its broad and clearly defined claims, established after detailed examination against nine prior art documents, indicate strong differentiation and high stability of rights.
This patent primarily covers the optical and hardware architecture for 3D display. White space exists for developing advanced content rendering algorithms, novel interactive input methods, or specialized software platforms that leverage the display's unique capabilities for specific applications.
The simplified architecture of this technology could significantly streamline the design and manufacturing processes for 3D display devices. This may reduce the complexity of optical design and component procurement during the development phase, potentially shortening product development time by up to 40% (approximately 1.5 years) compared to conventional methods. Furthermore, reducing component count could lead to an estimated annual manufacturing cost reduction of ~$200K (AI est.) per facility, assuming a 10% reduction in component costs and a 20% reduction in assembly labor, thereby substantially compressing total time-to-market costs.
X: Realistic Immersion
Y: Implementation & Operational Efficiency