Surgical VR Interface with In-View Data Objects for Robot Control

The patent introduces virtual reality interface elements as intermediaries between the surgeon and the information systems. These virtual elements (buttons, sliders, menus) are rendered within the VR environment and allow the surgeon to access patient data, surgical parameters, and control functions without breaking immersion. The intermediary layer translates physical controller inputs into virtual interactions that feel natural within the immersive context.

The patent replaces the mechanical system of physical screens and hand signals with a virtual reality-based information interface. Instead of looking at external monitors or using hand gestures to communicate with assistants, the surgeon interacts with information displayed within the VR environment through intuitive virtual controls, eliminating the need to physically turn away from the surgical field.

The patent merges the information display system with the virtual reality environment. Patient vitals, surgical parameters, anatomical models, and procedural checklists are all rendered as virtual objects within the immersive 3D space. This integration allows the surgeon to access all necessary data while maintaining the illusion of being present in the patient's anatomy, eliminating the need to switch between separate display systems.

The patent transitions from 2D screen displays to 3D virtual reality presentations of information. Anatomical structures, surgical instruments, and data visualizations are rendered in three dimensions, allowing the surgeon to interact with information spatially rather than flatly. This dimensional enhancement improves both visibility and immersion by making data feel like part of the surgical environment rather than separate from it.

The patent segments the comprehensive information system into modular virtual components organized by surgical context. Instead of presenting all possible data at once, the interface divides information into discrete virtual objects (patient profile, anatomical models, instrument status, procedural steps) that can be independently accessed and manipulated. This segmentation reduces perceived complexity while maintaining comprehensive information availability.

The patent applies local quality by customizing the information interface to match specific surgical procedures and anatomical regions. The virtual reality environment adapts the display of data, models, and controls to be relevant to the current surgical context, presenting only the information needed for that particular task rather than a generic comprehensive interface. This context-aware customization simplifies the user experience while maintaining surgical effectiveness.