Abstract: Multimedia enabled Smart Contact Len (SCL)s system is presented. An SCL system with an embedded display and optional paired audio output device(s) or other multimedia output device(s). The system is capable to accept multimedia stream, split it into constituent media specific type of data streams and output the separated data into the type specific output device with near the eye auxiliary multimedia data processing device. Which will help process different type data such a audio, image, video, text and other types of data & providing a interactive data processing smart contact lens. An SCL system with an embedded display and integrated into the SCL forward facing image capture device paired with integrated or remote audio capture device capture multimedia data producing one unified multimedia data stream for storage or data transmission.

Abstract: A contact lens system is provided. The contact lens includes a contact lens substrate, an embedded display, and a processor. The embedded display may form a part of the contact lens substrate. The processor is configured to shift at least a part of an image to a central position of the embedded display to bring the part of the image into focus on the embedded display.

Abstract: A smart contact lens system and corresponding method for system control and exchanging data and commands between the two components has been disclosed. The system establishes a Master-Slave operational relationship between constituent components. Master-Slave relationship can exist between the two contact lenses, where one lens is a master while the other is a slave or between an external device which may serve as the master component and the contact lenses which may serve as the slave component. The system also comprises a smart contact lens substrate with an embedded communication module and a power supply module. The method to facilitate system control as well as data and commands exchange includes detecting the active system components, dynamically bonding and pairing the detected active components, dynamically or statically categorizing one of the component as master and the other one as slave and exchanging information and commands between the components.

Abstract: The smart contact lens system hereby proposed, integrates a number of electronic, electro-optical or optical components on the contact lens substrate. The system, inter alia, is arranged to identify and track changes in pupillary response due to mental task engagement, also known as task-evoked pupillary response. To this end, the system proposed tracks a variety of conditions affecting reflexes such as pupillary reflex or accommodation reflex, in order to compute the extent of pupil dilation attributable to the mental task engagement. Another aspect of present invention is a smart contact lens system, which minimizes pupillary reflex caused by light by controlling the amount of light entering the eye. When pupillary reflex is non-existent, computing a task-evoked pupillary response becomes a much easier task.

Abstract: A smart contact lens system is provided. The contact lens system comprises a contact lens substrate, an embedded display, and an onboard, embedded or off board, remote processor. The embedded display may form a part of the contact lens substrate. The embedded display is configured for outputting variety of UI components to the user. The processor is configured to shift at least a part of an image to a central position of the embedded display to bring the part of the image into focus on the embedded display and select UI component and optionally trigger it; thereby generating appropriate system event. Hence the entire system operation may be controlled with the eye(s).

Abstract: A contact lens system is provided. The contact lens includes a contact lens substrate, an embedded display, and a processor. The embedded display may form a part of the contact lens substrate. The processor is configured to shift at least a part of an image to a central position of the embedded display to bring the part of the image into focus on the embedded display.

Abstract: A smart contact lens system and corresponding method for system control and exchanging data and commands between the two components has been disclosed. The system establishes a Master-Slave operational relationship between constituent components. Master-Slave relationship can exist between the two contact lenses, where one lens is a master while the other is a slave or between an external device which may serve as the master component and the contact lenses which may serve as the slave component. The system also comprises a smart contact lens substrate with an embedded communication module and a power supply module. The method to facilitate system control as well as data and commands exchange includes detecting the active system components, dynamically bonding and pairing the detected active components, dynamically or statically categorizing one of the component as master and the other one as slave and exchanging information and commands between the components.

Abstract: Current invention propounds a novel active contact lens device, system, as well as, a corresponding method of operation of such contact lens with an embedded orientation determination mechanism. The system, furthermore, utilizes an onboard, integrated orientation and gaze sensing component to determine eye orientation, in 3D (x,y,z) dimension corresponding to the direction of eye gaze, or in 2D (x,y) dimension, denoting orientation relative to the horizontal or vertical line of the eye, also known as, the horizontal or vertical meridian of the eye. Such a system may be used to provide rich augmented reality (AR) or virtual reality (VR) experience to its user/wearer. Hereby, we propose to incorporate several electronic, electro-optical, optical or other types of components into the contact lens substrate and interconnect them to form such an innovative AR/VR enabled active contact lens system.

Abstract: A smart contact lens system is provided. The contact lens system comprises a contact lens substrate, an embedded display, and an onboard, embedded or off board, remote processor. The embedded display may form a part of the contact lens substrate. The embedded display is configured for outputting variety of UI components to the user. The processor is configured to shift at least a part of an image to a central position of the embedded display to bring the part of the image into focus on the embedded display and select UI component and optionally trigger it; thereby generating appropriate system event. Hence the entire system operation may be controlled with the eye(s).

Abstract: A contact lens system is provided. The contact lens includes a contact lens substrate, an embedded display, and a processor. The embedded display may form a part of the contact lens substrate. The processor is configured to shift at least a part of an image to a central position of the embedded display to bring the part of the image into focus on the embedded display.

Abstract: The smart contact lens system hereby proposed, integrates a number of electronic, electro-optical or optical components on the contact lens substrate. The system, inter alia, is arranged to identify and track changes in pupillary response due to mental task engagement, also known as task-evoked pupillary response. To this end, the system proposed tracks a variety of conditions affecting reflexes such as pupillary reflex or accommodation reflex, in order to compute the extent of pupil dilation attributable to the mental task engagement. Another aspect of present invention is a smart contact lens system, which minimizes pupillary reflex caused by light by controlling the amount of light entering the eye. When pupillary reflex is non-existent, computing a task-evoked pupillary response becomes a much easier task.

Abstract: The present invention relates to a navigation device. The navigation device is arranged to dynamically generate multidimensional video signals based on location and directional information of the navigation device from 3D data set. The navigation device is further arranged to superimpose navigation directions and/or environment information about surrounding objects onto the generated multidimensional view.

Abstract: The present invention relates to a navigation device. The navigation device is arranged to dynamically generate multidimensional video signals based on location and directional information of the navigation device by processing at pre-generated 3D data set (3D Model or 3D point cloud). The navigation device is further arranged to superimpose navigation directions and/or environment information about surrounding objects onto the generated multidimensional view.

Abstract: The present invention relates to a navigation device. The navigation device is arranged to dynamically generate multi-dimensional (multidimensional) video signals based on location and directional information of the navigation device by processing at least one source video signal. The navigation device is further arranged to superimpose navigation directions and/or environment information about surrounding objects onto the generated multidimensional video feed.

Abstract: The present invention relates to a navigation device. The navigation device is arranged to dynamically generate multi-dimensional (multidimensional) video signals based on location and directional information of the navigation device by processing at least one source video signal. The navigation device is further arranged to superimpose navigation directions and/or environment information about surrounding objects onto the generated multidimensional video feed.