Abstract: The technology relates to linking virtual assets and physical assets through non-fungible tokens (NFTs) in a metaverse. As such, the invention anchors a metaverse to the real world. The metaverse can limit ownership or rendering of certain virtual assets in the metaverse to only those who actually own physical assets. For example, the metaverse can limit a virtual representation of a car in the metaverse to those who own the real car. The linkage between the virtual and real assets can be verified in the metaverse based on NFTs stored on a blockchain. As such, only those who actually own a physical asset in the real world are associated with the virtual asset (or related representation) in the metaverse.

Abstract: The system obtains information to send to the first user device and converts the information into a sequence of images, where one or more images in the sequence of images include the information, and a remainder of images in the sequence include a visual unrelated to the information. The number of the one or more images and the number of the remainder of images indicate a display frequency. The number of the remainder of images is greater than the number of the one or more images. The display frequency causes an observer to form a perception of the one or more images. The system sends the sequence to the first user device and causes the first user device to present on the display screen the sequence at the display frequency, which causes a garbling of a recording of the display screen associated with the first user device.

Abstract: The technology relates to a technique for representing a unique physical asset such as a smartphone with a unique (singular) digital asset such as a non-fungible token (NFT). The NFT and related metadata can be stored on a blockchain to verify ownership of the digital asset. In one example, the NFT is produced based on a unique identifier (IMEI) for the smartphone. Other examples of physical assets with unique identifiers include automobiles, real property, etc.

Abstract: The technology relates to a technique for representing a unique physical asset such as a smartphone with a unique (singular) digital asset such as a non-fungible token (NFT). The NFT and related metadata can be stored on a blockchain to verify ownership of the digital asset. In one example, the NFT is produced based on a unique identifier (IMEI) for the smartphone. Other examples of physical assets with unique identifiers include automobiles, real property, etc.

Abstract: A technique for linking utilities with non-fungible tokens (NFTs) is disclosed. The utilities are not necessarily physical assets. For example, the utilities can be services or functions that depend on who and when the NFT is owned. The utilities can be enabled on or through a device or computer system. The utilities can have levels or be of different types and vary by time. For example, a utility can change, aggregate, or expire over time.

Abstract: The technology relates to a technique for representing a unique physical asset such as a smartphone with a unique (singular) digital asset such as a non-fungible token (NFT). The NFT and related metadata can be stored on a blockchain to verify ownership of the digital asset. In one example, the NFT is produced based on a unique identifier (IMEI) for the smartphone. Other examples of physical assets with unique identifiers include automobiles, real property, etc.

Abstract: The technology relates to linking virtual assets and physical assets through non-fungible tokens (NFTs) in a metaverse. As such, the invention anchors a metaverse to the real world. The metaverse can limit ownership or rendering of certain virtual assets in the metaverse to only those who actually own physical assets. For example, the metaverse can limit a virtual representation of a car in the metaverse to those who own the real car. The linkage between the virtual and real assets can be verified in the metaverse based on NFTs stored on a blockchain. As such, only those who actually own a physical asset in the real world are associated with the virtual asset (or related representation) in the metaverse.

Abstract: A mobile device can detect an idle state and, in response, initiate an access monitoring function to covertly monitor activity involving a human interaction with the mobile device. The covert monitoring is undetectable by a user of the mobile device. The mobile device can then detect a human interaction with the mobile device and, in response, cause the mobile device to covertly capture and log one or more human interactions with the mobile device. An authorized user of the mobile device is enabled to review the log of human interactions with the mobile device.

Abstract: A mobile device includes non-private memory that can store software programs and a private memory that can store copies of the software programs as well as exclusively store trusted programs that are not stored in the non-private memory. The mobile device includes a processor configured to execute the software programs of the non-private memory when the mobile device is in a non-private mode, execute a trusted program only when the mobile device is in a private mode, and enable switching between the non-private mode and the private mode in response to a reboot of the mobile device.

Abstract: A mobile device can detect an idle state and, in response, initiate an access monitoring function to covertly monitor activity involving a human interaction with the mobile device. The covert monitoring is undetectable by a user of the mobile device. The mobile device can then detect a human interaction with the mobile device and, in response, cause the mobile device to covertly capture and log one or more human interactions with the mobile device. An authorized user of the mobile device is enabled to review the log of human interactions with the mobile device.

Abstract: A mobile device has a private memory that stores multiple software programs including a trusted software program. A non-private memory stores copies of the software programs except the trusted software program. The mobile device can be set in a full non-private mode, a modified non-private mode, or a private mode. In the full non-private mode, the full non-private memory is restored with copies of the software programs stored at the private memory. In the modified non-private mode, only selected software programs are restored at the non-private memory with a copy from the private memory. In the private mode, the trusted software program at the private memory can be executed.

Abstract: A mobile device includes non-private memory that can store software programs and a private memory that can store copies of the software programs as well as exclusively store trusted programs that are not stored in the non-private memory. The mobile device includes a processor configured to execute the software programs of the non-private memory when the mobile device is in a non-private mode, execute a trusted program only when the mobile device is in a private mode, and enable switching between the non-private mode and the private mode in response to a reboot of the mobile device.

Abstract: A mobile device has a private memory that stores multiple software programs including a trusted software program. A non-private memory stores copies of the software programs except the trusted software program. The mobile device can be set in a full non-private mode, a modified non-private mode, or a private mode. In the full non-private mode, the full non-private memory is restored with copies of the software programs stored at the private memory. In the modified non-private mode, only selected software programs are restored at the non-private memory with a copy from the private memory. In the private mode, the trusted software program at the private memory can be executed.