Abstract: A secure integrated circuit comprises a lower logic layer, and one or more memory layers disposed above the lower logic layer. A security key is provided in one or more of the memory layers for unlocking the logic layer. A plurality of connectors are provided between the one or more memory layers and the lower logic layer to electrically couple the memory layer(s) and lower logic layer.

Abstract: A secure integrated circuit comprises a lower logic layer, and one or more memory layers disposed above the lower logic layer. A security key is provided in one or more of the memory layers for unlocking the logic layer.

Abstract: An example secure circuit device includes a logic layer with a logic circuit, first and second memory layers, and connectors between the logic layer and the memory layers. The logic circuit executes logic operations in response to being in an unlocked state and does not execute logic operations in response to being in a locked state. The logic circuit is in the unlocked state in response to a security key being accessible and in the locked state when the security key is inaccessible. The first memory layer is disposed over a second memory layer with the first and second memory layers being disposed over the logic layer in a monolithic structure. The security key includes a first security key portion disposed in the first memory layer and a second security key portion disposed in the second memory layer.

Abstract: An architecture is presented that facilitates integrated security capabilities. A memory module is provided that comprises non-volatile memory that stores security software and a security processor that accesses the security software from the nonvolatile memory and performs security functions based on the security software stored. Further, a host processor located outside of the memory module arbitrates with the security processor for access to the non-volatile memory. The memory module in communication with the host processor establishes a heightened level of security that can be utilized in authentication services and secure channel communications.

Abstract: An architecture is presented that facilitates integrating memory, security functionalities and near field communication (NFC) capabilities in a mobile device. A memory module is provided that comprises non-volatile memory that stores security software, sensitive data, and keys and a security processor that accesses the security software from the nonvolatile memory and performs security functions based on the security software stored. A NFC radio frequency transmitter and receiver (RF) is directly integrated into the security processor to facilitate NFC capabilities within the secure environment of the memory module. Further, the non-volatile memory directly interfaces to an NFC antenna positioned outside of the memory module via the integrated NFC RF. The integration of the security processor, memory, and NFC RF into the memory module provides a trusted environment for the manipulation and decryption of data received through the NFC antenna.

Abstract: A portable data storage device is provided having a non-volatile memory and a wireless data interface. The wireless data interface is coupled to the non-volatile memory to read data from the non-volatile memory for transmission through the wireless data interface and/or write data received from the wireless data interface to the non-volatile memory. The wireless data interface is a high data rate interface and/or a broadband interface. Data rates may be above 100 Mbps, and bandwidths may be 100 MHz or above. There is further provided a corresponding data storage method.

Abstract: An architecture is presented that facilitates integrating memory, security functionalities and near field communication (NFC) capabilities in a mobile device. A memory module is provided that comprises non-volatile memory that stores security software, sensitive data, and keys and a security processor that accesses the security software from the nonvolatile memory and performs security functions based on the security software stored. A NFC radio frequency transmitter and receiver (RF) is directly integrated into the security processor to facilitate NFC capabilities within the secure environment of the memory module. Further, the non-volatile memory directly interfaces to an NFC antenna positioned outside of the memory module via the integrated NFC RF. The integration of the security processor, memory, and NFC RF into the memory module provides a trusted environment for the manipulation and decryption of data received through the NFC antenna.

Abstract: An architecture is presented that facilitates integrated security capabilities. A memory module is provided that comprises non-volatile memory that stores security software and a security processor that accesses the security software from the nonvolatile memory and performs security functions based on the security software stored. Further, a host processor located outside of the memory module arbitrates with the security processor for access to the non-volatile memory. The memory module in communication with the host processor establishes a heightened level of security that can be utilized in authentication services and secure channel communications.

Abstract: A portable data storage device is provided having a non-volatile memory and a wireless data interface. The wireless data interface is coupled to the non-volatile memory to read data from the non-volatile memory for transmission through the wireless data interface and/or write data received from the wireless data interface to the non-volatile memory. The wireless data interface is a high data rate interface and/or a broadband interface. Data rates may be above 100 Mbps, and bandwidths may be 100 MHz or above. There is further provided a corresponding data storage method.