Abstract: A method, device, and system are disclosed. In one embodiment the method includes receiving measured health information from a client on a key distribution server. Once the measured health information is received the server is capable of validating the measured health information to see if it is authentic. The server is also capable of sending a session key to the client when the measured health information is validated. When the client receives the session key, the client is capable of initiating an encrypted and authenticated connection with an application server in the domain using the session key.

Abstract: Technologies for execute only transactional memory include a computing device with a processor and a memory. The processor includes an instruction translation lookaside buffer (iTLB) and a data translation lookaside buffer (dTLB). In response to a page miss, the processor determines whether a page physical address is within an execute only transactional (XOT) range of the memory. If within the XOT range, the processor may populate the iTLB with the page physical address and prevent the dTLB from being populated with the page physical address. In response to an asynchronous change of control flow such as an interrupt, the processor determines whether a last iTLB translation is within the XOT range. If within the XOT range, the processor clears or otherwise secures the processor register state. The processor ensures that an XOT range starts execution at an authorized entry point. Other embodiments are described and claimed.

Abstract: Encryption interface technologies are described. A processor can include a system agent, an encryption interface, and a memory controller. The system agent can communicate data with a hardware functional block. The encryption interface can be coupled between the system agent and a memory controller. The encryption interface can receive a plaintext request from the system agent, encrypt the plaintext request to obtain an encrypted request, and communicate the encrypted request to the memory controller. The memory controller can communicate the encrypted request to a main memory of the computing device.

Abstract: Memory encryption engine (MEE) integration technologies are described. A MEE system may include a MEE interface and a MEE core. The MEE interface may receive a data from an arbiter, where the data is selected by the arbiter from data at memory link queues. The MEE interface may adjust a timing rate to send the data to match a timing of a MEE core. The MEE core may be coupled to the MEE interface and may receive the data from the MEE interface.

Abstract: A processing or memory device may include a first encryption pipeline to encrypt and decrypt data with a first encryption mode and a second encryption pipeline to encrypt and decrypt data with a second encryption mode, wherein the first encryption pipeline and the second encryption pipeline share a single, shared pipeline for a majority of encryption and decryption operations performed by the first encryption pipeline and by the second encryption pipeline. A controller (and/or other logic) may direct selection of encrypted (or decrypted) data from the first and second encryption pipelines responsive to a region of memory to which a physical address of a memory request is directed. The result of the selection may result in bypassing encryption/decryption or encrypting/decrypting the data according to the first encryption mode or the second encryption mode. More than two encryption modes are envisioned.

Abstract: Embodiments of apparatuses, articles, methods, and systems for secure vault service for software components within an execution environment are generally described herein. An embodiment includes the ability for a Virtual Machine Monitor, Operating System Monitor, or other underlying platform capability to restrict memory regions for access only by specifically authenticated, authorized and verified software components, even when part of an otherwise compromised operating system environment. The underlying platform to lock and unlock secrets on behalf of the authenticated/authorized/verified software component provided in protected memory regions only accessible to the authenticated/authorized/verified software component. Other embodiments may be described and claimed.

Abstract: Technologies for memory encryption include a computing device to generate a keyed hash of a data line based on a statistical counter value and a memory address to which to write the data line and to store the keyed hash to a cache line. The statistical counter value has a reference probability of incrementing at each write operation. The cache line includes a plurality of keyed hashes and each of the keyed hashes corresponds with a different data line. The computing device further encrypts the data line based on the keyed hash, the memory address, and the statistical counter value.

Abstract: Memory encryption engine (MEE) integration technologies are described. A processor can include a processor core and an arbiter of a MEE system coupled to the processor core. The arbiter can receive a first contending request from a first queue and a second contending request from a second queue. The arbiter can further select the first queue to communicate the first message to an MEE of the MEE system or the second queue to communicate the second message to the MEE in view of arbitration criteria. The arbiter can further communicate the selected first message or the selected second message to the MEE.

Abstract: In an embodiment, a processor includes: at least one core to execute instructions; and a memory protection logic to encrypt data to be stored to a memory coupled to the processor, generate a message authentication code (MAC) based on the encrypted data, the MAC to have a first value according to a first key, obtain the encrypted data from the memory and validate the encrypted data using the MAC, where the MAC is to be re-keyed to have a second value according to a second key and without the encrypted data. Other embodiments are described and claimed.

Abstract: In an embodiment, a processor includes: at least one core to execute instructions; a cache memory coupled to the at least one core to store data; and a tracker cache memory coupled to the at least one core. The tracker cache memory includes entries to store an integrity value associated with a data block to be written to a memory coupled to the processor. Other embodiments are described and claimed.

Abstract: Memory scanning methods and apparatus are disclosed. An example apparatus includes a walker to traverse a paging structure of an address translation system; a bit analyzer to determine whether a bit associated with an entry of the paging structure is indicative of the entry being recently accessed; an address identifier to, when the bit analyzer determines that the bit associated with the entry of the paging structure is indicative of the entry being recently accessed, determine an address associated with the entry; and an outputter to provide the determined address to a memory scanner.

Abstract: A processor is described that includes one or more processing cores. The processor includes a memory controller to interface with a system memory having a protected region and a non protected region. The processor includes a protection engine to protect against active and passive attacks. The processor includes an encryption/decryption engine to protect against passive attacks. The protection engine includes bridge circuitry coupled between the memory controller and the one or more processing cores. The bridge circuitry is also coupled to the protection engine and the encryption/decryption engine. The bridge circuitry is to route first requests directed to the protected region to the protection engine and to route second requests directed to the non protected region to the encryption/decryption engine.

Abstract: Methods and apparatus are disclosed to provide for security within a network enclave. In one embodiment authentication logic initiates authentication with a central network authority. Packet processing logic receives a key and an identifier from the central network authority. Security protocol logic then establishes a client-server security association through a communication that includes a client identifier and an encrypted portion and/or an authorization signature, wherein a client authorization key allocated by the central network authority can be reproduced by a server, other than said central network authority, from the client identifier and a derivation key provided to the server by the central network authority to decrypt the encrypted portion and/or to validate the communication using the authorization signature.

Abstract: Systems and methods may provide for identifying unencrypted data including a plurality of bits, wherein the unencrypted data may be encrypted and stored in memory. In addition, a determination may be made as to whether the unencrypted data includes a random distribution of the plurality of bits. An integrity action may be implemented, for example, when the unencrypted data includes a random distribution of the plurality of bits.

Abstract: Embodiments of an invention for establishing secure channels between a protected execution environment and fixed-function endpoints are disclosed. In one embodiment, and system includes an architecturally protected memory, a processing core communicatively coupled to the architecturally protected memory, and a key distribution engine. The processing core is to implement an architecturally-protected execution environment by performing at least one of executing instructions residing in the architecturally protected memory and preventing an unauthorized access to the architecturally protected memory.

Abstract: Systems and techniques for a System-on-a-Chip (SoC) security plugin are described herein. A component message may be received at an interconnect endpoint from an SoC component. The interconnect endpoint may pass the component message to a security component via a security interlink. The security component may secure the component message, using a cryptographic engine, to create a secured message. The secured message is delivered back to the interconnect endpoint via the security interlink and transmitted across the interconnect by the interconnect endpoint.

Abstract: Memory encryption engine (MEE) integration technologies are described. A processor can include a processor core and an arbiter of a MEE system coupled to the processor core. The arbiter can receive a first contending request from a first queue and a second contending request from a second queue. The arbiter can further select the first queue to communicate the first message to an MEE of the MEE system or the second queue to communicate the second message to the MEE in view of arbitration criteria. The arbiter can further communicate the selected first message or the selected second message to the MEE.

Abstract: Encryption interface technologies are described. A processor can include a system agent, an encryption interface, and a memory controller. The system agent can communicate data with a hardware functional block. The encryption interface can be coupled between the system agent and a memory controller. The encryption interface can receive a plaintext request from the system agent, encrypt the plaintext request to obtain an encrypted request, and communicate the encrypted request to the memory controller. The memory controller can communicate the encrypted request to a main memory of the computing device.

Abstract: Embodiments of apparatuses, articles, methods, and systems for secure vault service for software components within an execution environment are generally described herein. An embodiment includes the ability for a Virtual Machine Monitor, Operating System Monitor, or other underlying platform capability to restrict memory regions for access only by specifically authenticated, authorized and verified software components, even when part of an otherwise compromised operating system environment. The underlying platform to lock and unlock secrets on behalf of the authenticated/authorized/verified software component provided in protected memory regions only accessible to the authenticated/authorized/verified software component. Other embodiments may be described and claimed.

Abstract: Methods and apparatus are disclosed to provide for security within a network enclave. In one embodiment authentication logic initiates authentication with a central network authority. Packet processing logic receives a key and an identifier from the central network authority. Security protocol logic then establishes a client-server security association through a communication that includes a client identifier and an encrypted portion and/or an authorization signature, wherein a client authorization key allocated by the central network authority can be reproduced by a server, other than said central network authority, from the client identifier and a derivation key provided to the server by the central network authority to decrypt the encrypted portion and/or to validate the communication using the authorization signature.