Abstract: Systems and methods are described herein that discuss how a computing platform executing a virtualized environment, in one example, can be integrity verified adaptively and on demand. This may occur at initial runtime, as well as during continued operations, and allows the platform user to install software from various vendors without sacrificing the integrity measurement and therefore the trustworthiness of the platform.

Abstract: A method includes receiving a break-glass ticket scope identifying one or more secure containers of a secure container system. The secure containers are instantiated in a non-debuggable state and execute corresponding secure execution environments for contents of the corresponding secure containers. The method also includes generating a pending break-glass ticket having the break-glass ticket scope and transmitting the pending break-glass ticket to a break-glass approver for approver. In response to receiving an approved break-glass ticket from the break-glass approver, the method includes altering an access setting of the one or more secure containers defined in the break-glass ticket scope. The altered access setting allows debugging of the respective contents of the one or more secure containers executing the corresponding secure execution environments.

Abstract: In an embodiment, the present invention includes a processor having an execution logic to execute instructions and a control transfer termination (CTT) logic coupled to the execution logic. This logic is to cause a CTT fault to be raised if a target instruction of a control transfer instruction is not a CTT instruction. Other embodiments are described and claimed.

Abstract: Embodiments of an invention for an interface between a device and a secure processing environment are disclosed. In one embodiment, a system includes a processor, a device, and an interface plug-in. The processor includes an instruction unit and an execution unit. The instruction unit is to receive an instruction to create a secure processing environment. The execution unit is to execute an application in the secure processing environment. The device is to execute a workload for the application. The interface plug-in is to provide an interface for the device to enter the secure processing environment to execute the workload.

Abstract: In general, in one aspect, noise is injected into a bitmap associated with content to be presented on a display to create a noisy bitmap. The noisy bitmap is encrypted using electronic code book (ECB) encryption. The resulting ciphertext does not include recognizable patterns from the content as is typical with ECB encryption. The injection of noise may include modifying pixel values for at least a subset of pixels in the bitmap. The pixel values may be modified by using a counter, a known modification pattern, or a random number generator. The bitmap may be analyzed to determine how the bitmap can be modified to maximize the randomness of the bitmap while ensuring that the noisy bitmap is visually perceptually similar when presented. The noise may be injected into a block of pixels prior to the block being encrypted.

Abstract: Embodiments of apparatuses and methods including virtual address memory range registers are disclosed. In one embodiment, a processor includes a memory interface, address translation hardware, and virtual memory address comparison hardware. The memory interface is to access a system memory using a physical memory address. The address translation hardware is to support translation of a virtual memory address to the physical memory address. The virtual memory address is used by software to access a virtual memory location in the virtual memory address space of the processor. The virtual memory address comparison hardware is to determine whether the virtual memory address is within a virtual memory address range.

Abstract: Systems and methods are described herein that discuss how a computing platform executing a virtualized environment, in one example, can be integrity verified adaptively and on demand. This may occur at initial runtime, as well as during continued operations, and allows the platform user to install software from various vendors without sacrificing the integrity measurement and therefore the trustworthiness of the platform.

Abstract: Generally, this disclosure provides systems, devices, methods and computer readable media for virtualization-based intra-block workload isolation. The system may include a virtual machine manager (VMM) module to create a secure virtualization environment or sandbox. The system may also include a processor block to load data into a first region of the sandbox and to generate a workload package based on the data. The workload package is stored in a second region of the sandbox. The system may further include an operational block to fetch and execute instructions from the workload package.

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: In an embodiment, the present invention includes a processor having an execution logic to execute instructions and a control transfer termination (CTT) logic coupled to the execution logic. This logic is to cause a CTT fault to be raised if a target instruction of a control transfer instruction is not a CTT instruction. Other embodiments are described and claimed.

Abstract: Embodiments of an invention for securing transmissions between processor packages are disclosed. In one embodiment, an apparatus includes an encryption unit to encrypt first content to be transmitted from the apparatus to a processor package directly through a point-to-point link.

Abstract: Systems and methods are described herein that discuss how a computing platform executing a virtualized environment, in one example, can be integrity verified adaptively and on demand. This may occur at initial runtime, as well as during continued operations, and allows the platform user to install software from various vendors without sacrificing the integrity measurement and therefore the trustworthiness of the platform.

Abstract: Embodiments of an invention for feature licensing in a secure processing environment are disclosed. In one embodiment, a processor includes an instruction unit and an execution unit. The instruction unit is to receive an instruction to initialize a secure enclave. The execution unit is to execute the instruction. Execution of the instruction includes determining whether a requested feature is licensed for use in the secure enclave.

Abstract: In an embodiment, the present invention includes a processor having a decode unit, an execution unit, and a retirement unit. The decode unit is to decode control transfer instructions and the execution unit is to execute control transfer instructions. The retirement unit is to retire a first control transfer instruction, and to raise a fault if a next instruction to be retired after the first control transfer instruction is not a second control transfer instruction and a target instruction of the first control transfer instruction is in code using the control transfer instructions.

Abstract: In general, in one aspect, noise is injected into a bitmap associated with content to be presented on a display to create a noisy bitmap. The noisy bitmap is encrypted using electronic code book (ECB) encryption. The resulting ciphertext does not include recognizable patterns from the content as is typical with ECB encryption. The injection of noise may include modifying pixel values for at least a subset of pixels in the bitmap. The pixel values may be modified by using a counter, a known modification pattern, or a random number generator. The bitmap may be analyzed to determine how the bitmap can be modified to maximize the randomness of the bitmap while ensuring that the noisy bitmap is visually perceptually similar when presented. The noise may be injected into a block of pixels prior to the block being encrypted.

Abstract: In general, in one aspect, noise is injected into a bitmap associated with content to be presented on a display to create a noisy bitmap. The noisy bitmap is encrypted using electronic code book (ECB) encryption. The resulting ciphertext does not include recognizable patterns from the content as is typical with ECB encryption. The injection of noise may include modifying pixel values for at least a subset of pixels in the bitmap. The pixel values may be modified by using a counter, a known modification pattern, or a random number generator. The bitmap may be analyzed to determine how the bitmap can be modified to maximize the randomness of the bitmap while ensuring that the noisy bitmap is visually perceptually similar when presented. The noise may be injected into a block of pixels prior to the block being encrypted.

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: Embodiments of apparatuses and methods including virtual address memory range registers are disclosed. In one embodiment, a processor includes a memory interface, address translation hardware, and virtual memory address comparison hardware. The memory interface is to access a system memory using a physical memory address. The address translation hardware is to support translation of a virtual memory address to the physical memory address. The virtual memory address is used by software to access a virtual memory location in the virtual memory address space of the processor. The virtual memory address comparison hardware is to determine whether the virtual memory address is within a virtual memory address range.

Abstract: Embodiments of an invention for modifying memory permissions in a secure processing environment are disclosed. In one embodiment, a processor includes an instruction unit and an execution unit. The instruction unit is to receive an instruction to modify access permissions for a page in a secure enclave. The execution unit is to execute the instruction. Execution of the instruction includes setting new access permissions in an enclave page cache map entry. Furthermore, the page is immediately accessible from inside the secure enclave according to the new access permissions.

Abstract: Embodiments of an invention for an interface between a device and a secure processing environment are disclosed. In one embodiment, a system includes a processor, a device, and an interface plug-in. The processor includes an instruction unit and an execution unit. The instruction unit is to receive an instruction to create a secure processing environment. The execution unit is to execute an application in the secure processing environment. The device is to execute a workload for the application. The interface plug-in is to provide an interface for the device to enter the secure processing environment to execute the workload.