Abstract: A virtual memory including virtual addresses may be generated. A first virtual address of the virtual memory may be mapped to a first physical address of a one-time programmable (OTP) memory of a device. Furthermore, a second virtual address of the virtual memory may be mapped to a second physical address of a static memory of the device. The virtual memory that is mapped to the OTP memory and the static memory may be provided for accessing of the data of the OTP memory of the device.

Abstract: A processing device, such as logic on an integrated circuit may identify a cryptographic message stored in a first register. The processing device may determine a plurality of components for a second power of the cryptographic message using a plurality of components of the cryptographic message. The processing device may determine the plurality of components for the second power of the cryptographic message without storing the entire second power of the cryptographic message. Further, the processing device may determine a third power of the cryptographic message using modular arithmetic. The processing device may determine the third power by transforming the plurality of components for the second power of the cryptographic message and the plurality of components of the cryptographic message.

Abstract: A computing device receives a feature name or key name for an integrated circuit comprising a security manager core and an additional component. At least one of a) the additional component is associated with the key name or b) a feature provided by the additional component is associated with the feature name. The computing device receives a specified number of bits associated with the feature name or the key name, and maps the feature name to a feature address space or the key name to a key interface of the security manager core based at on the specified number of bits. The computing device generates at least one hardware description logic (HDL) module based on the mapping, wherein the at least one HDL module is usable to configure the security manager core for delivery of payloads associated with the feature name or the key name to the additional component.

Abstract: A method including sorting read/write commands initiated by a memory controller based upon a destination page within a memory device. The read/write commands having a highest priority level are determined. The commands are then categorized as either page movement commands or data movement commands. The page movement commands or data movement commands are sent to the memory device based upon a signal indicating a current direction of a data bus providing communication between the memory controller and the memory device and further based upon a priority level.

Abstract: A method of training chip select for a memory module. The method includes programming a memory controller into a mode wherein a command signal is active for a programmable time period. The method then programs a programmable delay line of the chip select with a delay value and performs initialization of the memory module. The memory module is then placed in a write leveling mode wherein placing the memory module in the write leveling mode toggles a state of the chip select. A write leveling procedure is then performed and a response thereto is determined from the memory module. A determination is made whether the memory module is in a pass state or an error state based on the response.

Abstract: A first key associated with a plurality of devices may be received. Furthermore, a second key associated with a single device may be received. The first key associated with the plurality of devices may be modified based on a device identification of the single device. Additionally, a primary key may be generated based on the modified first key and the second key.

Abstract: The embodiments described herein describe technologies for ticketing systems used in consumption and provisioning of data assets, such as a pre-computed (PCD) asset. A ticket may be a digital file or data that enables enforcement of usage count limits and uniqueness issuance ore sequential issuance of target device parameters. On implementation includes an Appliance device of a cryptographic manager (CM) system that receives a Module and a ticket over a network from a Service device. The Module is an application that securely provisions a data asset to a target device in an operation phase of a manufacturing lifecycle of the target device. The ticket is digital data that grants permission to the Appliance device to execute the Module. The Appliance device verifies the ticket to execute the Module. The Module, when executed, results in a secure construction of a sequence of operations to securely provision the data asset to the target device.

Abstract: A request to generate a first key may be received. A device generated key that is stored in a memory may be received in response to the request. Furthermore, a first entity identification (ID) that is stored in the memory may be received. The first key may be generated based on the first entity ID and the device generated key that are stored in the memory.

Abstract: A request associated with a revocation of a key may be received. A hash value corresponding to the key that is stored in a memory may be identified. Furthermore, the hash value that is stored in the memory may be corrupted in response to the request associated with the revocation of the key.

Abstract: A method of operating a speech recognition system includes converting a spoken utterance by a user into an electrical voice signal by use of a local microphone associated with a local electronic device. The electrical voice signal is transmitted to a remote voice recognizer. The remote voice recognizer is used to transcribe the electrical voice signal and to produce a confidence score. The confidence score indicates a level of confidence that the transcription of the electrical voice signal substantially matches the words of the spoken utterance. The transcription of the electrical voice signal and the confidence score are transmitted from the remote voice recognizer to the local electronic device. The electrical voice signal, the transcription of the electrical voice signal, and the confidence score are used at the local device to train a local voice recognizer.

Abstract: A processing device, such as logic on an integrated circuit may identify a cryptographic message stored in a first register. The processing device may determine a plurality of components for a second power of the cryptographic message using a plurality of components of the cryptographic message. The processing device may determine the plurality of components for the second power of the cryptographic message without storing the entire second power of the cryptographic message. Further, the processing device may determine a third power of the cryptographic message using modular arithmetic. The processing device may determine the third power by transforming the plurality of components for the second power of the cryptographic message and the plurality of components of the cryptographic message.

Abstract: A computing device receives a feature name or key name for an integrated circuit comprising a security manager core and an additional component. At least one of a) the additional component is associated with the key name or b) a feature provided by the additional component is associated with the feature name. The computing device receives a specified number of bits associated with the feature name or the key name, and maps the feature name to a feature address space or the key name to a key interface of the security manager core based at on the specified number of bits. The computing device generates at least one hardware description logic (HDL) module based on the mapping, wherein the at least one HDL module is usable to configure the security manager core for delivery of payloads associated with the feature name or the key name to the additional component.

Abstract: A method including sorting read/write commands initiated by a memory controller based upon a destination page within a memory device. The read/write commands having a highest priority level are determined. The commands are then categorized as either page movement commands or data movement commands. The page movement commands or data movement commands are sent to the memory device based upon a signal indicating a current direction of a data bus providing communication between the memory controller and the memory device and further based upon a priority level.

Abstract: A method of training a memory interface between a memory controller and a memory module. The method includes programming a delay line of a data strobe with a delay value and programming a reference voltage with a voltage value. The method then writes a data bit pattern to the memory module wherein the data bit pattern is of a first plurality of unique data bit patterns. The data bit pattern is read back and a result is compared with the data bit pattern. A determination is made whether the memory module is in a pass state or an error state based on the comparing. The steps are repeated with another data bit pattern of the first plurality of data bit patterns. The method is repeated for each combination of the data strobe delay value and the reference voltage value.

Abstract: A method of training chip select for a memory module. The method includes programming a memory controller into a mode wherein a command signal is active for a programmable time period. The method then programs a programmable delay line of the chip select with a delay value and performs initialization of the memory module. The memory module is then placed in a write leveling mode wherein placing the memory module in the write leveling mode toggles a state of the chip select. A write leveling procedure is then performed and a response thereto is determined from the memory module. A determination is made whether the memory module is in a pass state or an error state based on the response.

Abstract: A method of training chip select for a memory module. The method includes programming a memory controller into a mode wherein a command signal is active for a programmable time period. The method then programs a programmable delay line of the chip select with a delay value and performs initialization of the memory module. A read command is then sent to the memory module to toggle a state of the chip select. A number of data strobe signals sent by the memory module in response to the read command are counted. A determination is made whether the memory module is in a pass state or an error state based on a result of the counting.

Abstract: A method of training a command signal for a memory module. The method includes programming a memory controller into a mode wherein a single bit of an address signal is active for a single clock cycle. The method then programs a programmable delay line of the address signal with a delay value and performs initialization of the memory module. The memory module is then placed in a write leveling mode. A write leveling procedure is then performed and a response thereto is determined from the memory module. A determination is made whether the memory module is in a pass state or an error state based on the response.

Abstract: A method of training command signals for a memory module. The method includes programming a memory controller into a mode wherein a column access strobe is active for a single clock cycle. The method then programs a programmable delay line of the column access strobe with a delay value and performs initialization of the memory module. A read command is then sent to the memory module. A number of data strobe signals sent by the memory module in response to the read command are counted. A determination is made whether the memory module is in a pass state or an error state based on a result of the counting.

Abstract: A system for ordering packets. The system includes a first memory, e.g., FIFO, storing transition information for posted packets, e.g., 1 when a posted packet transitions from a non-posted packet and 0 otherwise. A second memory stores transition information for non-posted packets, e.g., 1 when a non-posted packet transitions from a posted packet and 0 otherwise. A counter increments responsive to detecting a transition in the first memory and decrements responsive to detecting a transition in the second memory. A controller orders a posted packet for transmission prior to a non-posted packet if a value of the counter is negative and when a transitional value associated with the non-posted packet is 1, and wherein the controller orders either a posted packet or a non-posted packet otherwise. The first and the second memory may be within a same memory component.

Abstract: A method for analyzing, querying, and mining graph databases using subgraph and similarity querying. An index structure, known as a closure tree, is defined for topological summarization of a set of graphs. In addition, a significance model is created in which the graphs are transformed into histograms of primitive components. Finally, connected substructures or clusters, comprising paths or trees, are detected in networks found in the graph databases using a random walk technique and a repeated random walk technique.