Abstract: A storage device is provided. The storage device includes a controller which receives a command from a host for instructing performance of a first computation, a non-volatile memory which stores a plurality of datasets, a buffer memory to which a first dataset among the plurality of datasets stored in the non-volatile memory is provided in response to the command, and an accelerator which performs the first computation corresponding to the command, using the first dataset provided to the buffer memory. The accelerator includes a memory access module which receives a first input query for instructing the first computation and the first dataset from the buffer memory, and a first computing module which is connected to the memory access module and determines first final candidate data corresponding to the first input query, using the first dataset.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: Systems and methods that allow secure application-driven arbitrary compute in storage devices in a cloud-based computing system are provided. A computing system including a compute controller configured to: (1) provide access to host compute resources, and (2) operate in at least one of a first mode or a second mode is provided. The computing system may further include a storage controller configured to provide access to storage systems including storage components, at least one compute component, and at least one cryptographic component. In the first mode, the host compute resources may be configured to execute at least a first operation on at least a first set of data stored in at least one of the storage components. In the second mode, the at least one compute component may be configured to execute at least a second operation on at least a second set of data.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: The automated recovery of the warmth of cache of an application that has been subject to a running state change that degraded the warmth of the cache. To prepare for a loss in warmth, the cache portion identifiers are captured, and corresponding cache portions are stored in an external store. Thereafter, the application experiences changes in state. In order to warm the application cache more quickly, cache portions identified by the captured cache portion identifiers are retrieved from the external data store and placed in the application cache.

Abstract: Systems and methods that allow secure application-driven arbitrary compute in storage devices in a cloud-based computing system are provided. A computing system including a compute controller configured to: (1) provide access to host compute resources, and (2) operate in at least one of a first mode or a second mode is provided. The computing system may further include a storage controller configured to provide access to storage systems including storage components, at least one compute component, and at least one cryptographic component. In the first mode, the host compute resources may be configured to execute at least a first operation on at least a first set of data stored in at least one of the storage components. In the second mode, the at least one compute component may be configured to execute at least a second operation on at least a second set of data.

Abstract: The automated recovery of the warmth of cache of an application that has been subject to a running state change that degraded the warmth of the cache. To prepare for a loss in warmth, the cache portion identifiers are captured, and corresponding cache portions are stored in an external store. Thereafter, the application experiences changes in state. In order to warm the application cache more quickly, cache portions identified by the captured cache portion identifiers are retrieved from the external data store and placed in the application cache.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: The automated recovery of the warmth of cache of an application that has been subject to a running state change that degraded the warmth of the cache. To prepare for a loss in warmth, the state of a cache portion identifiers are captured. Such identifies the cache portions that are within the application cache at an instant in time. Thereafter, the application experiences a change in running state that diminishes the warmth of the application cache. For instance, the application might be stopped and restarted. After and despite this cache degradation, the application may continue to operate. However, in order to warm the application cache more quickly, while the application is operating, the application cache is automatically warmed. For instance, while the application is operating, cache portions identified by the captured cache portion identifiers are automatically accessed from a source that is external to the application cache.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: Replicating a primary application cache that serves a primary application on one network node into a secondary application cache that serves a secondary application on a second network node. Cache portions that are within the primary application cache are identified, and then identifiers (but not the cache portions) are transferred to the second network node. Once these identifiers are received, the cache portions that they identify may then be retrieved into the secondary application caches. This process may be repeatedly performed such that the secondary application cache moves towards the same state as the primary application cache though the state of the primary application cache also changes as the primary application operates by receiving read and write requests.

Abstract: The automated recovery of the warmth of cache of an application that has been subject to a running state change that degraded the warmth of the cache. To prepare for a loss in warmth, the state of a cache portion identifiers are captured. Such identifies the cache portions that are within the application cache at an instant in time. Thereafter, the application experiences a change in running state that diminishes the warmth of the application cache. For instance, the application might be stopped and restarted. After and despite this cache degradation, the application may continue to operate. However, in order to warm the application cache more quickly, while the application is operating, the application cache is automatically warmed. For instance, while the application is operating, cache portions identified by the captured cache portion identifiers are automatically accessed from a source that is external to the application cache.

Abstract: In a nonvolatile semiconductor memory device having a plurality of word lines, bit lines, sense lines, nonvolatile semiconductor memory cells, column selecting transistors, a page buffer circuit, data lines, an input driver/sense amplifier, an input buffer an input/output register and a comparator, a secret access code is defined in such a manner that a first secret access code is latched in the page buffer circuit, a second secret access code inputted by the input buffer is compared with the first secret access code read by the input/output register by bytes in the comparator, and if the first and second access codes match, the first secret access code latched in the page buffer is written in the cells of the row line designated in advance among the nonvolatile memory cells.

Abstract: An on-chip circuit for producing signals to enable the operation of a circuit of special mode by sensing an externally applied signal to the chip or for supplying the externally applied voltage directly to the circuit in a special mode.

Abstract: A plural test mode selection circuit in a semiconductor device capable of extending the number of option modes, e.g., up to 16 option modes by adding a high voltage sensing circuit 15 to any one of a plurality of input pads and by arranging a master decoder 25 and a slave decoder 20 each coupled to a plurality of buffer circuits 11-14, as well as a mode selector 30 and a plurality of address/control pads 5-9, and then an output of a high voltage sensing circuit 15 and respective outputs of the master decoder 25 and a slave decoder 20 are combined together at a mode selector 30, so that a plurality of test modes selection is possible therefrom. In addition, the invention also has an advantage capable of testing a chip even after it has been made into a package because of utilizing the address/control pad used in a general read/write operation.

Abstract: There is disclosed a programmable sequential code recognition circuit comprising an individual code recognition circuit for recognizing each input code, and a sequence recognition circuit for recognizing the sequency given for individual codes obtained by combination of input signals, so that a specific mode may be selected by the input combination sequentially inputted.