Abstract: A memory system includes a main memory, an auxiliary memory, a redundancy circuit, an extension control terminal, and a multiplexer. The main memory has a line width, and includes a write data input. The auxiliary memory has the same line width as the main memory, and includes a write data input. The redundancy circuit includes and input and an output. The input is coupled to the write data input of the main memory. The multiplexer includes a first input, a second input, a control input, and an output. The first input is coupled to the write data input of the main memory. The second input is coupled to the output of the redundancy circuit. The control input is coupled to the extension control terminal. The output of the multiplexer is coupled to the write data input of the auxiliary memory.

Abstract: Methods, apparatus, and processor-readable storage media for duplicate incident detection using a dynamic similarity threshold are provided herein. An example computer-implemented method includes obtaining a request including information associated with tracking at least a first incident in a database; generating a first representation of the first incident that encodes at least a portion of the information; computing a set of similarity scores for the first incident, where a given similarity score is based on a comparison between the first representation and a second representation generated for one of a plurality of additional incidents in the database; detecting that the first incident is a duplicate of at least one of the plurality of additional incidents based on a comparison of the set of similarity scores to a similarity threshold, where the similarity threshold is updated over time; and initiating an update in the database in response to the detecting.

Abstract: A gearbox case which includes a gear cavity breather device contained within the gearbox case to allow pressure equalization between the interior gearbox cavity and the external environment, while ensuring lubricant is kept in the gearbox. According to a preferred embodiment, the breather device contained within gearbox case may be formed as a spring-loaded ball valve to ensure external contaminants are kept out of the gearbox while allowing air to pass.

Abstract: Techniques described herein relate to intelligent migration between personal area networks (PANs) of a wireless mesh network. In one example, a method includes receiving, by a node connected to a first PAN, a packet from a second PAN. Based on the packet, the node determines that a second instability factor related to stability of the second PAN differs by at least a margin from a first instability factor related to stability of the first PAN. The node transmits, to a neighboring node in the first PAN, a migration notification message indicating that the node is migrating and receives, from the neighboring node in the first PAN, a request for the node to remain in the first PAN. The node applies one or more rules to reject the request for the node to remain in the first PAN and, based on rejecting the request, proceeds to complete the migration.

Abstract: A system for optimizing routes for time-critical messages in a mesh network is provided. For example, a child node in a mesh network can communicate with the root node through any of its parent nodes. The child node is configured to transmit regular data to the root node through a primary route associated with its primary parent. When there is a time-critical message to be transmitted to the root node, the child node estimates a round trip time (RTT) for each route between the child node and the root node. The child node selects, among its parent nodes, a parent node whose associated route has the lowest RTT and transmits the time-critical message to the root node through the selected parent node. After the transmission of the time-critical message, the child node switches back to the primary route to transmit additional regular data to the root node.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. An example backlight controller for selective backlight control of a monitor includes interface circuitry, memory, machine-readable instructions, and processor circuitry to execute the machine readable instructions to obtain a user display context relative to the monitor, the user display context based on sensor data, the sensor data to include user proximity data; determine whether to enable or disable the selective backlighting for the monitor based on the user display context; cause first backlight sections of the monitor to output at a first light intensity based on the user display context; and cause second backlight sections of the monitor to output at least one of (a) the first light intensity or (b) a second light intensity that is different than the first light intensity based on the determination.

Abstract: In some implementations, formation of loops between nodes in an RPL network may be avoided. A node that receives a neighbor-discovery message may determine, based on a parent-child status, whether the neighbor-discovery message was received from a parent of the node. If the neighbor-discovery message was received from the parent, the node may transmit an error code to the parent. In addition, the node may determine, based on a comparison of reliability rankings, whether the neighbor-discovery message was received from a node with relatively high reliability, such as a potential grandparent node. If the neighbor-discovery message was received from a high-reliability node, the node may transmit an error code to the high-reliability node. Furthermore, the node may reduce network traffic by withholding a neighbor-detection message from a child node. The node may transmit a response to neighbor-detection messages received from the child node.

Abstract: Methods, systems, and devices for rate adjustments for a memory interface are described. A host system may communicate with a memory system via an interface according to multiple data transfer rates. For example, the host system may configure the interface to operate according to a first rate. The host system may switch the interface from the first rate to a second rate in response to one or more commands from the host system satisfying one or more parameters such as a threshold quantity of data associated with a command, a threshold quantity of issued commands associated with at least the threshold quantity of data, a threshold quantity of issued and unexecuted commands, or any combination thereof. Based on the switching, the host system may communicate with the memory system via the interface in accordance with the second rate.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. An example backlight controller for dynamic backlight control of a monitor includes interface circuitry, memory, machine-readable instructions, and processor circuitry to execute the machine readable instructions to obtain a user display context relative to the monitor, the user display context based on sensor data, the sensor data to include user proximity data; determine whether to enable or disable the dynamic backlighting for the monitor based on the user display context; cause first backlight sections of the monitor to output at a first light intensity based on the user display context; and cause second backlight sections of the monitor to output at least one of (a) the first light intensity or (b) a second light intensity that is different than the first light intensity based on the determination.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. The user display context represents an area of interest on the monitor. The user display context can be based on eye tracking data, ambient light data, motion sensing data, cursor location in the display space, an image content, proximity data, or the like and any combination thereof. A first set of one or more of a plurality of backlight sections corresponding to the determined focal point of the display space can be driven to output at a first intensity level, while a second set of one or more of the plurality of backlight sections can be driven to output at a second intensity level.

Abstract: A system for optimizing routes for time-critical messages in a mesh network is provided. For example, a child node in a mesh network can communicate with the root node through any of its parent nodes. The child node is configured to transmit regular data to the root node through a primary route associated with its primary parent. When there is a time-critical message to be transmitted to the root node, the child node estimates a round trip time (RTT) for each route between the child node and the root node. The child node selects, among its parent nodes, a parent node whose associated route has the lowest RTT and transmits the time-critical message to the root node through the selected parent node. After the transmission of the time-critical message, the child node switches back to the primary route to transmit additional regular data to the root node.

Abstract: Using various embodiments, methods and systems to provide safeguard a neighborhood or community are described. In one embodiment, a system is configured to receiving a license plate data of a vehicle, fetch indices of a set of known license plate data from a schema object, where the set includes vehicle license plate information of a plurality of vehicles of a neighborhood or community. In one embodiment, the set can be represented in memory using by a binary tree in memory. The system is then configured to sort the binary tree using a tree sorting algorithm. Thereafter, a tree searching algorithm is used to determine whether the license plate data is found in the binary tree. When the license plate data is found in the binary tree, it is determined that the vehicle is known to the neighborhood or community, otherwise it is determined to be not known.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. The user display context represents an area of interest on the monitor. The user display context can be based on eye tracking data, ambient light data, motion sensing data, cursor location in the display space, an image content, proximity data, or the like and any combination thereof. A first set of one or more of a plurality of backlight sections corresponding to the determined focal point of the display space can be driven to output at a first intensity level, while a second set of one or more of the plurality of backlight sections can be driven to output at a second intensity level.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. The user display context represents an area of interest on the monitor. The user display context can be based on eye tracking data, ambient light data, motion sensing data, cursor location in the display space, an image content, proximity data, or the like and any combination thereof. A first set of one or more of a plurality of backlight sections corresponding to the determined focal point of the display space can be driven to output at a first intensity level, while a second set of one or more of the plurality of backlight sections can be driven to output at a second intensity level.

Abstract: Using various embodiments, methods and systems to provide safeguard a neighborhood or community are described. In one embodiment, a system is configured to receiving a license plate data of a vehicle, fetch indices of a set of known license plate data from a schema object, where the set includes vehicle license plate information of a plurality of vehicles of a neighborhood or community. In one embodiment, the set can be represented in memory using by a binary tree in memory. The system is then configured to sort the binary tree using a tree sorting algorithm. Thereafter, a tree searching algorithm is used to determine whether the license plate data is found in the binary tree. When the license plate data is found in the binary tree, it is determined that the vehicle is known to the neighborhood or community, otherwise it is determined to be not known.

Abstract: In some implementations, formation of loops between nodes in an RPL network may be avoided. A node that receives a neighbor-discovery message may determine, based on a parent-child status, whether the neighbor-discovery message was received from a parent of the node. If the neighbor-discovery message was received from the parent, the node may transmit an error code to the parent. In addition, the node may determine, based on a comparison of reliability rankings, whether the neighbor-discovery message was received from a node with relatively high reliability, such as a potential grandparent node. If the neighbor-discovery message was received from a high-reliability node, the node may transmit an error code to the high-reliability node. Furthermore, the node may reduce network traffic by withholding a neighbor-detection message from a child node. The node may transmit a response to neighbor-detection messages received from the child node.

Abstract: This disclosure involves neighboring node discovery in a network. For instance, a neighboring node discovery method includes receiving, at a first node, a neighbor solicitation message. The neighbor solicitation message includes an indication that a second node is a low power device and a first scheduled response time. The method also includes transmitting at the scheduled response time, by the first node, a first neighbor advertisement message. The first neighbor advertisement message includes an indication of no availability in a neighbor cache of the first node and a second scheduled respond time. Further, the method includes removing one or more nodes from the neighbor cache, and receiving, at the first node at the second scheduled response time, a second neighbor solicitation message from the second node indicating availability in the neighbor cache. Additionally, the method includes linking the first node and the second node.

Abstract: This disclosure involves neighboring node discovery in a network. For instance, a neighboring node discovery method includes receiving, at a first node, a neighbor solicitation message. The neighbor solicitation message includes an indication that a second node is a low power device and a first scheduled response time. The method also includes transmitting at the scheduled response time, by the first node, a first neighbor advertisement message. The first neighbor advertisement message includes an indication of no availability in a neighbor cache of the first node and a second scheduled respond time. Further, the method includes removing one or more nodes from the neighbor cache, and receiving, at the first node at the second scheduled response time, a second neighbor solicitation message from the second node indicating availability in the neighbor cache. Additionally, the method includes linking the first node and the second node.

Abstract: A network using a routing protocol for low-power and lossy networks (“RPL”) can provide timing information for a next destination oriented directed acyclic graph (“DODAG”) information object (“DIO”) packet by including DIO timing information in an RPL packet or a beacon. When a low energy node receives the RPL packet, it may use the DIO timing information to determine a wake time which corresponds to the timing of the next DIO packet. The low energy node may enter a sleep state after determining the wake time and remain in the sleep state until the wake time when it enters an active state and listens for the next DIO packet. Alternatively, DIO slots in a DIO slot frame may be allocated for communicating DIO packets.

Abstract: Context aware backlighting techniques include determining a focal point of a display space based on a user display context. The user display context represents an area of interest on the monitor. The user display context can be based on eye tracking data, ambient light data, motion sensing data, cursor location in the display space, an image content, proximity data, or the like and any combination thereof. A first set of one or more of a plurality of backlight sections corresponding to the determined focal point of the display space can be driven to output at a first intensity level, while a second set of one or more of the plurality of backlight sections can be driven to output at a second intensity level.