Abstract: Disclosed are techniques for a device that wants to be a central device when creating a connection in a communication network such as Bluetooth Low Energy (BLE) to advertise information associated with a connection window to solicit a connection with a scanning peer device. When the scanning peer device receives the information, it may enter a connection as a peripheral device with the advertising device at the advertised connection window, allowing the advertising device to become the central device. Disclosed are also techniques for a device that wants to be a central device to advertise information associated with a scan window of the device to solicit a directed advertisement event from a peer device during the advertised scan window. The peer device initially scans but may advertise during the scan window as advertised to enable the central device to create a connection where the peer device becomes a peripheral device.

Abstract: Implementations disclosed describe techniques and systems to facilitate efficient operations of wireless networks organized in a topology of communicating nodes. Techniques include cascade synchronization of various nodes of the network by generating and maintaining a common time using times associated with ordered communications between nodes. The common time maintained by the network allows performance of synchronous action for precise industrial, medical, and testing applications. The described techniques and systems further include management of communication windows between different nodes in a way that facilitates fast and efficient propagation of data collected by the network from multiple source nodes to one or more destination nodes.

Abstract: A battery management system includes: a battery management unit; battery management integrated circuits (ICs) configured to receive measurement data from battery modules; a first wireless communication device configured as a primary aggregator to receive wireless transmissions of the measurement data from the battery management ICs and communicate the measurement data received by the first wireless communication device to the battery management unit; and a second wireless communication device configured as a secondary aggregator to monitor the wireless transmissions of the measurement data from the battery management ICs to the primary aggregator and communicate the measurement data received by the second wireless communication device to the battery management unit. The battery management unit is configured to manage the battery modules based on the measurement data provided to the battery management unit.

Abstract: Implementations disclosed describe techniques and systems to facilitate efficient operations of wireless networks organized in a topology of communicating nodes. Techniques include cascade synchronization of various nodes of the network by generating and maintaining a common time using times associated with ordered communications between nodes. The common time maintained by the network allows performance of synchronous action for precise industrial, medical, and testing applications. The described techniques and systems further include management of communication windows between different nodes in a way that facilitates fast and efficient propagation of data collected by the network from multiple source nodes to one or more destination nodes.

Abstract: Implementations disclosed describe techniques and systems to facilitate efficient operations of wireless networks organized in a topology of communicating nodes. Techniques include cascade synchronization of various nodes of the network by generating and maintaining a common time using times associated with ordered communications between nodes. The common time maintained by the network allows performance of synchronous action for precise industrial, medical, and testing applications. The described techniques and systems further include management of communication windows between different nodes in a way that facilitates fast and efficient propagation of data collected by the network from multiple source nodes to one or more destination nodes.

Abstract: Implementations disclosed describe techniques and systems to facilitate efficient operations of wireless networks organized in a topology of communicating nodes. Techniques include cascade synchronization of various nodes of the network by generating and maintaining a common time using times associated with ordered communications between nodes. The common time maintained by the network allows performance of synchronous action for precise industrial, medical, and testing applications. The described techniques and systems further include management of communication windows between different nodes in a way that facilitates fast and efficient propagation of data collected by the network from multiple source nodes to one or more destination nodes.

Abstract: Integrated Bandwidth Latency Scheduler apparatus, method and system (collectively, IBLS) combines Fair Queuing and Priority Schedulers in a single stage to provide bandwidth fairness guarantees as well as latency prioritization. The IBLS includes a scheduler and process that dequeues packets from multiple queues in an order based upon an algorithm of the IBLS that arranges and dequeues those queues having the highest priority based on content therein. The IBLS also utilizes quotas and deficit counters to ensure that packets from each source receive their fair portion of the outgoing link bandwidth. To determine which first in first out queue an incoming data packet is placed, the enqueue agent utilized by the present invention classifies incoming packets based on the type of data included within the data packet, the source of the packet, the type of data flow, or another attribute of the packet, such as a header associated with the packet.

Abstract: Integrated Bandwidth Latency Scheduler apparatus, method and system (collectively, IBLS) combines Fair Queuing and Priority Schedulers in a single stage to provide bandwidth fairness guarantees as well as latency prioritization. The IBLS includes a scheduler and process that dequeues packets from multiple queues in an order based upon an algorithm of the IBLS that arranges and dequeues those queues having the highest priority based on content therein. The IBLS also utilizes quotas and deficit counters to ensure that packets from each source receive their fair portion of the outgoing link bandwidth. To determine which first in first out queue an incoming data packet is placed, the enqueue agent utilized by the present invention classifies incoming packets based on the type of data included within the data packet, the source of the packet, the type of data flow, or another attribute of the packet, such as a header associated with the packet.