Abstract: A device, a method, and a non-transitory computer readable medium for distributing content to a plurality of nodes on a computer network are disclosed. The method includes dividing the content into a plurality of information groups, each of the information groups including a mutually exclusive subset of information pieces of the content, encoding the information pieces included in each of the plurality of information groups based on a combination of the information pieces included in the respective information group and a plurality of coefficients associated with the information pieces included in the respective information group, and distributing the encoded information pieces to the plurality of nodes on the computer network, wherein each of the information pieces is encoded into one of three types of information pieces.

Abstract: A device, a method, and a non-transitory computer readable medium for distributing content to a plurality of nodes on a computer network are disclosed. The method includes dividing the content into a plurality of information groups, each of the information groups including a mutually exclusive subset of information pieces of the content, encoding the information pieces included in each of the plurality of information groups based on a combination of the information pieces included in the respective information group and a plurality of coefficients associated with the information pieces included in the respective information group, and distributing the encoded information pieces to the plurality of nodes on the computer network, wherein each of the information pieces is encoded into one of three types of information pieces.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: A device, method, and non-transitory computer readable medium that determine a reliability level for a communication network. A packet delivery ratio (PDR) is determined for a round period of the communication network operating at an adaptive reliability level based on a packet serial number (PSN). The communication network is controlled in a best effort mode, a reliable mode, or a switching mode based on the PDR.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: Aspects of the disclosure provide a wireless node in a wireless network with a grid topology for routing a message. The wireless node includes circuitry configured to receive a message including a destination node identification number, calculate a destination column and a destination row based on the destination node identification number, determine a next hop address based on the destination column and the destination row, and transmit the message including the next hop address to a next hop node.

Abstract: A device, method, and non-transitory computer readable medium that determine a reliability level for a communication network. A packet delivery ratio (PDR) is determined for a round period of the communication network operating at an adaptive reliability level based on a packet serial number (PSN). The communication network is controlled in a best effort mode, a reliable mode, or a switching mode based on the PDR.

Abstract: Smart elevator systems and methods for controlling an elevator system use sensors that transmit data to a processor in a network system for use in operating an elevator system. The elevator system can include a system connected to a LAN, WAN, intranet, internet, etc. and is capable of exchanging data with and retrieving data therefrom. In the smart elevator systems, there are a number of wireless sensors that detect and transmit information on a number of people requesting elevator transport. The smart elevator system uses that information to select or determine one or more transport paths for one or more elevators to follow and, therefore, can be beneficial in enhancing efficient use of one or more elevators in an elevator system to service persons awaiting elevator service.

Abstract: The sand and dust storm detection method utilizes a hybrid design of a sand and dust storm detection system (SDSDS) having a wireless sensor network (WSN) and a satellite imaging system that detects sand and dust storm events of all types. A layered architecture of context-aware middleware is used. While the WSN provides real time data from the area of interest, near-real time METEOSAT MSG images are obtained from the METEOSAT web site.

Abstract: The recursive time synchronization protocol method for wireless sensor networks provides a modified and extended RTSP method to make it work with clustered networks. In case of non-clustered or flat network, each node is assumed to be a clusterhead in order to run the RTSP method correctly. The RTSP method involves the election of a reference node, and compensation for offset and drift. Simulation results show that the extended RTSP method further improves the accuracy and energy consumption, i.e., it can provide an average accuracy of 0.23 ?s in a large multi-hop clustered network while using only 1/7th of the energy consumed by FTSP in the long run.

Abstract: The coverage, connectivity and communication (C3) protocol method for wireless sensor networks is an integrated and energy-efficient protocol for Coverage, Connectivity and Communication (C3) in WSNs. The C3 protocol uses RSSI to divide the network into virtual rings, defines clusters with clusterheads more probably at alternating rings, defines dings, which are rings inside a cluster, uses triangular tessellation to identify redundant nodes, and communicates data to sink through clusterheads and gateways. The protocol strives for near-optimal deployment, load balancing, and energy-efficient communication. Simulation results show that the C3 protocol ensures partial coverage of more than 90% of the total deployment area, ensures 1-connected network, and facilitates energy-efficient communication, while expending only ¼th of the energy compared to other related protocols.

Abstract: Smart elevator systems and methods for controlling an elevator system use sensors that transmit data to a processor in a network system for use in operating an elevator system. The elevator system can include a system connected to a LAN, WAN, intranet, interne, etc. and is capable of exchanging data with and retrieving data therefrom. In the smart elevator systems, there are a number of wireless sensors that detect and transmit information on a number of people requesting elevator transport. The smart elevator system uses that information to select or determine one or more transport paths for one or more elevators to follow and, therefore, can be beneficial in enhancing efficient use of one or more elevators in an elevator system to service persons awaiting elevator service.

Abstract: The recursive time synchronization protocol method for wireless sensor networks provides a modified and extended RTSP method to make it work with clustered networks. In case of non-clustered or flat network, each node is assumed to be a clusterhead in order to run the RTSP method correctly. The RTSP method involves the election of a reference node, and compensation for offset and drift. Simulation results show that the extended RTSP method further improves the accuracy and energy consumption, i.e., it can provide an average accuracy of 0.23 ?s in a large multi-hop clustered network while using only 1/7th of the energy consumed by FTSP in the long run.

Abstract: The sand and dust storm detection method utilizes a hybrid design of a sand and dust storm detection system (SDSDS) having a wireless sensor network (WSN) and a satellite imaging system that detects sand and dust storm events of all types. A layered architecture of context-aware middleware is used. While the WSN provides real time data from the area of interest, near-real time METEOSAT MSG images are obtained from the METEOSAT web site.

Abstract: The coverage, connectivity and communication (C3) protocol method for wireless sensor networks is an integrated and energy-efficient protocol for Coverage, Connectivity and Communication (C3) in WSNs. The C3 protocol uses RSSI to divide the network into virtual rings, defines clusters with clusterheads more probably at alternating rings, defines dings, which are rings inside a cluster, uses triangular tessellation to identify redundant nodes, and communicates data to sink through clusterheads and gateways. The protocol strives for near-optimal deployment, load balancing, and energy-efficient communication.