Abstract: Methods, systems, and apparatus' for optimizing network performance are described herein. A Cloud-Server may optimize one or more mesh networks of a plurality of 802.11 access points (APs) and stations (STA) connected to the APs. The Cloud-Server may work with a client steering daemon (CSD) miming on each AP. The Cloud-Server may operate in a location that is remote to the AP(s). The Cloud-Server may collect, store, and process network and client related data from one or more CSDs. The processing may include measuring network (e.g., premises) and client (e.g., STA) performance as well as analyzing (e.g., machine learning, etc.) to determine network parameters that will optimize network performance The Cloud-Server may then apply these network parameters to the relevant CSDs in order to improve per client and per network performance.

Abstract: Methods, systems, and devices for facilitating the automated configuration of one or more new 802.11 access points (APs) are disclosed herein. A cloud server may receive a message associated with a customer account for one or more new APs. The cloud server may associate a first AP of the one or more new APs based on the message. The cloud server may then retrieve a public key associated with the first AP which has a reciprocal private key. The cloud server may send the public key to a gateway (GW) associated with the customer account. The GW may encrypt the GW credentials, such as a password and SSID, into a ciphertext using the public key and then broadcast this information. When the first AP has been powered on it may decrypt the ciphertext using the private key and use the credentials to act as a node in the GW's network.

Abstract: Methods, systems, and devices for facilitating the automated configuration of one or more new 802.11 access points (APs) are disclosed herein. A cloud server may receive a message associated with a customer account for one or more new APs. The cloud server may associate a first AP of the one or more new APs based on the message. The cloud server may then retrieve a public key associated with the first AP which has a reciprocal private key. The cloud server may send the public key to a gateway (GW) associated with the customer account. The GW may encrypt the GW credentials, such as a password and SSID, into a ciphertext using the public key and then broadcast this information. When the first AP has been powered on it may decrypt the ciphertext using the private key and use the credentials to act as a node in the GW's network.

Abstract: A wireless network device may receive a broadcasted hello message. The wireless network device may determine, based on the broadcasted hello message, interfaces to communicate with neighbor devices. The wireless network device may determine costs for links of the interfaces. A highest cost link of the interfaces may be blocked and a lowest cost link of the interfaces may be unblocked. The wireless network device may transmit, in the network, an announce message that indicates the highest cost link as blocked and the lowest cost link as unblocked.

Abstract: A wireless network device may receive a broadcasted hello message. The wireless network device may determine, based on the broadcasted hello message, interfaces to communicate with neighbor devices. The wireless network device may determine costs for links of the interfaces. A highest cost link of the interfaces may be blocked and a lowest cost link of the interfaces may be unblocked. The wireless network device may transmit, in the network, an announce message that indicates the highest cost link as blocked and the lowest cost link as unblocked.

Abstract: Methods, systems, and apparatus' for optimizing network performance are described herein. A Cloud-Server may optimize one or more mesh networks of a plurality of 802.11 access points (APs) and stations (STA) connected to the APs. The Cloud-Server may work with a client steering daemon (CSD) miming on each AP. The Cloud-Server may operate in a location that is remote to the AP(s). The Cloud-Server may collect, store, and process network and client related data from one or more CSDs. The processing may include measuring network (e.g., premises) and client (e.g., STA) performance as well as analyzing (e.g., machine learning, etc.) to determine network parameters that will optimize network performance The Cloud-Server may then apply these network parameters to the relevant CSDs in order to improve per client and per network performance.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: Methods, systems, and devices for facilitating the automated configuration of one or more new 802.11 access points (APs) are disclosed herein. A cloud server may receive a message associated with a customer account for one or more new APs. The cloud server may associate a first AP of the one or more new APs based on the message. The cloud server may then retrieve a public key associated with the first AP which has a reciprocal private key. The cloud server may send the public key to a gateway (GW) associated with the customer account. The GW may encrypt the GW credentials, such as a password and SSID, into a ciphertext using the public key and then broadcast this information. When the first AP has been powered on it may decrypt the ciphertext using the private key and use the credentials to act as a node in the GW's network.

Abstract: A wireless network device may receive a broadcasted hello message. The wireless network device may determine, based on the broadcasted hello message, interfaces to communicate with neighbor devices. The wireless network device may determine costs for links of the interfaces. A highest cost link of the interfaces may be blocked and a lowest cost link of the interfaces may be unblocked. The wireless network device may transmit, in the network, an announce message that indicates the highest cost link as blocked and the lowest cost link as unblocked.

Abstract: Methods, systems, and devices for facilitating the automated configuration of one or more new 802.11 access points (APs) are disclosed herein. A cloud server may receive a message associated with a customer account for one or more new APs. The cloud server may associate a first AP of the one or more new APs based on the message. The cloud server may then retrieve a public key associated with the first AP which has a reciprocal private key. The cloud server may send the public key to a gateway (GW) associated with the customer account. The GW may encrypt the GW credentials, such as a password and SSID, into a ciphertext using the public key and then broadcast this information. When the first AP has been powered on it may decrypt the ciphertext using the private key and use the credentials to act as a node in the GW's network.

Abstract: A wireless network device may receive, over an interface, a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network. The wireless network device may transmit an announce message to unblocked hello peers of the wireless network device. The wireless network device may receive, on a wired interface from another node, a hello message. The wireless network device and the another node may each be identified as island heads based on the received hello message. The wired interface may be utilized for connecting the island heads.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: Methods, systems, and devices for facilitating the automated configuration of one or more new 802.11 access points (APs) are disclosed herein. A cloud server may receive a message associated with a customer account for one or more new APs. The cloud server may associate a first AP of the one or more new APs based on the message. The cloud server may then retrieve a public key associated with the first AP which has a reciprocal private key. The cloud server may send the public key to a gateway (GW) associated with the customer account. The GW may encrypt the GW credentials, such as a password and SSID, into a ciphertext using the public key and then broadcast this information. When the first AP has been powered on it may decrypt the ciphertext using the private key and use the credentials to act as a node in the GW's network.

Abstract: A method of enabling extended range communication between a first low power digital radio device and a second low power digital radio device via an intermediate access point; which intermediate access point has a low power digital radio interface and an other communications interface and forms part of a communication network; wherein the intermediate access point is adapted to perform a proxy function for the second low power digital radio device, thereby to enable the first low power digital radio device to send and receive data to the second low power digital radio device via the intermediate access point.

Abstract: A wireless network device may receive, over an interface, a broadcasted hello message that indicates network topology and interface information of neighbor nodes in a network. The wireless network device may transmit an announce message to unblocked hello peers of the wireless network device. The wireless network device may receive, on a wired interface from another node, a hello message. The wireless network device and the another node may each be identified as island heads based on the received hello message. The wired interface may be utilized for connecting the island heads.