Systems and methods provide secure, end-to-end high-speed data encoding and communication. In certain embodiments, this is accomplished by modifying a header portion of a data packet received from a first device and complying with a one Mobile Industry Processor Interface (MIPI) protocol to create a modified data packet that complies with a faster MIPI protocol. The header portion of the modified data packet is validated during a tunnel mode operation using an error detection process to validate the modified data packet, which can then be securely transmitted to a second device that complies with the faster MIPI protocol.

Providing TCP/IP control commands to a storage system includes intercepting TCP/IP data provided on a TCP/IP network, determining if the TCP/IP data corresponds to a control command directed to the storage system, and converting the TCP/IP data to a Fibre Channel control command that is forwarded to the storage system if the TCP/IP data is a control command directed to the storage system. A host may intercept the TCP/IP data. The host may be coupled to the storage system. The storage system may have only Fibre Channel connectivity. A PC having only TCP/IP connectivity may provide the control commands via the TCP/IP network. At least two hosts may be coupled to the TCP/IP network. Software on one of the hosts may provide the control commands for the storage system. The storage system may be coupled to an other one of the hosts.

Systems, devices, and methods are disclosed for an agent device within a company's network firewall to initiate an HTTP connection with a cloud-based gateway and then upgrade the connection to a WebSockets protocol in order to have an interactive session. Over this interactive session, a mobile device, which connects to the cloud-based intermediary, can request data from servers inside the company's firewalls. Because the firewall is traversed using HTTP protocols (with WebSockets), it can be as safe as letting employees browse the web from inside the company's network.

A relay device communicably connects an upper-level air conditioning system and a lower-level air conditioning system that use different protocols. An upper-side communicator is connected to a first bus, and transmits and receives communication packets to and from the upper-level air conditioning system. A lower-side communicator is connected to an outdoor device that is a master device, and transmits and receives communication commands to and from the lower-level air conditioning system. An association information memory stores association information obtained by associating an address in the upper-level air conditioning system allocated to each device in the lower-level air conditioning system with identification information on each device in the lower-level air conditioning system. A processor performs a mutual conversion on the communication packets and the communication commands based on the association information stored in the association information memory.

There is provided a network device for processing data packets transmitted between nodes of a network, the network device to intercept data packets of a first traffic class transmitted by a first network node and addressed to a second network node, convert the intercepted data packets into data packets of a second traffic class, and transmit the converted data packets to the second network node.

A method and system for demultiplexing packets of a message is provided.

The demultiplexing system receives packets of a message, identifies a sequence of message handlers for processing the message, identifies state information associated with the message for each message handler, and invokes the message handlers passing the message and the associated state information. The system identifies the message handlers based on the initial data type of the message and a target data type. The identified message handlers effect the conversion of the data to the target data type through various intermediate data types.

The present invention claims a TR069 protocol management method oriented to a WIA-PA network, where a traditional TR069 network management system architecture is improved to extend a TR069 protocol only oriented to Internet terminal device management in an initial design from the Internet to a WIA-PA wireless sensor network; a session connection interaction process between an ACS and a CPE is expanded to establish a session connection between the ACS and a WIA-PA network node; a virtual device mechanism is designed by taking a WIA-PA network gateway as the CPE to store a TR069 data model and proxy device information corresponding to a WIA-PA data model and implement the TR069 protocol to manage the WIA-PA network node in a manner as simple and transparent as that for an interaction between the ACS and the common CPE; a management data model mapping mechanism is designed to establish a correlation from the WIA-PA data model described in TR069 to a standard WIA-PA data model; and a protocol conversion interlace is designed to implement the conversion between a TR069 RPC method and a WIA-PA network management command frame. The TR069 protocol management method has a good reference value for the implementation of the M2M management of the whole network as well as the application and development of the TR069 protocol oriented to the wireless sensor network.

A computing system for electronically managing a token across multiple computer networks is described. The computing system includes a processor in communication with at least one memory device. The processor is programmed to generate a token associated with a payment account, the token having a format that simulates a format of a checking account identifier, and receive a payment request including the token, the payment request processed over a first network. The processor is also programmed to apply a set of rules to the payment request, determine that the payment request satisfies the set of rules, and convert the token into a payment account identifier using the set of rules. The processor is further programmed to transmit an authorization request message to a second network, receive authorization of the authorization request message from the second network, and provide authorization of the payment request to the first network.

A computing system for electronically managing a token across multiple computer networks is described. The computing system includes a processor in communication with at least one memory device. The processor is programmed to generate a token associated with a payment account, the token having a format that simulates a format of a checking account identifier, and receive a payment request including the token, the payment request processed over a first network. The processor is also programmed to apply a set of rules to the payment request, determine that the payment request satisfies the set of rules, and convert the token into a payment account identifier using the set of rules. The processor is further programmed to transmit an authorization request message to a second network, receive authorization of the authorization request message from the second network, and provide authorization of the payment request to the first network.

Examples disclosed herein involve receiving a request from a calling device to establish a communication session between a mobile device and the calling device, the mobile device assigned a virtual telephone number, retrieving location information corresponding to a location of the mobile device from a location register, and sending a redirect to a session border controller (SBC) to establish the communication session between the calling device and the mobile device based on the location information.