A system for handling 3 dimensional spatial information, the system including: a specialised application layer for the production of visual interactive applications associated with the 3 dimensional spatial information; a generic foundation client layer providing 3 dimensional spatial information interrogation routines, including a message passing interface; and a voxel server for interconnected to said generic foundation client via said message passing interface for the storage of 3 dimensional spatial information as a voxel data base.

A self-organizing distributed network architecture is described. An example method includes, by a network node, sending via a network gateway node a DNS lookup request to a DNS service. The DNS lookup request comprises a string that at least includes a MAC address of the network gateway node that is used by the DNS service to identify a network address for the network node to access the network service of interest. The method further includes receiving via the network gateway node a DNS lookup response from the DNS service. The DNS lookup response comprises the network address for the network node to access the network service of interest. The method further includes accessing the network service of interest from another network node in the network system that is addressable by the received network address.

Disclosed are a method for automatically adjusting an SUPL protocol, and a storage medium and a mobile terminal. The method comprises the steps of: storing different versions of an SUPL protocol in a mobile terminal in advance, and when a change in an accessed auxiliary positioning server is detected, configuring an SUPL protocol, the version of which corresponds to the current auxiliary positioning server, for the mobile terminal. The problem in the prior art of an SUPL protocol configured for a mobile terminal being unable to automatically match different auxiliary positioning servers is solved.

Disclosed are a method and a device for automatically implementing IOAM encapsulation, and a storage medium. The method comprises: sending, at an IOAM ingress node, a first message carrying IOAM configuration request information to an IOAM centralized configuration point; receiving, at the IOAM ingress node, a second message carrying IOAM configuration information of IOAM transmission nodes sent from the IOAM centralized configuration point; and performing, at the IOAM ingress node, IOAM encapsulation on a service data message according to the IOAM configuration information of the IOAM transmission nodes.

A network application program product and a method for processing an application layer protocol are provided. The network application program product includes a network application program executed in a user mode and a packet filtering module executed in a kernel mode. The network application program transmits connection information, associated with network connection to the network application program, to the packet filtering module. The packet filtering module captures a to-be-processed packet on the network connection according to the connection information; analyzes the to-be-processed packet into at least one protocol data unit; compares the protocol data unit with preset code content; and transmits the protocol data unit to the network application program or the data access module according to the comparison result for later processing.

The invention proposes a method of encoding data packet by encoding type information and size information of said data packet into the same field. The invention also proposes a method of processing data packets received. The data packet comprises a header part and a message part. The header part comprises at least one bit for indicating the type of said data packet, said method comprising a step (101) of obtaining the size information of said data packet based on said at least one bit.

A technique for providing reliable wireless communication between a robot (104) and a robot controller (102) in a cloud robotics system is disclosed. A method implementation of the technique is performed by a primary connectivity component (106) supporting multipath transmission over a plurality of wireless transmission paths to establish connectivity between the robot (104) and the robot controller (102). The method comprises triggering determining (S402) a robot sensitivity value indicating a degree of operation sensitivity of the robot (104) to a transmission failure between the robot (104) and the robot controller (102), and triggering configuring (S404) use of one or more of the plurality of wireless transmission paths for communication between the robot (104) and the robot controller (102) depending on the determined robot sensitivity value.

A single platform for controller functionality for each of security, monitoring and automation, as well as providing a capacity to function as a bidirectional Internet gateway, is provided. Embodiments of the present invention provide such functionality by virtue of a configurable architecture that enables a user to adapt the system for the user's specific needs. Embodiments of the present invention further provide such functionality by providing for installation of removable, modular communication adapters for communication with a variety of devices external to the security, monitoring and automation controller.

System, apparatus, methods, and computer-readable medium for generating a verification code related to a registry operation request are provided. A verification process may be performed to determine if a verification request related to a registry operation is to be approved. If the request is to be approved, a verification code is generated that includes identifying information of a verification service provider and a code indicating that the request has been verified.

Embodiments include a device comprising an interface module for interfacing with proprietary legacy systems. The interface module comprises a data interface for interfacing with a processing component of the legacy system, where the processing component uses a proprietary protocol for processing data of the legacy system. The interface module includes a protocol module that comprises a protocol corresponding to the proprietary protocol of the legacy system, and the interface module uses the protocol to exchange data with the processing component. The interface module includes a communication device that communicates with a remote system via a wireless channel. The interface module controls communications that include passing commands from the remote system to the legacy system, and passing event data of the legacy system to the remote system.