A data transmission method, an apparatus, and a system are provided to optimize a data transmission manner in an intelligent cockpit scenario, and relate to the short-range communications field. In this application, a first communications apparatus may indicate, to a second communications apparatus, a first service and a first resource corresponding to the first service. When the second communications apparatus needs to send first data of the first service, a media access control layer of the second communications apparatus may transparently transmit the data of the first service. Correspondingly, when the first communications apparatus receives the first data of the first service, a media access control layer of the first communications apparatus transparently transmits the first data.

A data transmission method, an apparatus, and a system are provided to optimize a data transmission manner in an intelligent cockpit scenario, and relate to the short-range communications field. In this application, a first communications apparatus may indicate, to a second communications apparatus, a first service and a first resource corresponding to the first service. When the second communications apparatus needs to send first data of the first service, a media access control layer of the second communications apparatus may transparently transmit the data of the first service. Correspondingly, when the first communications apparatus receives the first data of the first service, a media access control layer of the first communications apparatus transparently transmits the first data.

Embodiments of this application disclose a packet processing method and a related device, which may be applied to a mobile communications network. A first network device generates a first packet, where a packet header of the first packet carries application information; the first network device sends the first packet to a second network device; and the second network device provides a network service based on the application information in the packet header of the first packet. Because the second network device can identify the application information in the packet header of the first packet, and provide the corresponding network service based on the application information, differentiated network services are implemented, and a fine granularity of the network services is improved.

Disclosed is an invention for methods, processes and systems that, among its enabling features and benefits, enhance retrieval of relevant information over a communication network. For instance, methods, processes and systems for performing annotation of digital information are provided. One method includes searching for items of interest using a search engine. Once the URIs associated with the item of interest are identified, a plurality of attributes are provided that may be associated with each URI. A user may provide the values for the attributes or the system may suggest values for the attributes based on information associated with each URI. Once the attributes and values are assigned, the annotated URI along with the attributes and values is stored. Another method provides for sharing of the annotated information. A user may communicate annotated information to an external storage system for sharing with other users having access to the external storage system. Another method provides for automatic updates of the annotation entries by periodically fetching the digital information associated with each URI and updating the values associated with each attribute. In addition, a system, method or process may provide a more reliable, inclusive, or otherwise effective way of collecting or identifying quality reviews for products, services, and sellers. Furthermore, a system, method or process may enable or otherwise enhance generation of actionable information for online shopping or comparative shopping. Furthermore, according to one embodiment, an interface or protocol that a computer uses to communicate with other computers is associated with a subject matter context. User-level contents or digital resources received across that interface or protocol are then associated with that subject matter context, and the computer may respond accordingly. For instance, a computer may associate a given network port with a subject matter context of shopping, and treat all digital resource requests received on that port as applying to only a shopping subject matter context. A web server may also listen on a network port associated with a subject matter context, thereby contextualizing the overall nature of the web site that the web server hosts.

A communication apparatus for selecting a plurality of messages each including destination information indicating a common transmission destination from among a plurality of messages each including destination information indicating a transmission destination, a first generation unit configured to generate a plurality of transmission packets corresponding to the messages selected, in a batch, and a second generation unit configured to generate a transmission packet corresponding to a message not selected among the plurality of messages.

Allocating network resources to one or more signals that are to be conveyed over the network by calculating a transport capacity for a sublink of the network based on a spectral efficiency of at least one subpath included in the sublink, and allocating the sublink to at least one signal based on the calculated transport capacity.

Allocating network resources to one or more signals that are to be conveyed over the network by calculating a transport capacity for a sublink of the network based on a spectral efficiency of at least one subpath included in the sublink, and allocating the sublink to at least one signal based on the calculated transport capacity.

The present disclosure relates to a transmitting device for transmitting vehicular data via a sidelink interface to one or more receiving devices. The transmitting device performs autonomous radio resource allocation for transmitting the vehicular data via the sidelink interface. An application layer generates the vehicular data and forwards the vehicular data together with a priority indication and one or more quality of service parameters to a transmission layer responsible for transmission of the vehicular data via the sidelink interface. The transmission layer performs autonomous radio resource allocation based on the received priority indication and the one or more quality of service parameters. The transmission layer transmits the vehicular data via the sidelink interface to the one or more receiving devices according to the performed autonomous radio resource allocation.

The present disclosure relates to a transmitting device for transmitting vehicular data via a sidelink interface to one or more receiving devices. The transmitting device performs autonomous radio resource allocation for transmitting the vehicular data via the sidelink interface. An application layer generates the vehicular data and forwards the vehicular data together with a priority indication and one or more quality of service parameters to a transmission layer responsible for transmission of the vehicular data via the sidelink interface. The transmission layer performs autonomous radio resource allocation based on the received priority indication and the one or more quality of service parameters. The transmission layer transmits the vehicular data via the sidelink interface to the one or more receiving devices according to the performed autonomous radio resource allocation.

A method is disclosed for providing network access by a network stack in a communication device comprising a plurality of physical communication interfaces, each comprising a data link layer for the exchange of data frames with remote communication devices and a data link layer interface for exchanging data of data frames between the data link layer and higher layers in the network stack; and wherein the method comprises i) providing an abstraction data link layer comprising a single abstracted data link layer interface such that the plurality of physical communication interfaces appear as a single data link layer interface to the higher layers; and ii) obtaining network packets from the higher layers and distributing the network packets over the plurality of physical communication interfaces according to a neutral packet distribution scheme.