A device management system, a device management apparatus, and a network system. The device management system receives device identification information for identifying a device transmitted from the device through a communication network, acquires application identification information for identifying an application identified based on tenant information associated with the received device identification information, and transmits the application identification information to the device as identification information of the application to be installed on the device.

A data-interoperability-oriented trusted processing method and system applied to a P2P network system are provided. The P2P network system includes a plurality of nodes. The trusted processing method includes a storage method and a query method. Firstly, a directed acyclic graph ledger structure is employed to be matched with an nRW consensus mechanism during a storage process, so that a supervision problem in a large-scale sharing exchange process is solved. Secondly, in a query process, a P2P network system is optimized by maintaining a tree structure with high fault tolerance and load balance through a hop optimization method to construct the P2P network system with a relatively balanced network, so that a query delay is not greatly influenced on the premise of ensuring the load balance, and an expandability of the system is ensured.

Technology for a memory controller is described. The memory controller can receive a request to store training data. The request can include a model identifier (ID) that identifies a model that is associated with the training data. The memory controller can send a write request to store the training data associated with the model ID in a memory region in a pooled memory that is allocated for the model ID. The training data that is stored in the memory region in the pooled memory can be addressable based on the model ID.

A method and system for providing virtual interface by using star network are provided in which a multi-link for continuously connecting peers up to a maximum number of connectable peers N after scanning all peers around a dongle is formed, and when a peer exceeding the maximum number of connectable peers N among the all peers exists, a extending connection is formed such that a virtual multi-link with a new peer is formed using the dongle and an already connected peer.

Techniques are presented for removing a connection to a peer node determined to be malicious based on transactions received from the peer node.

The techniques and systems described herein implement an improved peer matching service by coordinating peer matching requests across multiple peer matching nodes configured within a peer matching unit so that resource consumption can be spread out and resource limitations are not exceeded. Moreover, the peer matching service can determine if a peer matching unit is overloaded (e.g., experiencing an increased number of requests in a given time interval that is causing performance degradation), and the peer matching service can implement an action to scale out the number of requests within the peer matching unit (e.g., re-distribute some peer matching requests to another peer matching unit). In various examples, the peer matching service can determine if peer devices are co-located peer devices based on location information and can generate a list that prioritizes the co-located peer devices.

Technology for a memory controller is described. The memory controller can receive a request to store training data. The request can include a model identifier (ID) that identifies a model that is associated with the training data. The memory controller can send a write request to store the training data associated with the model ID in a memory region in a pooled memory that is allocated for the model ID. The training data that is stored in the memory region in the pooled memory can be addressable based on the model ID.

Embodiments described herein relate to systems and methods for transmitting service related messages, e.g., via a reverse push connection. In some embodiments, a UE may be configured to receive a random value from a server, the random value based at least in part on a capacity of the server and/or network. The UE may be configured to compare the random value to a generated value, and determine, based at least in part on the comparison, to transmit a service related message over a reverse push connection rather than via a hypertext transport protocol (HTTP) request. In some embodiments, the service related message may be any message that relates to a service available between devices, such as an identity (ID) query request, a service (de-) registration request, and/or a device listing request, among other types of messages.

The invention relates to a method for collecting, by a collecting node, addresses of other network nodes located in a packet subnetwork. The collecting node transmits a collect request message to the other nodes of the subnetwork comprising at least a first parameter allowing the subnetwork to be determined. The responding node receiving the collect request message determines a response time for transmitting a response message including its address and transmits the response message at the determined response time.

The invention relates to a wireless communication method, wherein a multiple number of activated electronic portable communication devices are operatively connected to a server via wireless communication channels for performing a data processing process on data transmitted by said devices. The method comprising a step of monitoring a short range wireless connection between an activated electronic portable communication device and a smart watch worn by a person using said communication device. Further, the method comprises a step of generating, responsive to the monitoring step, a monitoring signal in the server interacting with the data processing process.