According to examples, an apparatus may include a processor and a non-transitory computer readable medium on which is stored instructions that the processor may execute to determine whether to modify a transmission rate at which time series data is transmitted to a remote computer. The determination is based on a prediction of the time series data.

According to examples, an apparatus may include a processor and a non-transitory computer readable medium on which is stored instructions that the processor may execute to determine whether to modify a transmission rate at which time series data is transmitted to a remote computer. The determination is based on a prediction of the time series data.

An interface conversion device connects the devices having the different interfaces, and it is possible to appropriately transmit and receive data from one device to the other device.

The interface conversion device 30 comprises a first transmission/reception part 12 connected to a first interface 2, a second transmission/reception part 13 connected to a second interface 4, a data storage part 33 that stores data transmitted from and the second transmission/reception part 13, an information conversion part 11 that adapts the data conforming to the second interface 4 to the first interface 2, a first information acquisition part 31 that acquires the information related to the data transmission speed of the first interface 2, a second information acquisition part 32 that acquires the information related to the data transmission speed of the second interface 4, a transmission speed management part 35 that determines the optimum data transmission speed related to the second interface 4 based on the information acquired by the first information acquisition part 31 and the second information acquisition part 32.

An interface conversion device connects the devices having the different interfaces, and it is possible to appropriately transmit and receive data from one device to the other device.

The interface conversion device 30 comprises a first transmission/reception part 12 connected to a first interface 2, a second transmission/reception part 13 connected to a second interface 4, a data storage part 33 that stores data transmitted from and the second transmission/reception part 13, an information conversion part 11 that adapts the data conforming to the second interface 4 to the first interface 2, a first information acquisition part 31 that acquires the information related to the data transmission speed of the first interface 2, a second information acquisition part 32 that acquires the information related to the data transmission speed of the second interface 4, a transmission speed management part 35 that determines the optimum data transmission speed related to the second interface 4 based on the information acquired by the first information acquisition part 31 and the second information acquisition part 32.

A data transmission method includes receiving, by a user plane function entity, a data packet from a first terminal through an uplink path corresponding to the first terminal, where the data packet carries addressing information of a second terminal; determining, by the user plane function entity based on information about the uplink path corresponding to the first terminal and the addressing information of the second terminal, a downlink path corresponding to the second terminal; and sending, by the user plane function entity, the data packet to the second terminal through the downlink path corresponding to the second terminal.

An aspect of the present disclosure relates to using at least one service-level objective (SLO) to control data communications between two or more devices over a network. In embodiments, a notification is received by a source device. The notification can include status information of at least one of a plurality of communication paths between the source device and a target device. A communications control technique can be performed based on the indicated status. The communications control technique can include prioritizing one or more data packets based on a data payload corresponding to each packet. The technique can also include controlling the transmission of one or more data packets based on each data packet's priority.

A method includes establishing digital communication between a first user device and a second user device using a first codec. The method also includes selecting, based on an input signal representing an estimated unfiltered available bandwidth for the digital communication satisfying a first filter selection threshold, a first filter of two or more filters, and filtering the input signal using the first filter. The method further includes determining that the filtered input signal satisfies a first channel bandwidth threshold and, in response to determining that the filtered input signal satisfies the channel bandwidth threshold, selecting a second codec different from the first codec for further digital communication between the first user device and the second user device.

A solution is proposed for controlling invocations of a target component by multiple source components in a software application. A corresponding method comprises associating a plurality of source components in a software application with one or more corresponding source rates for invoking a target component in the software application; monitoring corresponding invocations of the target component by a number of instances of the plurality of source components; receiving an enablement request for a new invocation of the target component from a current instance of a current source component; verifying an enablement of the new invocation; estimating a serving probability indicative of a residual capability of the target component to serve the new invocation; and enabling the new invocation according to the serving probability.

A method includes determining a delivery performance of a data flow being transmitted from a first network equipment to a second network equipment over a network; determining whether the network is congested based on the determined delivery performance of the data flow being transmitted to the second network equipment; and pacing delivery of the data flow to the second network equipment by reducing a rate at which the data flow is delivered to the second network equipment when the network is determined to be congested.

Apparatus and methods are disclosed for implementing bandwidth throttling to regulate network traffic as can be used in, for example, vulnerability scanning and detection applications in a computer network environment. According to one embodiment, a method of routing network packets in a networked device having plural network interfaces combines applying traffic class and network interface throttling for marking network packets with a differentiated service code based on input received from a profiler application, throttling the bandwidth of network packets based on a threshold for a designated network interface for the packet, throttling the bandwidth of the bandwidth-throttled packets based on a threshold for its respective differentiated service code, and emitting network packets on each respective designated network interface.