Techniques including controlling coupling and uncoupling of RF ports included in an RF switch matrix including first-side RF ports and second-side RF ports, where each of the first-side RF ports is configured to be selectively coupled to at least one of two or more of the second-side RF ports, identifying one or more of the second-side RF ports as active ports including an active port, causing the RF switch matrix to couple the active port to a signal port included in the first-side RF ports, obtaining at least one of a bit error rate and a signal to noise ratio for a demodulation of an RF stream received via the active port, and causing, in response to at least one of the bit error rate or the signal to noise ratio, the RF switch matrix to couple the signal port to a spare port included in the second-side RF ports.

Techniques including controlling coupling and uncoupling of RF ports included in an RF switch matrix including first-side RF ports and second-side RF ports, where each of the first-side RF ports is configured to be selectively coupled to at least one of two or more of the second-side RF ports, identifying one or more of the second-side RF ports as active ports including an active port, causing the RF switch matrix to couple the active port to a signal port included in the first-side RF ports, obtaining at least one of a bit error rate and a signal to noise ratio for a demodulation of an RF stream received via the active port, and causing, in response to at least one of the bit error rate or the signal to noise ratio, the RF switch matrix to couple the signal port to a spare port included in the second-side RF ports.

A system and a method for managing aircraft operation, the system including: at least one aircraft (6.4-6.6), preferably multiple aircraft; at least one landing site (2) for said aircraft, preferably multiple landing sites; a communication system for transmitting a first signal (S1) indicative of at least a current state of the at least one landing site to the at least one aircraft and for receiving the first signal at the aircraft; an additional ground-based device for emitting a second signal (S2), which second signal is dependent from a current state of the at least one landing site; and an additional signal receiving device onboard said at least one aircraft for receiving the second signal; wherein the system is configured to perform landing of the at least one aircraft at the at least one landing site based on the first signal and on the second signal; the first signal preferably including at least one of a number and a state of individual landing zones at the at least one landing site, landing instructions, and, in the case of multiple landing sites within the system, potential alternative landing sites.

The purpose of the present invention is to provide a method for increasing data transmission efficiency when performing packet duplication. A method for a terminal in a wireless communication system according to the present invention comprises the steps of: performing protocol data convergence protocol (PDCP) duplication in which an identical PDCP protocol data unit (PDU) is transmitted to a base station through each of a first logical channel and a second logical channel; when a request for retransmission of the PDCP PDU which has been transmitted through the second logical channel is received from the base station, retransmitting the PDCP PDU to the base station; and when the PDCP PDU has been retransmitted a predetermined number of times or more, receiving, from the base station, information indicating deactivation of the PDCP duplication.

The purpose of the present invention is to provide a method for increasing data transmission efficiency when performing packet duplication. A method for a terminal in a wireless communication system according to the present invention comprises the steps of: performing protocol data convergence protocol (PDCP) duplication in which an identical PDCP protocol data unit (PDU) is transmitted to a base station through each of a first logical channel and a second logical channel; when a request for retransmission of the PDCP PDU which has been transmitted through the second logical channel is received from the base station, retransmitting the PDCP PDU to the base station; and when the PDCP PDU has been retransmitted a predetermined number of times or more, receiving, from the base station, information indicating deactivation of the PDCP duplication.

The present application relates to a wireless communication system. More specifically, the present application relates to a method and a device for semi-persistent scheduling transmission using HARQ process IDs. Specifically, a sequential order in a HARQ process ID set is used. The communication device is capable of communicating with at least one of another device, a device related to an autonomous driving vehicle, a base station or a network.

A method and a system for fault-correcting transfer of a dataset from a first network into a second network via a unidirectional communication unit, the receiving apparatus having a limited computing and main memory capacity is provided. The dataset is divided into partial datasets and are each coded by adding at least one correction mark. The marks and correction marks are decoded repeatedly in the second network, wherein marks and correction marks associated with a first encoded partial dataset are stored in a main memory, marks and correction marks associated with other encoded partial datasets are buffered in a background memory, and the first coded partial dataset is decoded, and then the previously received marks and/or correction marks of one of the other coded partial datasets are shifted from the background memory into the main memory. The dataset is reproduced from the decoded partial datasets in the second network.

A method and a system for fault-correcting transfer of a dataset from a first network into a second network via a unidirectional communication unit, the receiving apparatus having a limited computing and main memory capacity is provided. The dataset is divided into partial datasets and are each coded by adding at least one correction mark. The marks and correction marks are decoded repeatedly in the second network, wherein marks and correction marks associated with a first encoded partial dataset are stored in a main memory, marks and correction marks associated with other encoded partial datasets are buffered in a background memory, and the first coded partial dataset is decoded, and then the previously received marks and/or correction marks of one of the other coded partial datasets are shifted from the background memory into the main memory. The dataset is reproduced from the decoded partial datasets in the second network.

An electronic device includes a sensor unit, a first CPU, and a second CPU. A first management unit functioning in the first CPU manages first information related to cumulative information acquired by the sensor unit. A second management unit functioning in the second CPU manages second information related to the cumulative information. One of the first management unit and the second management unit outputs a corresponding one of the first and second information related to the cumulative information managed by the one management unit to the other management unit according to switching of an operating state of the first CPU, and the other management unit continues management of the corresponding other of the first and second information related to the cumulative information based on the corresponding one of the first and second information related to the cumulative information output from the one management unit.

An electronic device includes a sensor unit, a first CPU, and a second CPU. A first management unit functioning in the first CPU manages first information related to cumulative information acquired by the sensor unit. A second management unit functioning in the second CPU manages second information related to the cumulative information. One of the first management unit and the second management unit outputs a corresponding one of the first and second information related to the cumulative information managed by the one management unit to the other management unit according to switching of an operating state of the first CPU, and the other management unit continues management of the corresponding other of the first and second information related to the cumulative information based on the corresponding one of the first and second information related to the cumulative information output from the one management unit.