Abstract: The present invention relates to a wireless communication system. More particularly, the present invention relates to a method and to an apparatus for transmitting an SRS in a multi-antenna system. The method comprises the steps of: acquiring specific information for discriminating a first antenna group and a second antenna group from among a plurality of antennas, wherein said first antenna group includes one or more antennas which are set to a turned-on state to perform communication with a base station, and said second antenna group includes one or more other antennas which are set to a turned-off state; transmitting an SRS to the base station if a predetermined condition is satisfied, under the condition that the second antenna group is set to the turned-off state; and setting the second antenna group to a turned-off state after the transmission of the SRS.

Abstract: A method of a terminal may be provided for transmitting an RLC status protocol data unit (PDU). The method may include receiving an RLC data unit from a base station, configuring the RLC status PDU indicating whether the RLC data unit is received, where the RLC status PDU includes at least one of a negative acknowledgement (NACK) sequence number field and a NACK range field; and transmitting the RLC status PDU to the base station.

Abstract: In an aspect of the disclosure, a method, a computer-readable medium, and an apparatus are provided. The apparatus may be a first node. The first node receives a first packet from a second node. The first node determines that the first packet is a query packet requesting a response packet and associated with a first transaction. The first node determines that the first node is a first next hop node associated with the first packet. The first node determines that the query packet includes an indication for a local exploration. The first node delays further routing the first packet.

Abstract: Methods and apparatuses for multiplexing channel state information (CSI). A user equipment (UE) includes a transceiver configured to receive configuration information for CSI reporting. The UE further includes a processor configured to decode the configuration information and calculate a CSI according to the configuration information. The transceiver is further configured to transmit the calculated CSI on an uplink (UL) channel. The CSI includes N segments and is transmitted in one slot, where N>1. A first of the N segments includes a rank indicator (RI) and at least one other CSI parameter. A base station (BS) includes a processor configured to generate configuration information for CSI reporting. The BS further includes a transceiver configured to transmit, to a UE, the configuration information via a downlink (DL) channel; and receive, from the UE, a CSI report calculated in accordance with the configuration information on an uplink UL channel.

Abstract: A technique includes hosting an Internet Storage Name Service (iSNS) server on a network switch to provide access to a plurality of subnets; and configuring the iSNS server to be an active server for a first subnet of a plurality of subnets and to be a backup server for a second subnet of the plurality of subnets.

Abstract: The present invention relates to a wireless communication system. More specifically, the present invention relates to a method and a device for transmitting, by a user equipment (UE), a buffer status report in a wireless communication system, the method comprising: receiving, by the UE, a message including information on a number N of lower entities to report an upper entity buffer size of a radio bearer; and transmitting, by N lower entities, the buffer status report including the upper entity buffer size, wherein the radio bearer comprises one upper entity and M lower entities, and wherein N?M.

Abstract: The present disclosure relates to a connection control apparatus and method. The method includes: receiving a link configuration request message sent by a second terminal; sending a bearer configuration request message to a network-side device according to the link configuration request message; receiving a bearer configuration complete message that is sent by the network-side device according to the bearer configuration request message; establishing a mapping relationship between the service bearer and the second terminal; and sending a link configuration complete message to the second terminal after the mapping relationship is established, so that the second terminal performs data transmission with the network-side device over the service bearer by using the first terminal.

Abstract: Disclosed is an uplink signal transmission method of a terminal, comprising: determining a multiplexing method of a plurality of uplink signals scheduled during a time interval of a predetermined length by considering the maximum transmission power of the terminal; and transmitting the plurality of uplink signals during the time interval of the predetermined length on the basis of the determined multiplexing method. Herein, the multiplexing method may include a first multiplexing method for performing puncturing or rate matching of a resource element level during the first symbol interval for the first uplink signal and/or the second uplink signal, or a second multiplexing method for adding information included in the first uplink signal and the second uplink signal and transmitting the added information through the first uplink signal or the second uplink signal.

Abstract: A data stream from an internal endpoint of a video conference participant is received at an enterprise media processing node. The internal endpoint is accessible to the enterprise media processing node behind a firewall on an enterprise network. The received data stream is translated and transcoded into a predefined common communication protocol. A data stream in the common communication protocol is received at an external media processing node using a firewall friendly protocol to traverse the firewall from an external endpoint. The external endpoint communicates with the external media processing node outside the enterprise network. A composite data stream of the received data streams from endpoints within the enterprise network and outside the enterprise network is selectively generated, and sent to the internal endpoint.

Abstract: A self-checking network device (201) for communication in a real-time network, wherein the self-checking network device (201) includes at least four modules (S-COM, P-COM, P-MON, S-MON), wherein the network device (201) and/or each of the four modules is configured such that a first module (S-COM) of the at least four modules receives both regular data and protocol data from said communication links (110) on a first input (COM-IN), and said first module (S-COM) forwards protocol data on a second input (P-COM-IN) to a second module (P-COM) of the at least four modules, wherein said second module (P-COM) executes a first function (C-PU) as part of the one or the more of the network protocols using protocol data received on said second input (P-COM-IN) and produces protocol data as output on a first output (P-COM-OUT).

Abstract: Routing data transmissions in dual-band devices is described. In an example, a system can determine, based at least in part on capabilities information associated with a device, two or more networks that are available to the device. The two or more networks can include at least a fourth generation (4G) network and a fifth generation (5G) network. The device can be anchored in a first network of the two or more networks. The system can determine first characteristic(s) associated with the first network and second characteristic(s) associated with a second network of the two or more networks. Based at least in part on the first characteristic(s) and the second characteristic(s), the device can determine to transmit data via the second network instead of the first network and can transmit the data via the second network. The system can be associated with a service provider or the device.

Abstract: Embodiments described herein encode data for multiple-segment transmission in a communication channel by encoding payload bits with an outer code and distributing the outer encoded payload bits to a plurality of N element coders, where N is an integer greater than one. At each of the N element coders the respectively input outer encoded payload bits are encoded with a respective element code. Outputs of the N element coders are encoded with an inner code such that the inner code applied to at least one of the outputs of the N element coders is a function of the output of at least one other of the N element coders. Finally, N discrete inner coded outputs are provided for transmission in respective N discrete segments of a wireless channel. The examples present polar element coders and the inner code combines outputs of certain element coders with an exclusive-OR function.

Abstract: Techniques for monitoring packet telemetry are provided. A policy is received at a first node from a controller, where the policy includes an indication of a first flow. A first packet belonging to the first flow is received at the first node. A second node in a network path for the first packet is determined. A first header is added to the first packet based on the policy, wherein the first header includes an indication of the controller. The first packet is transmitted to the second node. Finally, telemetry data associated with the first node is transmitted to the controller based on the policy.

Abstract: One or more techniques and/or computing devices are provided for determining whether to perform a switchover operation between computing nodes. A first computing node and a second computing node, configured as disaster recovery partners, may be deployed within a computing environment. The first computing node and the second computing node may be configured to provide operational state information (e.g., normal operation, a failure, etc.) to a cloud environment node state provider and/or cloud persistent storage accessible through a cloud storage service. Accordingly, a computing node may obtain operational state information of a partner node from the cloud environment node state provider and/or the cloud storage service notwithstanding a loss of internode communication and/or an infrastructure failure that may otherwise appear as a failure of the partner node. In this way, the computing node may accurately determine whether the partner node has failed.

Abstract: The present invention relates to a base station in a wireless communication system which supports multi-antennas with multiple horizontal domains and multiple vertical domains. Particularly, the present invention comprises: a radio frequency unit and a processor, wherein the radio frequency unit comprises a first radio frequency (RF) chain and a second radio frequency (RF) chain which are connected to antenna elements corresponding to multiple vertical antennas with specific horizontal domains, wherein the processor, connected to the radio frequency unit, is configured to transmit reference signals, and wherein the first RF chain and the second RF chain are configured for different reference signals.

Abstract: The method of reliable Internet-Of-Thing (IOT) communication across a plurality of IOT devices, involves identifying device information of a source-IOT-device upon synchronization of the source-IOT-device with a current NB-IOT eNB in an IOT network. Upon activating a first IOT application of the source-IOT-device, a check is made to determine that a first target-IOT-device is discoverable in the current NB-IOT eNB for establishing a first IOT session from the source-IOT-device to the target-IOT-device. A short-distance communication link or a NB-IOT communication link may be selected based on the device information of the source-IOT-device, the discoverability of the first target-IOT-device, and the first IOT application activated on the source-IOT-device, A Physical Resource Block (PRB) for a plurality of packets transmitted using the first communication link may be dynamically allocated based on a buffer occupancy associated with the first IOT application of the source-IOT-device.

Abstract: Systems and methods are described for a mesh network of Access Points (APs) and Customer Premises Equipment (CPE) to provide broadband access to premises such as houses or enterprises. Systems and method are described to enable self-configurable CPEs in the sense that the CPEs autonomously find and establish communications with the AP/CPEs from which they receive the strongest signal. Systems and methods are described to enable a self-healing network in the sense that the CPEs autonomously detect low received signal strength or lost connection, and find and establish communications with the AP/CPE from which they receive the strongest signal.

Abstract: A method and apparatus for handling overlap of multiple channels in a wireless communication system is provided. A user equipment (UE), which operates in half-duplex frequency division duplex (FDD), determines that a periodic uplink (UL) transmission collides with a physical downlink shared channel (PDSCH) reception in a subframe, and performs either the periodic UL transmission or the PDSCH reception in the subframe. When the periodic UL transmission corresponds to a semi-persistent scheduled (SPS) physical uplink shared channel (PUSCH), the PDSCH reception is performed.

Abstract: A wireless device may receive packets according to a protocol, such as Bluetooth, and may rapidly react to receive an interfering RF packet instead of dropping the first RF packet and the interfering RF packet, to decrease message delay due to collisions in high device density environments. When a received signal strength indicator (RSSI) difference between the interfering RF packet and the first RF packet exceeds a threshold, the device may detect the interfering packet and resync a portion of its circuitry to lock on to and receive the interfering packet. The wireless receiver may detect the interfering RF packet by detecting one or more of: a specific resync byte sequence, an increase in RSSI, or a phase shift. Additionally, a wireless device may add the specific resync byte sequence to an RF packet of a standard protocol.

Abstract: A method and apparatus are disclosed. The method includes the UE (User Equipment) being configured with a first CORESET (Control Resource Set). The method also includes the UE being configured with a second CORESET. The method further includes the UE transmitting a preamble for beam failure recovery in response to the UE detecting that beam failure occurs. And the method includes the UE monitoring and/or receiving a DCI scrambled by C-RNTI in the second CORESET in the second slot in response to transmitting the preamble for beam failure recovery. Furthermore, the method includes the UE prioritizing to receive and/or demodulate the DCI scrambled by C-RNTI in the second CORESET in the second slot, if the first number plus the third number exceeds the first maximum number or the second number plus the fourth number exceeds the second maximum number in the second slot.