주지 않음. 45 Multiplexer Various UDP/IP Streams BBF, Timing, Control, etc. FEC Encoder Transmitter FEC Row RTP/UDP/IP Stream FEC Column RTP/UDP/IP Stream STL Receiver 8 SMPTE 2022-1 FEC Decoder 9 IP Content Tunnel SMPTE ST 2022-1 RTP/UDP/IP Stream FEC Row RTP/UDP/IP Stream FEC Column RTP/UDP/IP Stream 10 IP Tunnel RTP/UDP/IP Stream w/ Fixed Packet Size PLP Demultiplexer 11 Various UDP/IP Streams BBF, Timing, Control, etc. 12 13 Figure 8.1 STL Transmission diagram. The following paragraphs describe each of the call-outs, (1) through (13), in Figure 8.1. Items (1) through (5) are further detailed in the FEC Encoding Process Section 8.5.1 below. 1) The multiple paths represent the RTP/UDP/IP Streams that are generated for each PLP as described in Sections 8.2, 8.3, and 8.3.4. These are referred to as the Tunneled Packet Streams. 2) The PLP Mux is configured to accept packets from multiple RTP/UDP/IP multicast Streams to be tunneled. 3) The Tunneled Packets are grouped into fixed-size payloads to accommodate the SMPTE ST 2022-1 FEC process [8]. The STLTP RTP fields are defined to allow the Tunneled Packet Streams to be easily recovered and forwarded (refer to Section 8.6 below). The fixed packet size of the ST 2022-1 packets is not defined by this standard and is assumed to be configurable. It is expected that the packet size is within the typical 1500 MTU byte range limit. Note that the larger the packets the longer the latency when performing FEC Transmitter 1 Transmitter 2 Transmitter 3 ATSC A/324:2018 Scheduler / Studio to Transmitter Link 5 January 2018 payloads for easy reconstruction on the Data Consumer side. All other aspects of ST 2022-1 remain identical to the capabilities described in [8] including support for any FEC constraints detailed in Section 8 of that standard. Note that latency will be longer with larger packet lengths. 8.5 STL Transmission Protocol Design Figure 8.1 provides a detailed diagram of the portion of the broadcast Physical Layer chain described by this section. Refer to Figure 4.2 for a complete diagram of the system architecture. PLP Multiplexer Various UDP/IP Streams BBF, Timing, Control, etc. SMPTE 2022-1 FEC Encoder IP Tunnel RTP/UDP/IP Stream w/ Fixed Packet Size STL Transmitter IP Content Tunnel SM PTE ST 2022-1 RTP/UDP/IP Stream FEC Row RTP/UDP/IP Stream FEC Column RTP/UDP/IP Stream 1 2 3 4 5 6 7 STL STL Receiver 8 SM PTE 2022-1 FEC Decoder 9 IP Content Tunnel SMPTE ST 2022-1 RTP/UDP/IP Stream FEC Row RTP/UDP/IP Stream FEC Column RTP/UDP/IP Stream 10 IP Tunnel RTP/UDP/IP Stream w/ Fixed Packet Size PLP Demultiplexer 11 Various UDP/IP Streams BBF, Timing, Control, etc. 12 13 Figure 8.1 STL Transmission diagram. The following paragraphs describe each of the call-outs, (1) through (13), in Figure 8.1. Items (1) through (5) are further detailed in the FEC Encoding Process Section 8.5.1 below. 1) The multiple paths represent the RTP/UDP/IP Streams that are generated for each PLP as described in Sections 8.2, 8.3, and 8.3.4. These are referred to as the Tunneled Packet Streams. PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. When nsidering system configurations, data rates and interfaces between functional blocks must be ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a System PLP De SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Securit Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possib considering system configurations, data rates and interfaces between functional block taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a single entity called PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Whe nsidering system configurations, data rates and interfaces between functional blocks must b ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a System PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Whe nsidering system configurations, data rates and interfaces between functional blocks must b ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a System PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Whe nsidering system configurations, data rates and interfaces between functional blocks must b ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a System PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Whe nsidering system configurations, data rates and interfaces between functional blocks must b ken into account in developing practical implementations. System Manager PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. STL Payload (STLTP) EAS Trig. w/External ALP Gen w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager nfiguration aspects of the overall system are controlled by a single entity called a Syste anager, which is represented in Figure 4.2 only as a connection to the Configuration Manager PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder hentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP Timing & Mgt Generator STL Payload (STLTP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber STL Payload (STLTP) ALP Gen PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys ystem architecture. hitecture; other configurations are possible. When and interfaces between functional blocks must be plementations. are controlled by a single entity called a System nly as a connection to the Configuration Manager in an be anything from a web-page based setup screen Korean Broadcasting System | Broadcast Technical Research Institute Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI Bootst Spectr Shap ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PL Securi Da Process Security Data S Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UD RT IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations ar Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI Boots Spec Sha ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Secu D Proces Security Data Keys Figure 4.2 System architecture. Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI Boots Spec Sha ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Secu D Proces Security Data Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI Boots Spec Sha ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Secu D Proces Security Data Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible Korean Broadcasting System | Broadcast Technical Research Institute Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI B S ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Demu SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream S Pr Security D Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possib Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Dem SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Security Keys Figure 4.2 System architecture. Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Dem SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Security Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possib Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PLP Dem SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream P Security Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possib SM ST 20 EC Dec SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. EAS Trig. IP UDP RTP PLP Mux PLPs Device Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are considering system configurations, data rates and interfaces between functional taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a single entity c Manager, which is represented in Figure 4.2 only as a connection to the Configura the Broadcast Gateway. A System Manager can be anything from a web-page bas with manual data entry to a fully automated system; its scope is control of an ov system. The System Manager provides high-level configuration parameters for nu Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers Fr Fr Fr Fr Fr ST D SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. ATSC S32-266r33 Revision of A/324:2018, S Bit Int’l FEC Mapper LDM MIMO ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs Timing Manager B U F F E R B U F F E R PLPs GNSS Time TAD IP Packetizer Baseband Packetizers PLPs Scheduler Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/Internal ALP Gen IP UDP RTP Figure 4.2 ALP Mux ALP Encapsulation ALPs Data Source Data Source Data Source Data Source IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) Broadcast Gateway w/Internal ALP Gen IP UDP RTP Figure 4.2 sho considering system taken into account i System Man Configuration aspe Manager, which is r the Broadcast Gate with manual data e system. The System functions. The Syst chain. It controls th configurations of t sessions that suppo SMPTE ST 2022-1 ECC Encoder Authentication STL Xmtr IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads Data Sources (MDCoIP) STL Lin IP/UDP/R Microwave/Sate ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. EAS Trig. IP UDP RTP PLP Mux PLPs Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configur considering system configurations, data rates and interfaces between taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a sing SMPTE ST 2022-1 ECC Encoder Authentication STL Xmtr IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. EAS Trig. IP UDP RTP PLP Mux PLPs Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configuratio considering system configurations, data rates and interfaces between fun taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a single ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver ALPTP Formatting IP UDP RTP ALPs ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber Preamble Information Timing & Mgt Information STLTP Coded Modulation Input Formatting Framing/ Structure Waveform Generation Preamble Parser Buffer Broadcast Gateway Figure 4.1 High-level overview of system configuration. o-one correspondence between individual Streams of ALP packets and prepare ALP packets for Transmission, in the Broadcast Gateway, the ALP lated in Baseband Packets (BBPs), which have defined sizes that are meter (Kpayload) related to the specific characteristics of the particular PLP(s) e carried. The sizes of the BBPs in a given Stream are set to assure that the the related PLP in a frame is filled by the BBPs derived from an associated ALP packets either are segmented or are concatenated so that they fill the e BBPs carrying them as completely as possible without overflowing the ow of data through the system, several buffers are required to hold data for ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver ALPTP Formatting IP UDP RTP ALPs ALP Generation ALPs Data Sources ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber ATSC A/330 ALP & A/331 Signaling, etc. Transport Layer System Manager Preamble Information Timing & Mgt Information STLTP Coded Modulation Input Formatting Framing/ Structure Waveform Generation Preamble Parser Buffer Broadcast Gateway DSTP Broadcast Gateway w/Internal ALP Gen. Figure 4.1 High-level overview of system configuration. There is a one-to-one correspondence between individual Streams of ALP packets and individual PLPs. To prepare ALP packets for Transmission, in the Broadcast Gateway, the ALP packets are encapsulated in Baseband Packets (BBPs), which have defined sizes that are determined by a parameter (Kpayload) related to the specific characteristics of the particular PLP(s) in which they will be carried. The sizes of the BBPs in a given Stream are set to assure that the assigned capacity of the related PLP in a frame is filled by the BBPs derived from an associated ALP packet Stream. ALP packets either are segmented or are concatenated so that they fill the allocated space in the BBPs carrying them as completely as possible without overflowing the available space. ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver ALPTP Formatting IP UDP RTP ALPs ALP Generation ALPs Data Sources ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber ATSC A/330 ALP & A/331 Signaling, etc. Transport Layer System Manager Preamble Information Timing & Mgt Information STLTP Coded Modulation Input Formatting Framing/ Structure Waveform Generation Parser Buffer Broadcast Gateway DSTP Broadcast Gateway w/Internal ALP Gen. Figure 4.1 High-level overview of system configuration. There is a one-to-one correspondence between individual Streams of ALP packets and individual PLPs. To prepare ALP packets for Transmission, in the Broadcast Gateway, the ALP packets are encapsulated in Baseband Packets (BBPs), which have defined sizes that are determined by a parameter (Kpayload) related to the specific characteristics of the particular PLP(s) in which they will be carried. The sizes of the BBPs in a given Stream are set to assure that the assigned capacity of the related PLP in a frame is filled by the BBPs derived from an associated ALP packet Stream. ALP packets either are segmented or are concatenated so that they fill the allocated space in the BBPs carrying them as completely as possible without overflowing the available space. ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver ALPTP Formatting IP UDP RTP ALPs s ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber Preamble Information Timing & Mgt Information STLTP Broadcast Gateway t al Figure 4.1 High-level overview of system configuration. -to-one correspondence between individual Streams of ALP packets and prepare ALP packets for Transmission, in the Broadcast Gateway, the ALP ulated in Baseband Packets (BBPs), which have defined sizes that are ameter (Kpayload) related to the specific characteristics of the particular PLP(s) be carried. The sizes of the BBPs in a given Stream are set to assure that the f the related PLP in a frame is filled by the BBPs derived from an associated . ALP packets either are segmented or are concatenated so that they fill the he BBPs carrying them as completely as possible without overflowing the flow of data through the system, several buffers are required to hold data for ignment of data emission. Buffering also is required in certain instances to o be obtained from a data Stream and used to control particular functionality e the corresponding data is processed further. Two specific instances of such e system. The first buffer inserts at least one Physical Layer frame of delay in ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver TP tting IP UDP RTP ALPs ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber Preamble Information Timing & Mgt Information STLTP Broadcast Gateway ure 4.1 High-level overview of system configuration. one correspondence between individual Streams of ALP packets and epare ALP packets for Transmission, in the Broadcast Gateway, the ALP ed in Baseband Packets (BBPs), which have defined sizes that are ter (Kpayload) related to the specific characteristics of the particular PLP(s) arried. The sizes of the BBPs in a given Stream are set to assure that the e related PLP in a frame is filled by the BBPs derived from an associated LP packets either are segmented or are concatenated so that they fill the BBPs carrying them as completely as possible without overflowing the of data through the system, several buffers are required to hold data for ment of data emission. Buffering also is required in certain instances to e obtained from a data Stream and used to control particular functionality e corresponding data is processed further. Two specific instances of such ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver ALPTP Formatting IP UDP RTP ALPs ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber Preamble Information Timing & Mgt Information STLTP Broadcast Gateway t l Figure 4.1 High-level overview of system configuration. -to-one correspondence between individual Streams of ALP packets and prepare ALP packets for Transmission, in the Broadcast Gateway, the ALP ulated in Baseband Packets (BBPs), which have defined sizes that are ameter (Kpayload) related to the specific characteristics of the particular PLP(s) e carried. The sizes of the BBPs in a given Stream are set to assure that the the related PLP in a frame is filled by the BBPs derived from an associated ALP packets either are segmented or are concatenated so that they fill the he BBPs carrying them as completely as possible without overflowing the low of data through the system, several buffers are required to hold data for ignment of data emission. Buffering also is required in certain instances to o be obtained from a data Stream and used to control particular functionality e the corresponding data is processed further. Two specific instances of such e system. The first buffer inserts at least one Physical Layer frame of delay in sor to enable sending Preamble information for a given Physical Layer frame ECC Decoding & STLTP Demultiplexing STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP STLTP Formatting & ECC Encoding STL Pre-Processor PLPs Configuration Mgr /Scheduler ALPTP Receiver TP tting IP UDP RTP ALPs ALPTP STLTP STL Link IP/UDP/RTP Microwave/Satellite/Fiber Preamble Information Timing & Mgt Information STLTP Broadcast Gateway ure 4.1 High-level overview of system configuration. one correspondence between individual Streams of ALP packets and epare ALP packets for Transmission, in the Broadcast Gateway, the ALP ed in Baseband Packets (BBPs), which have defined sizes that are ter (Kpayload) related to the specific characteristics of the particular PLP(s) arried. The sizes of the BBPs in a given Stream are set to assure that the e related PLP in a frame is filled by the BBPs derived from an associated LP packets either are segmented or are concatenated so that they fill the BBPs carrying them as completely as possible without overflowing the of data through the system, several buffers are required to hold data for ment of data emission. Buffering also is required in certain instances to e obtained from a data Stream and used to control particular functionality e corresponding data is processed further. Two specific instances of such stem. The first buffer inserts at least one Physical Layer frame of delay in PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a Syste P SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream S Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are poss considering system configurations, data rates and interfaces between functional bloc taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a single entity calle PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a Syste PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager onfiguration aspects of the overall system are controlled by a single entity called a Syste PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads o System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr STL Payload (STLTP) EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. Wh nsidering system configurations, data rates and interfaces between functional blocks must ken into account in developing practical implementations. System Manager PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. STL Payload (STLTP) EAS Trig. w/External ALP Gen w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authenticatio USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are possible. W nsidering system configurations, data rates and interfaces between functional blocks must en into account in developing practical implementations. System Manager nfiguration aspects of the overall system are controlled by a single entity called a Sys anager, which is represented in Figure 4.2 only as a connection to the Configuration Manage PLP Demux SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder entication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UDP RTP iming & Mgt enerator STL Payload (STLTP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber STL Payload (STLTP) w/External ALP Gen PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream PLPs Authentication USB Crypto Token Security Device Security Data Processor Keys Security Data Stream Keys ystem architecture. hitecture; other configurations are possible. When and interfaces between functional blocks must be lementations. are controlled by a single entity called a System nly as a connection to the Configuration Manager in an be anything from a web-page based setup screen Korean Broadcasting System | Broadcast Technical Research Institute Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR GI ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP UD RT IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr ST Paylo (STL EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are po Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Encoder Authentication STL Xmtr IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configuratio Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR G ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP U R IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr S Pay (ST EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR G ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP U R IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr S Pay (ST EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are po Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR G ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP U R IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr S Pay (ST EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are po Korean Broadcasting System | Broadcast Technical Research Institute Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Decoder SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are p Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022-1 ECC Encoder Authentication STL Xmtr IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fib ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurati Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers Preamble Parser PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022- ECC Decode SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022- ECC Decode SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are p Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers PLPs PLPs PLPs PLPs PLPs PLPs PLPs PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr PHY Fr SMPTE ST 2022- ECC Decode SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler PLPs ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are p S D SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs EAS Trig. IP UDP RTP PLP Mux PLPs Processor Security Data Stream Keys Figure 4.2 System architecture. Figure 4.2 shows a possible system architecture; other configurations are considering system configurations, data rates and interfaces between functiona taken into account in developing practical implementations. System Manager Configuration aspects of the overall system are controlled by a single entity Manager, which is represented in Figure 4.2 only as a connection to the Configur the Broadcast Gateway. A System Manager can be anything from a web-page ba with manual data entry to a fully automated system; its scope is control of an o Bit Int’l FEC Mapper LDM MIMO Time Int’l OFDM Framer/ Preamble Inserter Freq Int’l Pilot/ Tone Reserve MISO IFFT PAPR ≤ 1sec Network Comp. Buffers Fr Fr Fr Fr Fr Fr SMP ST 20 EC Deco SMPTE ST 2022-1 ECC Encoder Authentication STL Rcvr STL Xmtr IP UDP RTP IP UDP RTP IP UDP RTP IP Packetizers Baseband Packetizers PLPs PLPs Scheduler Timing & Mgt Generator Preamble Generator ALP Demux ALP Mux IP UDP RTP ALPs ALP Encapsulation ALPs Data Source Data Source Data Source Data Source Scrambler ALP Payload (ALPTP) STL Payload (STLTP) IP (ROUTE/MMT), TS, Generic Data In DSTP Payloads From/To System Manager (BXF) To/From Data Sources (MDCoIP) STL Link IP/UDP/RTP Microwave/Satellite/Fiber ≤ 1 Phy Frame Delay (≤ 5secs) ALP Buffers ALPs LLS Ind. Configuration Mgr EAS Trig. Broadcast Gateway w/External ALP Gen Broadcast Gateway w/Internal ALP Gen IP UDP RTP PLP Mux PLPs USB Crypto Token Security Device Security Data Processor Security Data Stream Keys Figure 4.2 System architecture. ATSC 3.0 Gateway SMPTE 2022-1 FEC 적용 예시 (L,D)=(8,5) 전송률 증가율 = = 32.5% 8+5 40 5004 5002 239.255.9.30:5000 BGW Setting (STL)
sunghojeon
oniak3ibm
goataka
nullpo_head
hakubishin3
ishikawa_satoru
rayuron
.png){kind=icon}
pharma_x_tech
yuj1osm
kkamegawa
mochizuki875
xerial
yamaguchitk333
cromwellryan
paigeccino
kevinliebholz
tammyeverts
panda_program
lara
palkan
hannesfritz
marcelosomers
denniskardys
jcasabona
skipperchong
![2022.10.31. 공정거래위원회, 국내 OTT 사업자 [티빙+시즌] 간 합병 승인](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_5.jpg){kind=link}
![OTT 시장 지각변동에 순위도 요동…‘확장’ 티빙·‘진격’ 쿠팡·‘주춤’ 웨이브 [출처] https://economist.co.kr/article/view/ecn202303030011,](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_6.jpg){kind=link}
![2021.07.19. 『UHD 혁신서비스(다채널/모바일/양방향) 개시』 [출처] https://www.korea.kr/news/pressReleaseView.do?newsId=156462337&pWise=main&pWiseMain=C2 2021.07.23. ~ 08.08. 2022.02.04.](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_43.jpg){kind=link}
![[과제 4-①] 다채널방송(MMS) 확대](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_47.jpg){kind=link}
![15.55 콘텐츠도달률 고정수신 최소요구신호품질 ToV C/N[dB] 0 6.4 8.0 14.9](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_49.jpg){kind=link}
![UHD 모바일 채널 필드테스트 [고정수신] 9-1 + 9-2 = 7-1](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_51.jpg){kind=link}
![[과제 4-①] 다채널방송(MMS) 확대: KBS 9-2 재난전문채널](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_52.jpg){kind=link}
![[과제 4-①] 다채널방송(MMS) 확대: KBS 9-2 재난전문채널](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_53.jpg){kind=link}
![[과제 4-①] 다채널방송(MMS) 확대: KBS 9-3 보이는 1Radio (원본데이터) 경찰청](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_54.jpg){kind=link}
![[출처] https://www.tvtechnology.com/news/first-atsc-30-equipped-cars-expected-on-us-roads-by-2023 [과제 4-②] 지상파 UHD 방송망을 활용한 이동형 서비스](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_59.jpg){kind=link}
![[과제 4-②] 지상파 UHD 방송망을 활용한 이동형 서비스 도입](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_60.jpg){kind=link}
![[과제 4-②] 지상파 UHD 방송망을 활용한 이동형 서비스 도입 ETRI](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_62.jpg){kind=link}
![[출처] 1. https://news.kbs.co.kr/news/view.do?ncd=5471994 2.https://mylovekbs.kbs.co.kr/index.html?source=mylovekbs&sname=mylovekbs&stype=magazine&contents_id=70000000398082§ion_id=4520 [과제 4-②] 지상파 UHD 방송망을 활용한](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_63.jpg){kind=link}
![[과제 4-②] 지상파 UHD 방송망을 활용한 이동형 서비스 도입: KOBA2022](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_64.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 맞춤형 광고 방송 맞춤정보 지역](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_68.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 맞춤형 광고 방송](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_69.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 실시간 전파 지도 실시간 전파지도](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_70.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 끊김없는 방송시청 지상파 직접수신 ATSC](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_71.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 끊김없는 방송시청 https://mylovekbs.kbs.co.kr/index.html?source=mylovekbs&sname=mylovekbs&stype=magazine&contents_id=70000000399098 KBS미디어기술연구소, ATSC3.0-5G](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_72.jpg){kind=link}
![[참고] 커넥티드 카 & 차량용 OTT 협력 사례 https://www.etnews.com/20221128000028 https://www.hyundai.co.kr/news/CONT0000000000054671](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_73.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 양방향 IBB 서비스](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_79.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 주요 이벤트 맞춤형 IBB 운영](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_82.jpg){kind=link}
![https://mylovekbs.kbs.co.kr/index.html?source=mylovekbs&sname=mylovekbs&stype=magazine&contents_id=70000000399076 [과제 4-③] 방송·통신 융합기술 실증: 주요 이벤트 맞춤형 IBB](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_86.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: TIVIVA mini 홍보관 운영](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_87.jpg){kind=link}
![[과제 4-③] 방송·통신 융합기술 실증: 시청접속 데이터 확보](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_90.jpg){kind=link}
![Broadcast Gateway와 SFN 송신기들 연결 [출처] A/324: (Doc. S32-266r18) S32-Scheduler](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_94.jpg){kind=link}
![대구송출센터 주조 기계실 M/W실 M / W 제어회선VPN 스위치 [1TV]](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_115.jpg){kind=link}
![대구송출센터 주조 기계실 M/W실 M / W 제어회선VPN 스위치 [2TV]](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_116.jpg){kind=link}
![122 방송기술교육원 미래방송기술 교육 {"pushkey":"","status":{"rf":{},"dstp":[{"plp_id":0,"plp_bitr ate":1166832,"lls_bitrate":18512,"lls_bsid":1041},{"plp_i d":1,"plp_bitrate":16577184,"lls_bitrate":18512,"lls_bsi d":1041}],"service":[],"recovery":[],"error":[],"event":[],"d evice":{"device_ip":"192.168.104.122","rf_status":99,"t otal_bitrate":18410410,"error_state":0,"utc_dt":"2020-](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_121.jpg){kind=link}
![BGW(Broadcast Gateway) 의 주요 기능 ✓ [Baseband Packet] 비디오/오디오/데이터 채널](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_133.jpg){kind=link}
![[SFN 조건 #1] 똑같은 데이터 [출처] A/322: (Doc. S32-230r66) Physical](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_134.jpg){kind=link}
![측정항목: ToV C/N, Receiver Sensitivity 156 [출처] Federal Communications Commission](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_155.jpg){kind=link}
![Path 1 Path 2 Path 3 Delay [us] Amplitude [dB]](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_159.jpg){kind=link}
![164 [2단계] 송신기 전체를 고려하여, 각 예측 지점에서의 Channel Impulse](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_163.jpg){kind=link}
![SFN 커버리지 계산 과정 (3/4) 165 [3단계] CIR로부터 Net Gain](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_164.jpg){kind=link}
![SISO-SFN Loss due to Erasure Effect 166 [Source] EBU Tech](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_165.jpg){kind=link}
![[과제 4-④] 8K UHD 방송 관련 기술 개발: 다중안테나(MIMO) 2022.09.15.](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_195.jpg){kind=link}
![[마무리] UHD+5G 동시 전송 기술, 모든 단말기에서 직접수신이 가능한 빈틈없는](https://files.speakerdeck.com/presentations/7fefd2db155c4e1391831f4a14ebe53e/slide_204.jpg){kind=link}
