| Resolution | Bitrate (H.264) | H.265/AV1 bitrate | |------------|----------------|-------------------| | 1080p | 4–6 Mbps | 2–3 Mbps | | 720p | 2–3 Mbps | 1–1.5 Mbps | | 480p | 1–1.5 Mbps | 0.5–0.8 Mbps | | 360p | 0.5–0.8 Mbps | 0.3–0.5 Mbps | | 160p (audio only) | 64 kbps | 64 kbps |
Ingest RTMP, transcode to two HLS outputs (low-latency):
| Direction | Common Protocols | Typical Use | |-----------|------------------|--------------| | Ingest | SRT (secure, lossy networks), RTMP (legacy), RIST, Zixi | Contribution from remote encoder | | Output | HLS (CMAF fMP4), DASH, SRT, RTSP, WebRTC (sub-second) | Delivery to players / CDN | ip video transcoding live
Here’s a to IP video transcoding for live streams — covering why, how, and the critical trade-offs.
For H.265/AV1, cut bitrate by 30–50% at same perceptual quality. | Resolution | Bitrate (H
Live IP video transcoding is a vital process in modern broadcasting that converts real-time video streams from one digital format to another while they are being transmitted. Unlike static file-based transcoding, live transcoding must occur in , often with sub-second latency, to ensure that viewers can watch live events without significant delays. Why Live IP Transcoding is Essential
A modern live transcoder is a sophisticated assembly line. Here is how a video frame travels through it: Unlike static file-based transcoding
The modern high-density live farm is a hybrid. It uses CPUs for ingest/decoding/packaging (complex logic) and offloads the heavy math of encoding to GPUs or ASICs.
Traditional TV over the air or cable. The viewer sees the image fractions of a second after it happens.