Streaming Architectures: HLS, DASH, and RTMP

Streaming Architectures: HLS, DASH, and RTMP Streaming architectures describe how video travels from a creator to the viewer. The three common paths today are HLS, DASH, and RTMP. Each has a role in modern workflows, from the moment you start encoding to the moment the viewer sees the video. Overview of the three options helps you pick the right setup. HLS: Apple’s HTTP Live Streaming uses M3U8 playlists and small media segments. It plays well on iPhones, iPads, and many browsers. It is easy to scale with a CDN and works with common encoders. DASH: Dynamic Adaptive Streaming over HTTP uses an MPD manifest. It supports CMAF packaging and broad device coverage. DASH is popular in broadcast and OTT services that want vendor flexibility. RTMP: Real-Time Messaging Protocol is used for live ingest from encoders to a media server. It has low end‑to‑end latency, but it’s not a direct delivery method for browsers. Most workflows repackage RTMP into HLS or DASH for playback. How they fit together in a typical setup ...

September 22, 2025 · 2 min · 394 words

Video Streaming: Delivery, Quality and Monetisation

Video Streaming: Delivery, Quality and Monetisation Video streaming shapes how we watch movies, learn new skills, and follow live events. Behind every smooth play is a path that starts at the source and ends on a viewer’s screen. This article explains three core ideas—delivery, quality, and monetisation—and keeps the language clear for practitioners, managers, and developers. The goal is to help you plan better, compare options, and choose practical steps that fit your audience and budget. ...

September 22, 2025 · 2 min · 337 words

Adaptive Streaming and Content Delivery

Adaptive Streaming and Content Delivery Adaptive streaming helps you deliver video and audio smoothly, even when network conditions change. By offering multiple quality levels, a player can switch to a lower bitrate if bandwidth drops, and rise again when it improves. This keeps playback steady and reduces pauses. The approach works well for mobile users, crowded networks, and global audiences. How adaptive streaming works Content is encoded at several bitrates and stored on a server or a content delivery network (CDN). A manifest or index (MPEG-DASH MPD or HLS M3U8) lists the available representations and segments. The client measures throughput and buffer size, then requests the next segment at an appropriate quality. The CDN and edge servers help deliver segments quickly, lowering startup delay and rebuffer risk. Two common standards MPEG-DASH (Dynamic Adaptive Streaming over HTTP) uses a URL-based manifest to describe representations and segments. HLS (HTTP Live Streaming) relies on playlists and segmented media, often CMAF, for broad device compatibility. Content delivery networks and edge delivery CDNs cache many representations close to users, reducing distance and latency. Edge delivery lets viewers start faster and experience fewer stalls. A multi-CDN strategy can improve resilience during traffic spikes. Efficient caching and prefetching boost performance for live and on-demand streams. Practical tips for reliable delivery Start with a sensible default bitrate to avoid initial stalls. Use segment lengths of 2–6 seconds to balance startup time and rebuffer risk. Monitor quality of experience metrics like startup time and rebuffer rate. Allow smooth bitrate switching and avoid large jumps that surprise viewers. Plan for mobile networks with lower defaults and data-aware policies. Adaptive streaming and solid delivery design help you reach a global audience while keeping playback smooth and predictable, even under changing network conditions. ...

September 21, 2025 · 2 min · 326 words

Video Streaming From Encoding to Playback

From Encoding to Playback: How Streaming Works Video streaming is a journey. It starts with the source file and ends with you watching a smooth image. Along the way, several steps ensure the picture stays clear, fast, and reliable across devices. Encoding and codecs matter. The original video is compressed into formats that balance quality and size. Common choices are H.264, H.265, and AV1. Each codec is more efficient than the last, but device support varies. Most streaming pipelines create multiple versions at different bitrates and resolutions. This is called the bitrate ladder. It lets the player pick a version that fits the viewer’s connection. ...

September 21, 2025 · 2 min · 316 words

Music Streaming: From Codec to Personalization

Music Streaming: From Codec to Personalization Music streaming runs on two engines at once: the tiny packets of audio you hear and the software that sends them. Behind every great playlist is a balance between sound quality, data use, and a steady connection. Coders design formats that squeeze music into smaller sizes without destroying too much detail. As listeners, we enjoy crisp highs and deep bass, even when our network grabs bits a few thousand times per second. ...

September 21, 2025 · 2 min · 405 words

Video Streaming Protocols: HLS, DASH and More

Video Streaming Protocols: HLS, DASH and More Video streaming relies on protocols to split media into small pieces and describe where to fetch them. Two of the most widely used are HLS and DASH. Both run over standard HTTP, making delivery easy with CDNs and common servers. They also support multiple quality levels so the player can adapt to changing networks. How HLS works HLS uses a simple manifest called an M3U8 file. It lets the player choose among different video bitrates and resolutions and then fetches short video segments. Because HTTP is cache-friendly, CDNs can help scale delivery for large audiences. HLS has broad device support, especially on Apple devices, but is also widely used on Android, browsers, and smart TVs. ...

September 21, 2025 · 2 min · 377 words