End-to-End 360° Video Streaming over HTTP/3: Architecture and Implementation

Gespeichert in:
Bibliographische Detailangaben
Titel: End-to-End 360° Video Streaming over HTTP/3: Architecture and Implementation
Autoren: Rosa, Felipe, Ferlin, Simone, Brunstrom, Anna, 1967, Kimura, Bruno Yuji Lino
Quelle: ANRW '25. :9-16
Schlagwörter: Acoustic streaming, HTTP, Network architecture, DASH, Design and implementations, End to end, HTTP3, Internet Standard, MPQUIC, QUIC, Streaming, Video 360°, Video-streaming, Video streaming, Computer Science, Datavetenskap
Beschreibung: 360° video streaming represents a shift in the way media is consumed: Users can immerse themselves, interact and engage with the viewing environment. This paper proposes the design and implementation of an end-to-end 360° video streaming stack on top of emerging Internet standards such as HTTP/3 and MPQUIC. Preliminary experiments with real network traces show that, compared to single-path streaming, multi-path with stream-aware scheduler and non-blocking buffers achieves up to 25% reduction in tile download times, lower rebuffering ratio (down to 0.53), and decreasing tile misses, while providing a higher Structured Similarity Index Measure (SSIM) of around 17.2 dB.
Dateibeschreibung: print
Zugangs-URL: https://urn.kb.se/resolve?urn=urn:nbn:se:kau:diva-106656
Datenbank: SwePub
Beschreibung
Abstract:360° video streaming represents a shift in the way media is consumed: Users can immerse themselves, interact and engage with the viewing environment. This paper proposes the design and implementation of an end-to-end 360° video streaming stack on top of emerging Internet standards such as HTTP/3 and MPQUIC. Preliminary experiments with real network traces show that, compared to single-path streaming, multi-path with stream-aware scheduler and non-blocking buffers achieves up to 25% reduction in tile download times, lower rebuffering ratio (down to 0.53), and decreasing tile misses, while providing a higher Structured Similarity Index Measure (SSIM) of around 17.2 dB.
DOI:10.1145/3744200.3744784