The 2026 FIFA World Cup may prove no exception. In fact, its greatest legacy may not be the football itself, but the demonstration that fully decentralised, software-defined production can successfully operate at an unprecedented global scale.

With 48 teams, 104 matches and 16 venues spread across the United States, Canada and Mexico, the tournament represents the largest and most complex production challenge FIFA has ever faced. To deliver every match in UHD HDR while generating almost 9,000 hours of content, FIFA and Host Broadcast Services (HBS) have built an infrastructure that combines software-defined processing, private cloud architecture, SMPTE ST 2110 networking, JPEG XS contribution workflows, remote operations and centralised production. The result is arguably the most advanced live sports production ecosystem ever assembled.

The centre of operations is the International Broadcast Centre (IBC) located in Dallas, Texas. Historically, major sports events required large production teams to be deployed at every venue. In 2026, that model has changed dramatically. While producers, directors and core match production teams remain on-site, many specialist functions have been relocated to Dallas.

Replay operations, graphics control, audio mixing and camera shading are all performed remotely from the IBC. Six dedicated galleries support graphics, replay, audio and shading workflows, while seven centralised replay teams serve different language production groups including English, German, Spanish, French and Dutch coverage.

The benefits extend beyond logistics. Centralisation allows specialists to work across multiple matches, encourages collaboration between international production teams and creates greater consistency across the tournament. What was once considered technically risky has now become a practical operational model.

For broadcasters facing skills shortages and increasing production demands, the implications are significant.

At the heart of the project lies one of the most ambitious software-defined broadcast deployments ever attempted. Rather than relying on large amounts of dedicated hardware, HBS has virtualised many critical broadcast functions and deployed them on approximately 60 high-performance commercial off-the-shelf servers operating as a private cloud environment.

Functions now delivered through software include:

• Multiviewers
• Video encoders and decoders
• Compression and decompression
• HDR to SDR conversion
• Format conversion
• Waveform monitoring
• Signal processing and monitoring

This approach was largely driven by scale. During the group stages, up to six matches may be played on a single day. Supporting that level of parallel production using traditional hardware-based architectures would have required a massive increase in equipment and engineering resources.

Instead, software-defined infrastructure allows resources to be dynamically allocated according to demand, improving utilisation and simplifying expansion. The World Cup therefore provides one of the clearest examples yet of how software-defined broadcasting is moving from theory to operational reality.

The production architecture is built around a fully converged SMPTE ST 2110 environment spanning all venues, the Dallas IBC and the non-live production hub in London.

Moving content between 16 venues requires extraordinary bandwidth. Each stadium is connected through a contribution network providing approximately 600Gbps of capacity. This is delivered through two separate 100Gbps paths, each supported by three redundant routes, creating a highly resilient transport infrastructure capable of supporting mission-critical live production.

Signal transport is carefully managed according to operational requirements. The Extended Stadium Feed (ESF), which serves as the primary programme feed, is transported uncompressed in UHD resolution to preserve maximum image quality.

Additional camera feeds are transmitted using JPEG XS compression at approximately 10:1 compression ratios, maintaining broadcast-quality images while reducing bandwidth requirements to manageable levels.

This IP-centric architecture enables operators in Dallas to work as though they are physically present at the venue despite being thousands of kilometres away.

One of the most technically sophisticated workflows involves HDR production and quality control.

Every camera deployed at the venues operates in HDR. However, camera shading is performed remotely from Dallas using SDR monitoring environments. Dedicated HDR quality control teams oversee the process, guiding shaders to ensure consistent image quality across every match.

The workflow enables production teams to simultaneously maintain SDR and HDR quality standards while ensuring consistent colour reproduction and image performance regardless of venue conditions.

The approach demonstrates how remote production has evolved beyond basic signal transport into highly specialised creative and technical operations.

Audio production has undergone a similar transformation. Every microphone feed from each stadium is transported back to Dallas where audio teams create three separate programme outputs:

• Immersive audio mixes
• 5.1 surround sound mixes
• Stereo programme feeds

Although backup mixing capabilities remain at each venue, the primary audio operation is fully centralised.

This provides greater consistency across the tournament while allowing highly skilled audio engineers to work across multiple productions.

The scale of content acquisition remains enormous. Each match deploys approximately 45 cameras, supported by cable-camera systems, heavy-lift broadcast drones and smaller agile drone platforms capable of operating in restricted airspace. Helicopter coverage is also used for selected group-stage matches and becomes standard throughout the knockout rounds.

Beyond the stadiums, dedicated crews operate throughout host cities capturing training sessions, fan experiences, team arrivals and behind-the-scenes content.

This material is sent to a dedicated non-live production hub in London where editorial teams create finished content packages for global distribution. The overall output across the tournament is expected to approach 9,000 hours of content.

Many of the technologies enabling FIFA World Cup 2026 are no longer exclusive to global sporting events. Software-defined infrastructure, private cloud deployments, ST 2110 networking, JPEG XS transport, HDR workflows, immersive audio and decentralised production are increasingly being adopted across sports broadcasting, live events, enterprise media and content creation.

These are also the technologies driving some of the most important conversations at ISE. As broadcast, AV and IT infrastructures continue to converge, the lessons learned from the world's largest sporting event become relevant to a much wider technology ecosystem.

The FIFA World Cup 2026 is not simply demonstrating how to broadcast football. It is demonstrating how the future of media production will operate: software-driven, cloud-enabled, IP-connected and increasingly independent of physical location.

For the broadcast community gathering at ISE, that future is already here.

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Further reading

Learn more about broadcast solutions at ISE.