As private 5G becomes the most cost-effective medium for extending remote live production, the conditions for its growing deployment are perfect. Not only is it increasingly replacing traditional SNG (Satellite News Gathering) and fixed cabling for bidirectional communications, but the requirement for secure, scalable and robust uplink connectivity can also rule out RF alternatives, including established DTT infrastructures as well as Wi-Fi.

Naturally, there are challenges, but their main impact has been to slow down the pace of trial and deployment with a sense that these can be overcome and that the ensuing benefits will justify the effort involved. Such challenges have come under familiar headings, such as infrastructure costs, network reliability, coverage, latency, signal interference, and security. Yet as these challenges are addressed, they can be converted into arguments in favor of 5G for remote production.

Compared with traditional SNG (Satellite News Gathering) vehicles, the infrastructure cost of private 5G networks can work out lower, most certainly for the distributed and temporary set ups increasingly featuring in remote production, and particularly live sports. Low latency enhanced by edge compute deployed close to the point of production has also become a motivating factor.

In addition, security has become a positive with deployment of private 5G networks, since these require SIM cards specific to the operation, which means all devices must be authenticated. Security is then rooted to the SIM card itself, just as for other enterprise private 5G networks.

Network Slicing

The real game changer has been the maturation of private 5G technology and infrastructure as this option is deployed more widely by enterprises across multiple use cases, including broadcasting. The original enterprise 5G proposition usually involved network slicing, where a public macro cellular network is carved up into multiple logical networks. In principle, each is capable of providing guaranteed QoS to meet the low latency and bit rate requirements of demanding applications such as video contribution from the field.

But the first generation of static network slicing was too inflexible for remote production because it required partitioning the network for a set period without scope for modifying capacity and QoS dynamically in near real time. Broadcasting required full dynamic network slicing configurable in software and allowing operating parameters to be modified quickly as needed to meet varying demands.

Delivering this more advanced version of network slicing has proved more complex than had been hoped or anticipated, which has opened the door to private 5G. This represented a failure on the part of mobile operators, which had pitched network slicing for opening up their networks to enterprises and providing the equivalent of a private 5G network but with the advantages of seamless integration with the public cellular infrastructure.

In the event, operators can - and sometimes are - involved in the provision of private 5G, but differing from slicing in that they deploy dedicated wireless network equipment at the enterprise customer’s site. This often uses RF spectrum set aside by regulators for such purposes, or donated from their own allocations.

Temporary Networks

Such private 5G can be a long-term deployment, or temporary to serve transient events. Among several recent examples, in April 2026, a US telco deployed a temporary private 5G network to support a reality TV production which it said enabled high-capacity live video, secure connectivity and faster post-production workflows.

This was to support production of the reality TV show Extracted in a remote area, in which a private 5G network was set up covering a four square mile (10 square km) production site. It featured Edge AI to help manage the large data volumes comprising over 100,000 hours of footage gathered during round the clock video capture, which had posed a massive post-production bottleneck. It was to address this bottleneck that FOX recruited the telco as a partner, as discussed in a panel demonstration at the NAB 2026 Show.

A private 5G network was set up on a temporary basis, covering the whole production area with a specification for low latency and high uplink capacity guaranteed by insulating the network from public cellular traffic. The network supported all production equipment, such as ENG cameras.

There were then some specific features for this set, such as integration between a live data API (Application Programming Interface) and 5G video encoders, along with smart phones, for tracking the location of contestants and cameras remotely in real time on a map. This allowed the Director to oversee the operation from the production base some distance away, while observing accurately where each contestant was in relation to the camera crew.

Private 5G itself is what has finally made cellular technology a compelling remote production option for broadcasters, whether for temporary or more permanent roaming systems, or even for fixed venues such as stadiums and arenas. That is a result of maturation, while offering both greater commercial and technical flexibility.

The network slicing alternative is naturally appealing to mobile operators because it offers new business and revenue by effectively emulating a private network within the public macro cellular infrastructure. But it restricts deployment to areas where the public network reaches and also brings dependency on the operator’s network for key performance and security related features.

Furthermore, it brings complexity with the need to partition the public network logically into different components, each potentially offering highly specific and individual qualities of service, varying over latency, bit rate and capacity. It requires fully dynamic 5G network slicing, configurable in real time with scope for changing QoS and service guarantees on the fly.

Such dynamic 5G network slicing is coming and will offer a genuine alternative for remote production, but it has not been much deployed yet beyond some trials. Meanwhile, private 5G is now hitting prime time.

Building Better Backhaul

Mobile operators can and do offer private 5G, as they did for Extracted in the previous example, but there is also the option to bypass them, in which case the network would need backhauling in other ways for longer distance connectivity back to the 5G Core network. It is also possible to have an entirely self-contained local private 5G network, or 5G in a box, which embodies the fixed core without any long distance backhaul.

However, broadcasters do generally need long distance backhaul to connect distributed remote production facilities and often require a combination of media to cater for varying localities. LEO (Low Earth Orbiting) satellite is becoming increasingly prevalent for trials and early deployments, as in the so-called Private 5G from Land to Sea to Sky, involving France Télévisions, which was an IBC 2025 Accelerator Media Innovation Program.

This also brought in the BBC and the EBU, with other partners including Eutelsat as a provider of LEO connectivity, potentially avoiding the need for connection to cellular networks on the ground.

As part of that project, in August 2025 France Télévisions covered the Bretagne Classic, a WorldTour cycle race, which combined a private 5G network from Neutral Wireless, live video contribution technology provider, and Eutelsat’s LEO connectivity in a single unified workflow. There was also scope for encompassing other forms of aerial backhaul transport in that workflow, such as tethered drones and other temporary sources of movable connectivity.

Less Latency With LEO

LEO though looks like having the biggest impact because of its ubiquity, avoiding the needed to deploy additional equipment such as drones or balloons. Apart from Eutelsat, Starlink, OneWeb and Amazon Leo are the principal providers.

Of these, Starlink has been most dominant so far largely because of its lead in deployment and is involved in a number of partnerships with telcos in provision of backhaul connectivity for private 5G, as well as enterprises themselves. Among recent collaborations, a German telco in April 2026 launched a satellite-based backhaul service for business customers using just the Starlink LEO constellation. A key selling point, according to the telco, is the provision of a complete hand holding service, noting that while it is easy to deploy Starlink dishes, it is harder to connect these securely into a corporate network with dedicated IP addressing, enterprise-grade routing, and strong encryption.

This service is targeting enterprises with remote sites, which includes offshore wind farms, grids, mines, and agriculture, as well as broadcasting, all of which previously required either expensive physical fiber cabling, or typically GEO satellite links. With LEO it is easier to meet latency budgets because round trip distances are much shorter, typically around 25,000 Km (16,000 miles) against 72,000 Km (45,000 miles) for GEO. That equates to a saving of up to 500 ms when all sources of delay are taken into account, not just the point-to-point signal transmission time.

There will be more such developments, building momentum behind private 5G for remote connectivity generally, including broadcast production.