Tag Archive for: remote work

Ernest Pozzoni — article author

(Image credit: Hughes)

Hughes Network Systems has introduced a new family of ruggedised transportable satellite terminal cases for the Eutelsat OneWeb network, underlining the growing demand for resilient field connectivity solutions. The new IP67-rated pop-up cases, engineered in partnership with C-COM Satellite Systems, house electronically steerable antenna (ESA) terminals that are designed to support rapid deployment in challenging environments.

The ruggedised cases extend the usability of Hughes’ transportable ESA terminals by protecting them from dust, water and impact during field operations. Certified by Eutelsat for communications-on-the-pause, the terminals enable broadband connectivity when stationary, serving teams that need reliable links for data, voice and video in remote or temporary locations.

With a plug-and-play design, users can set up the terminals quickly, helping reduce the time between arriving on site and establishing a live connection. This is particularly relevant for sectors that operate in austere conditions or where network availability is unpredictable. Use cases range from emergency response teams coordinating Disaster Recovery efforts, to land-based oil and gas operators engaged in Mining & Exploration activities in regions with limited terrestrial infrastructure.

The solution is also aimed at mobile network operators deploying cell-on-wheels (COW) units to restore or augment coverage after incidents or during high-demand periods. By integrating satellite backhaul, COWs can maintain services when fibre or microwave links are unavailable, ensuring continuity for public safety agencies, enterprises and communities.

Beyond crisis response, the terminals can support ongoing operations in industries such as Energy & Offshore, Maritime logistics, Infrastructure and IoT, Smart Agriculture and Remote Work sites, where consistent connectivity is required to link sensors, remote teams and central control centres. The combination of a transportable form factor, environmental protection and satellite coverage aims to give organisations more flexibility in how and where they connect.

As demand grows for robust, easily deployable satellite connectivity, solutions like these ruggedised transportable terminal cases are likely to play a role in expanding access to high-throughput services for both public and private sector users. By combining hardened hardware with low-Earth-orbit capacity, Hughes and its partners are positioning to meet evolving requirements for resilient field connectivity solutions.

Ernest Pozzoni — article author

(Image generated with DeepAI)

The United Kingdom communications regulator Ofcom has set out a new UK D2D regulatory framework that will allow satellite direct-to-device services to operate using existing mobile spectrum bands. The move opens the door for mobile network operators to partner with satellite providers so that ordinary handsets can stay connected in areas with little or no terrestrial coverage. This is significant for sectors such as Maritime operations, Energy & Offshore projects and Disaster Recovery work, where reliable links are often difficult to maintain.

Published on 9 December 2025, the framework explains how mobile network operators can request changes to their licences in order to add direct-to-device capability. Ofcom has also detailed technical conditions designed to prevent harmful interference, including measures to protect air traffic control systems and to avoid disruption to mobile services in neighbouring countries. The regulator describes the framework as an important step towards extending connectivity without extensive new ground infrastructure.

Ofcom notes that mobile operators are already working to bring commercial services to market. The regulator highlighted initiatives that aim to make the United Kingdom the first country in Western Europe with broad access to satellite direct-to-device connectivity. By combining terrestrial and space-based networks, operators hope to offer more resilient communications for communities, businesses and public services, including those supporting Telemedicine, remote logistics and critical Infrastructure and IoT assets.

Internationally, the United States Federal Communications Commission adopted a similar framework in 2024, followed by Canada. Regulators in other regions, including parts of Europe, Africa and Asia, are now developing their own approaches. Ukraine has already launched nationwide services, with mobile operator Kyivstar collaborating with Starlink to support users in hard-to-reach locations.

In the British market, Virgin Media O2 plans to work with Starlink under its O2 Satellite initiative, while Vodafone has a commercial agreement with AST SpaceMobile that includes the U.K. At the same time, certain Apple smartphones already allow customers to send emergency texts and share locations via satellite outside this framework. The UK D2D regulatory framework is therefore intended to provide a clear basis for future services as satellite direct-to-device technology becomes more integrated into everyday communications.

Ernest Pozzoni — article author

(Image generated with DeepAI)

A new approach to direct-to-device (D2D) connectivity proposes satellites as shared infrastructure—much like terrestrial cell towers—coordinated by a shared spectrum D2D ecosystem rather than a single vertically integrated player. The concept aggregates mobile satellite spectrum already allocated across scores of markets, aiming to deliver consumer-grade messaging first, then data services, within a three-year window.

Under this model, multiple participants contribute spectrum while retaining ownership, with operations orchestrated to maximise regional availability and uphold national sovereignty. Technically, the blueprint combines in-orbit assets with new Low-Earth Orbit capacity, stitching them through common standards and interoperable gateways. The draw for policymakers is clear: an open framework that lets countries and spectrum holders participate on equitable terms without ceding control.

For the wider market, shared access reduces duplication and lowers the barrier to entry for mobile network operators, chipmakers, device OEMs, and app providers. Adoption hurdles remain—while 3GPP now includes several MSS bands, handset support is still concentrated in higher-end models—but a phased service plan (starting with SMS/MMS and short media, expanding to IP data) can ramp usage as device compatibility broadens.

The industrial upside is immediate. Infrastructure and IoT estates gain resilient, standards-based fall-back for telemetry, alarms, and control where terrestrial reach is patchy. Disaster Recovery teams benefit from an on-ramp that works on ordinary smartphones, enabling coordination when fibre and cellular fail. Maritime corridors, remote workforces, and transport routes can all exploit ubiquitous coverage without bespoke satellite handsets.

Success hinges on governance as much as radios. Clear rules for spectrum coordination, lawful intercept, roaming, and interference mitigation are essential, alongside common APIs for provisioning, billing, and network slicing. Security baselines must cover device attestation, fraud controls, and end-to-end encryption, while performance SLAs should reflect realistic capacity during surge events.

If executed well, the architecture could complement national strategies seeking vendor diversity and sovereign control, while accelerating handset-native satellite capability across the ecosystem. With timelines ambitious and details still emerging, the prize is a more inclusive market—one where multiple providers interoperate on shared infrastructure inside a shared spectrum D2D ecosystem.

Ernest Pozzoni — article author

Image generated with DeepAI

The satellite industry is undergoing a transformative shift as mobile and satellite networks begin to converge, creating a path toward global connectivity that is broader, more resilient, and more inclusive. This satellite mobile convergence is not just a technological evolution—it’s a necessary step to address long-standing coverage gaps and meet the growing demands of both people and connected devices.

Over 100 partnerships between mobile operators and satellite providers now cover more than 70% of global mobile subscribers. These collaborations are enabling SMS, voice, and eventually broadband-level access in regions previously unreachable by terrestrial infrastructure—especially for sectors like Remote Work and Smart Agriculture, where consistent access is operationally critical.

One of the most promising developments is the rise of Direct-to-Device (D2D) services. By embedding satellite compatibility directly into consumer smartphones, emergency responders, travellers, and communities in remote areas gain access to reliable communications—even in the absence of terrestrial coverage. Global OEMs like Apple and Google are already integrating these capabilities, while regulatory bodies begin to adapt frameworks to support their deployment.

The potential of satellite IoT is equally significant. Satellite-enabled modules for agriculture, logistics, and energy infrastructure allow low-data IoT devices to transmit critical insights from anywhere on the planet. With up to 3 billion IoT devices expected to be addressable by satellite by 2030, the long-term value of satellite IoT connectivity is expected to generate billions in annual revenue.

Organisations like the GSMA and ESA are now focusing on standardising technology, streamlining interworking between terrestrial and non-terrestrial networks, and enabling dynamic, multi-orbit service models. The industry is aligned around a common goal: to build interoperable, hybrid networks capable of delivering continuous, high-quality coverage regardless of geography.

As momentum builds, satellite mobile convergence is becoming a strategic priority—not just for telecoms, but for governments, humanitarian actors, and industries that rely on connectivity as a foundation for service delivery and economic resilience.