Russia is making substantial progress toward the creation of its own satellite broadband network. Bureau 1440 introduced three subscriber terminal models in early October 2026 that are intended to facilitate the connection of users to the Rassvet low-Earth-orbit (LEO) satellite constellation, which is currently under development. The announcement represents an important achievement for a project that is often referred to as Russia’s response to SpaceX’s Starlink.
The three terminals are designed to serve a variety of markets, including industrial facilities, remote settlements, high-speed trains, and emergency-response operations. Russia is not only building the satellites themselves but also the ground equipment necessary to transform an orbital communications network into a practical service, as evidenced by their introduction.
However, one headline figure requires careful interpretation: the flagship 1440.ULTRA terminal is advertised as capable of delivering data speeds of up to 700 Mbps. The ULTRA terminal is presented as having the capacity to transmit data at speeds of up to 700 Mbps.
Three terminals for three different markets
The 1440.ULTRA, the premier model, is specifically engineered for infrastructure facilities, remote territories, and industrial enterprises. It is designed to function in challenging environmental conditions and boasts a maximum data rate of 700 Mbps. Under the specified test conditions, its IP67 protection rating guarantees resistance to dust and temporary immersion in water.
It is reported that the production version maintains the dimensions of its pre-production predecessor, but it weighs approximately one-third less. This reduction has the potential to facilitate installation and transportation, particularly in remote industrial sites where conventional communications infrastructure is challenging to establish.
The second model, 1440.ZEMLYA, is expressly engineered for railway applications. It is currently undergoing testing on Russian Railroads trains and is designed to ensure connectivity at train velocities of up to 400 km/h.
Upon successful deployment, the system has the potential to offer internet access to passengers on long-distance services and, in the future, high-speed trains. The terminal and network must be able to adapt to quick variations in satellite visibility, train movement, vibration, and signal conditions in order to maintain a stable satellite connection at these speeds.
The third product, 1440.MINI, has been introduced as a concept. It is designed to operate at a data rate of approximately 100 Mbps and measures approximately 30 × 30 centimeters. It is designed for rescue teams, emergency services, and geological expeditions, where portability and low power consumption may be more critical than maximal bandwidth.
The three designs collectively indicate that Bureau 1440 is adopting a specialized terminal strategy, as opposed to relying solely on a single universal device.
Starlink versus Rassvet: Is 700 Mbps truly faster?
It is inevitable that a comparison with Starlink will be made; however, the two systems are in completely different developmental stages.
Starlink is a commercial network that has been in operation for many years and boasts a vast array of satellites. Depending on the service plan, location, network congestion, and terminal, download speeds for numerous residential customers typically range from 100 to 200 Mbps or higher. Typically, upload speeds are lesser, typically ranging from 10 to 40 Mbps. Although performance fluctuates, land-based latency is frequently quantified in tens of milliseconds.
Starlink speeds vary significantly among service tiers, countries, and network conditions; therefore, these figures are merely indicative rather than universal.
In light of this, the 700 Mbps terminal specification for Rassvet is remarkable. The raw download throughput of the typical residential Starlink connection could be surpassed if the Russian system is able to consistently deliver that performance under comparable conditions.
However, there are three distinct potential outcomes.
Rassvet has the potential to offer satellite broadband that is exceptionally fast if it is capable of delivering nearly 700 Mbps in typical commercial applications. It would remain competitive with many existing satellite internet connections even if the typical speeds were to reach 200–300 Mbps. The actual user experience may be slower than that of Starlink if performance is reduced to 50–100 Mbps due to congestion or limited satellite capacity.
But three different outcomes remain possible.
The main distinction is between the maximum capacity of a terminal and the capacity that is available from the entire communications network. A terminal may be capable of supporting a specific peak data rate; however, the satellite, radio spectrum, ground infrastructure, and network allocation must all be capable of providing that bandwidth. It is also possible for multiple users to share the available capacity.
As a result, the 700 Mbps figure should not be considered a guaranteed speed for each subscriber. The Russian system’s sustained real-world download speeds, upload performance, latency, or peak-hour performance are not established by the publicly available information presented with the announcement.
Therefore, Starlink maintains an important advantage in terms of operational performance that has been demonstrated. Rassvet’s competitiveness will ultimately be determined by independent measurements following the commercialization of its network.
A wider contest in satellite communications
Starlink is not the only international competitor. Eutelsat OneWeb is a low-earth orbit (LEO) satellite network that is primarily focused on enterprise, government, and connectivity-service partners. Another significant endeavor to establish a competing broadband constellation is Amazon’s Project Kuiper, which has been rebranded as Amazon Leo. A secure connectivity system for multiple orbits, known as IRIS², is also being developed by the European Union.
Nevertheless, Starlink’s established consumer service and scale provide it with an edge. Rassvet must demonstrate its ability to integrate satellite production, launches, network management, ground infrastructure, and affordable terminals into a commercially viable system.
The strategic importance of residential internet access is not the only consideration for Russia. In regions where terrestrial connectivity is either prohibitively expensive or impractical, a domestically controlled satellite network could provide support for remote communities, transport connections, industrial facilities, and infrastructure.
The 1440.ZEMLYA railway terminal is particularly noteworthy due to the challenging engineering application of ensuring reliable connectivity on high-speed trains. In contrast, the 1440.MINI concept is indicative of emergency communications and field operations in areas where conventional networks may be unavailable.
The real test lies ahead
Hardware specifications alone are insufficient to determine whether Rassvet will be comparable with Starlink’s economics, reliability, or performance.
The critical questions are as follows: the number of satellites that will be operational, the amount of network capacity that will be available, the cost of subscription services, and the results of independent speed tests once commercial operations commence.
Rassvet is an emerging competitor with ambitious technical objectives, while Starlink is the proved leader at present. The 700 Mbps specification provides a glimpse of Russia’s aspirations; however, the extent to which it translates into a genuine performance advantage will only be apparent once users have the opportunity to test the system in real-world scenarios.