EXPRESS-AT1

NORAD 39612· COSPAR 2014-010A· Active satellite· Communications· GEO
Launch
Launched on Mar 15, 2014 from 81/24 (81P), Kazakhstan aboard a Proton-M Briz-M.
Proton-M Briz-M | Ekspress-AT1 & Ekspress-AT2
Live · TLE epoch 2026-07-13 12:03 UTC
Orbit class
GEO — Geostationary (~35,786 km, equatorial)
Operator
Russian Satellite Communications Company
Country
Russia
Manufacturer
Thales Alenia Space
Launched
Mar 15, 2014
Mass
1,672 kg
Apogee
35,803 km
Perigee
35,766 km
Inclination
0.32°
Period
23.93 h

About EXPRESS-AT1

Ekspress-AT1 (also catalogued under its Russian-language transliteration as Ekspress-AT1, with NORAD ID 39612 and international designator 2014-010A) is a Russian geostationary communications satellite dedicated to direct-to-home (DTH) television broadcasting. Owned and operated by the Russian Satellite Communications Company (RSCC), it forms part of the long-running Ekspress series of geostationary telecommunications platforms that have served as a backbone of Russian broadcast infrastructure for decades. The satellite was launched in March 2014 and remains in service in geostationary orbit above the equator, delivering broadcast signals across its coverage footprint.

Mission and Purpose

Ekspress-AT1 was conceived and built to serve the direct-to-home television broadcasting market, a sector that requires reliable, high-power geostationary platforms capable of transmitting signals directly to consumer-grade receiving dishes at residential and commercial premises. Unlike satellites that relay point-to-point communications between large ground stations, DTH satellites must maintain consistent, wide-area coverage over densely populated regions, placing significant demands on transponder power and antenna design.

The satellite is one of a pair — designated AT1 — within the Ekspress-AT sub-series, a specialised branch of the broader Ekspress family tailored specifically for broadcast applications. The Ekspress programme has historically been Russia's primary state-sanctioned vehicle for developing and deploying geostationary communications capacity, and the AT variants represent a focused effort to modernise and expand the country's DTH capabilities as demand for satellite-delivered television grew substantially in the 2010s.

RSCC, as the operating organisation, is a federally oriented enterprise responsible for managing Russia's national satellite communications infrastructure. Its fleet of Ekspress satellites collectively provides television broadcasting, broadband data relay, and government communications services across the vast territory of Russia and surrounding regions — a geographic challenge for which geostationary satellites are particularly well suited, given their ability to serve a fixed coverage zone from a stationary orbital position.

The specific technical parameters of Ekspress-AT1's payload — such as the number of transponders, frequency bands, and effective isotropic radiated power — are not recorded in the public tracking catalog, and therefore precise figures are not stated here. What is publicly established is the satellite's role as a DTH broadcasting platform serving Russian audiences.

Orbit and Tracking

Ekspress-AT1 occupies a position in the geostationary belt, the ring of orbital slots approximately 35,786 kilometres above the equator where a satellite's orbital velocity matches the Earth's rotation, causing it to appear stationary relative to a ground observer. This characteristic is essential for broadcast applications, as receiving dishes can be fixed in a single direction without the need for tracking mechanisms.

The satellite's tracked orbital parameters confirm its geostationary placement. Its apogee stands at 35,803 km and its perigee at 35,770 km, indicating a near-circular orbit with only minimal eccentricity — a spread of just 33 kilometres between the highest and lowest points of its path. This tight circularity is typical of well-maintained operational geostationary satellites. The orbital inclination is 0.2°, a very slight deviation from the equatorial plane; a perfectly geostationary orbit would sit at exactly 0°, and the marginal inclination here reflects the natural perturbations that accumulate over time from gravitational influences of the Moon and Sun, managed through periodic station-keeping manoeuvres.

The orbital period of 1,435.7 minutes — approximately 23 hours and 56 minutes — aligns closely with one sidereal day, which is precisely the condition that produces the geosynchronous hover effect. As of the time of writing, Ekspress-AT1 remains in orbit and has not undergone any recorded decay or reentry.

For tracking purposes, the satellite is catalogued by the United States Space Surveillance Network under NORAD ID 39612, and its international COSPAR designation is 2014-010A, meaning it was the first object catalogued from the tenth launch of 2014. These identifiers allow operators, researchers, and tracking platforms to unambiguously distinguish it from other objects in the growing population of geostationary and near-geostationary debris.

Design and Operator

Ekspress-AT1 was manufactured by Thales Alenia Space, the Franco-Italian aerospace contractor that has produced a substantial portion of the world's commercial communications satellites. Thales Alenia Space brings extensive heritage in geostationary platform design, and its involvement in the Ekspress-AT programme reflects the international commercial partnerships that characterised Russian satellite procurement in the years surrounding the satellite's construction.

The satellite has a launch mass of 1,672 kg, placing it in the moderate-mass category for geostationary communications payloads — smaller than the heavyweight broadcast platforms operated by some commercial providers, but appropriately sized for its intended mission. Precise structural details, such as bus type, solar panel configuration, and design lifetime, are not confirmed in the public catalog record for this object.

RSCC, the satellite's owner and operator, functions as Russia's primary provider of satellite-based communications services and operates under a mandate that encompasses both commercial and state interests. The company manages orbital slot assignments coordinated through the International Telecommunication Union (ITU) filing process, which governs the allocation of geostationary positions and radio frequency spectrum to prevent interference between neighbouring satellites. Geostationary slots are a finite resource, and the AT1 position reflects a deliberate national investment in securing long-term broadcast capacity.

The Ekspress series as a whole has undergone considerable evolution since its origins, transitioning from older Soviet-era designs to modern platforms built with international industrial collaboration, a shift that Ekspress-AT1 exemplifies through its Thales Alenia Space heritage.

Current Status and Significance

Ekspress-AT1 was launched on 14 March 2014 (UTC-adjusted local launch time; the launch occurred during the evening hours of that date in Eastern time), entering service as part of a broader effort by RSCC to refresh and expand Russian geostationary capacity at a time when DTH television consumption was expanding rapidly. The satellite joined an orbital neighbourhood already populated by other Ekspress assets, contributing additional broadcast capacity to the national fleet.

As of the data reflected in the tracking catalog, the satellite remains in orbit. Its current mission and operational status are not confirmed in the public record — whether it continues to carry active broadcasting traffic, has been placed in a reduced-capacity or storage mode, or is otherwise operated in a modified configuration is not publicly documented in the sources available to this catalog. What can be stated with confidence is that it has not decayed or reentered the atmosphere and continues to be tracked in its geostationary position.

From a broader perspective, Ekspress-AT1 represents a significant chapter in Russian civil space infrastructure — a period in the early-to-mid 2010s when RSCC was actively modernising its fleet through partnerships with established Western satellite manufacturers. The satellite's placement in geostationary orbit ensures that, even if retired from active service, it will likely remain in or near its orbital slot for an extended period, as geostationary satellites are typically moved to a slightly higher "graveyard" orbit at end of life to vacate their operational slot for successors.

The satellite's contribution to Russian broadcasting capacity, its role in the Ekspress lineage, and its status as a product of international aerospace collaboration all lend it a modest but clear place in the record of early twenty-first century telecommunications satellite development.

Observing Ekspress-AT1

Geostationary satellites like Ekspress-AT1 are not typically candidates for naked-eye observation from the ground. Positioned roughly 35,800 km above the equator — nearly a hundred times farther away than the International Space Station — they appear as extremely faint, essentially stationary points of light that do not exhibit the swift angular motion associated with low Earth orbit objects. Under dark skies and with optical aid such as binoculars or a small telescope, geostationary satellites can sometimes be detected by experienced observers as very dim, fixed stars against the background of true stars — which themselves appear to drift slowly due to Earth's rotation, allowing the stationary satellite to be distinguished.

Because Ekspress-AT1 sits close to the geostationary belt at an inclination of only 0.2°, it moves negligibly relative to the Earth's surface. Tracking software, including the tools available on this site using the satellite's NORAD ID 39612, can provide precise azimuth and elevation data for any observer location to assist in pointing optical instruments. Observers at higher latitudes will find the geostationary belt lower on the southern horizon, while equatorial observers will see it passing nearly overhead. No flaring or brightness enhancement events typical of tumbling debris or certain low-orbit satellites are expected for an operational geostationary payload of this type.

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