EUTELSAT KONNECT VHTS

NORAD 53765· COSPAR 2022-110A· Active satellite· Communications· GEO
Launch
Launched on Sep 7, 2022 from Ariane Launch Area 3, French Guiana aboard a Ariane 5 ECA+.
Ariane 5 ECA+ | Eutelsat Konnect VHTS
EUTELSAT KONNECT VHTS
ESA/ARIANESPACE/CNES · CC0 · via Wikimedia Commons
Live · TLE epoch 2026-07-13 13:28 UTC
Orbit class
GEO — Geostationary (~35,786 km, equatorial)
Operator
Eutelsat
Country
Eutelsat
Manufacturer
Thales Alenia Space
Launched
Sep 7, 2022
Mass
6,396 kg
Apogee
35,807 km
Perigee
35,784 km
Inclination
0.06°
Period
23.94 h

About EUTELSAT KONNECT VHTS

Eutelsat Konnect VHTS is a geostationary communications satellite operated by the French satellite company Eutelsat. Launched in September 2022 aboard a commercial launch vehicle, it represents one of the most capable broadband communications platforms placed into geostationary orbit by a European operator. Catalogued by the United States Space Force under NORAD ID 53765 and carrying the international designator 2022-110A, the spacecraft has a launch mass of 6,396 kg and remains operational in geostationary orbit as of the time of writing. Its development reflects a broader industry shift toward very high throughput satellite architectures capable of serving diverse connectivity markets simultaneously from a single platform.

Mission and purpose

The primary purpose of Eutelsat Konnect VHTS is to deliver high-capacity broadband internet services to end users across a service footprint spanning Europe, North Africa, and the Middle East. The designation "VHTS" stands for Very High Throughput Satellite, a category that distinguishes platforms capable of aggregate data rates far exceeding those of conventional or earlier-generation high-throughput satellites. In this case, the satellite is capable of a total throughput of 500 Gbit/s across the Ka-band frequency spectrum — a figure that placed it among the highest-capacity commercial communications satellites in operation at the time of its launch.

The satellite's mission scope is deliberately broad. Rather than serving a single commercial segment, Eutelsat designed the platform to address several distinct user communities. Consumer and enterprise broadband connectivity forms the core commercial use case, serving households and businesses in areas where terrestrial infrastructure is limited or unavailable. Beyond fixed broadband, the satellite supports in-flight connectivity for commercial aviation, maritime broadband for vessels operating across the Mediterranean and surrounding waters, and secure communications channels intended for government and institutional users. This multi-market design philosophy is enabled in large part by the flexibility of the satellite's onboard signal processing architecture, which allows resources to be dynamically reallocated between beams and services in response to shifting demand patterns.

The Ka-band is the primary operating frequency band. Ka-band systems offer high data throughput by operating at higher frequencies than traditional Ku-band or C-band satellites, though they are more susceptible to signal degradation in heavy rain. The Konnect VHTS platform addresses this characteristic through frequency reuse across a large number of spot beams, effectively concentrating capacity where it is most needed and compensating for propagation losses in affected areas.

Orbit and tracking

Eutelsat Konnect VHTS occupies a geostationary orbit, a regime in which a satellite's orbital period matches the Earth's rotation, causing the spacecraft to remain effectively stationary over a fixed point on the equator when viewed from the ground. This is the standard orbital class for commercial communications satellites providing fixed services, as it eliminates the need for steerable antennas at ground terminals.

As tracked by the LowEarth catalog, the satellite's current orbital parameters reflect a well-maintained geostationary slot. The apogee stands at 35,808 km and the perigee at 35,781 km, indicating a very nearly circular orbit at the canonical geostationary altitude of approximately 35,786 km above the equator. The slight difference between apogee and perigee values is consistent with normal station-keeping tolerances maintained by operational geostationary satellites. The orbital inclination is recorded at 0.1°, which is extremely close to true equatorial alignment — again consistent with active station-keeping maneuvers routinely performed by operational payloads to prevent the orbital plane from drifting due to gravitational perturbations from the Moon and Sun. The orbital period of 1,436.1 minutes is essentially synchronous with one sidereal day, confirming the satellite's geostationary character.

The satellite was launched on September 6, 2022, and has remained in orbit continuously since that date. No decay or reentry event has been recorded. All electric propulsion systems typical of modern geostationary platforms require an extended transfer phase from the injection orbit to the final geostationary slot, meaning some weeks elapsed between launch and the satellite reaching its operational position.

Design and operator

Eutelsat Konnect VHTS was designed and manufactured by Thales Alenia Space, a Franco-Italian aerospace company and one of the principal builders of large geostationary communications satellites in Europe. The spacecraft was constructed on the Spacebus NEO platform, which is Thales Alenia Space's all-electric satellite bus. The all-electric designation indicates that the satellite relies entirely on electric propulsion — specifically, ion or Hall-effect thrusters — rather than conventional chemical propulsion for both orbit raising and on-station station-keeping. This approach significantly reduces the amount of propellant mass the satellite must carry, which in turn allows more of the overall launch mass to be allocated to the communications payload. The trade-off is a longer transfer time from the injection orbit to geostationary altitude, typically several months, compared to the weeks required by a traditional chemical propulsion system.

A particularly notable technical aspect of the satellite is its onboard digital processor, which at the time of launch was reported to be the most powerful such processor ever flown on a communications satellite. Digital signal processing at this level of capability enables the satellite to perform flexible beam forming and dynamic bandwidth allocation, assigning capacity across the coverage area in real time as traffic demands shift. This is a fundamental departure from traditional bent-pipe satellite architectures, in which signal routing and power allocation are fixed at the time of manufacture.

With a launch mass of 6,396 kg, the spacecraft sits in the upper tier of commercial geostationary satellite mass classes, consistent with the scale of payload hardware required to support 500 Gbit/s aggregate throughput. The Spacebus NEO platform was developed specifically to accommodate high-mass, high-power payloads while realizing the propellant savings of all-electric propulsion.

Eutelsat, the operating entity, is a Paris-headquartered satellite operator with a fleet of geostationary satellites providing services across Europe, Africa, the Middle East, Asia, and the Americas. The company has historically focused on direct-to-home broadcasting and broadband connectivity, with Konnect VHTS representing an evolution of its broadband strategy toward higher-capacity, more flexible platforms. In 2023, Eutelsat completed a merger with OneWeb, giving the combined company a presence in both geostationary and low Earth orbit broadband markets, though that development postdates the satellite's launch and does not alter the satellite's own operational characteristics.

Significance and current status

Eutelsat Konnect VHTS occupies a meaningful position in the history of European commercial satellite development for several reasons. Its aggregate throughput of 500 Gbit/s was among the highest achieved by any single geostationary satellite at the time it entered service, illustrating how dramatically the capacity ceiling of individual spacecraft had risen over the preceding decade. The combination of all-electric propulsion, digital on-board processing, and multi-market service capability on a single platform captures the design philosophy that has come to define the most advanced generation of commercial geostationary satellites in the 2020s.

From a market perspective, the satellite was positioned partly as a response to growing demand for broadband services in underserved European regions, as well as competition from low Earth orbit broadband constellations that have begun to challenge traditional geostationary operators in the consumer market. The flexibility afforded by dynamic beam management and multi-service capability gives operators like Eutelsat a tool to serve different revenue streams without dedicating separate spacecraft to each.

The satellite's mission type and operational status are not publicly detailed in the NORAD catalog record, which lists both fields as unknown. Publicly available commercial and regulatory filings confirm the satellite is operational, but fine-grained status data — such as the precise geostationary longitude of the satellite's assigned slot — is not reflected in the verified tracking parameters available here.

As an all-electric platform, Eutelsat Konnect VHTS has an operational design life typical of modern Spacebus NEO satellites, which are generally designed to remain in service for 15 years or more, with on-board propellant budgeted accordingly. The satellite is expected to remain in geostationary orbit for the foreseeable future, with any eventual disposal following standard end-of-life procedures in which residual propellant is used to raise the spacecraft into a graveyard orbit above the geostationary belt, clearing the operational slot for successor satellites.

Given that the satellite is in geostationary orbit and carries no reflective surface that would make it unusually bright against the night sky, it is not a practical target for naked-eye observation and no dedicated visual spotting guidance is provided here. It may be detected by telescopic means at its fixed geostationary position by experienced observers, but this requires specialized equipment and precise knowledge of the satellite's assigned longitude, which is not captured in the catalog parameters used by this page.

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