ECHOSTAR 17

NORAD 38551· COSPAR 2012-035A· Active satellite· Communications· GEO
Launch
Launched on Jul 5, 2012 from Ariane Launch Area 3, French Guiana aboard a Ariane 5 ECA.
Ariane 5 ECA | Echostar XVII & MSG-3
Live · TLE epoch 2026-07-13 07:29 UTC
Orbit class
GEO — Geostationary (~35,786 km, equatorial)
Operator
Q1280748
Country
United States
Manufacturer
Launched
Jul 5, 2012
Mass
Apogee
35,804 km
Perigee
35,786 km
Inclination
0.00°
Period
23.94 h

About ECHOSTAR 17

EchoStar 17, cataloged by NORAD under identifier 38551 and internationally designated 2012-035A, is an American geostationary communications satellite operated by Hughes Network Systems, a subsidiary of the EchoStar Corporation. Launched on July 4, 2012, the spacecraft occupies a fixed position in the geostationary arc and provides broadband internet connectivity across North America under the HughesNet service brand. It is also referred to by the name Jupiter 1, reflecting Hughes Network Systems' internal product branding for its high-throughput satellite internet platform. As of the time of writing, the satellite remains operational in orbit.

Mission and Purpose

EchoStar 17 was designed to serve as a high-throughput satellite (HTS), a class of communications spacecraft distinguished by its use of multiple narrowly focused spot beams and aggressive frequency reuse to deliver substantially greater aggregate data capacity than conventional wide-beam satellites of earlier generations. Rather than broadcasting a broad signal across an entire continent, an HTS platform like EchoStar 17 divides its coverage footprint into dozens of discrete cells, each reusing the same spectrum independently of neighboring cells. This architecture allows the satellite to support far more simultaneous users and offer higher individual connection speeds than its predecessors could achieve.

The primary commercial application of EchoStar 17 is residential and small-business satellite internet service delivered through the HughesNet platform. HughesNet has long been one of the dominant providers of satellite-based broadband in the United States, particularly serving rural and remote communities where terrestrial broadband infrastructure — cable, fiber, or fixed wireless — is absent or economically impractical to deploy. By providing connectivity from geostationary orbit, EchoStar 17 can reach users across a vast geographic area from a single orbital position, making it a practical solution for last-mile connectivity challenges.

The satellite's position at 107.1° West longitude in the geostationary belt places it over the equatorial plane above the Americas, giving it a favorable viewing angle for customer terminals distributed across the contiguous United States as well as portions of Canada and other parts of the Western Hemisphere. Customer dish antennas are pointed at a fixed point in the sky corresponding to this orbital slot, taking advantage of the satellite's apparent stationarity relative to Earth's surface.

Orbit and Tracking

EchoStar 17 operates in a geostationary orbit, a specialized circular orbit at an altitude where a satellite's orbital period matches Earth's rotational period exactly. The spacecraft's current tracked orbital parameters reflect this precisely: an apogee of 35,803 km, a perigee of 35,789 km, an inclination of 0.0°, and an orbital period of approximately 1,436.2 minutes — virtually identical to a sidereal day. The minimal difference between apogee and perigee confirms that the orbit is very nearly circular, as expected for a geostationary spacecraft that must maintain a fixed apparent position in the sky.

The near-zero inclination is a defining characteristic of the geostationary orbit. Any significant deviation from 0.0° inclination would cause the satellite to trace a figure-eight path, known as an analemma, as seen from the ground, drifting north and south over the course of each day. This would complicate the use of fixed, non-tracking customer terminals. Operators of geostationary satellites routinely perform north-south stationkeeping maneuvers using onboard propulsion to counteract the gravitational perturbations of the Moon and Sun, which naturally tend to increase orbital inclination over time. The inclination value recorded in the catalog at 0.0° indicates that EchoStar 17 is being actively maintained in its operational slot, consistent with a satellite that remains in commercial service.

East-west stationkeeping maneuvers are similarly required to hold the satellite at its designated longitude of 107.1° West, counteracting perturbations that would otherwise cause the spacecraft to drift toward one of two stable equilibrium points in the geostationary belt driven by Earth's slightly non-uniform equatorial gravitational field. The precision of modern stationkeeping means that the satellite remains within a tightly controlled box around its nominal position, ensuring consistent antenna pointing for ground users.

From a tracking perspective, geostationary satellites present a different profile than low Earth orbit objects. They do not rise and set as seen from a fixed point on the ground but instead remain essentially stationary in the sky. This makes them straightforward to acquire with a fixed dish but largely uninteresting as visual observing targets compared to satellites in lower, faster orbits.

Design and Operator

EchoStar 17 was built for EchoStar and is operated by Hughes Network Systems, the satellite internet division of EchoStar. Hughes Network Systems has been a significant player in the satellite broadband industry for decades, having pioneered early consumer-grade satellite internet services before transitioning to successive generations of increasingly capable high-throughput platforms. EchoStar 17 represented a major leap in that progression when it was introduced, substantially expanding available capacity for HughesNet subscribers compared to the equipment it effectively supplemented or replaced.

The manufacturer of the satellite bus and payload is not recorded in the public catalog entry for this object. High-throughput geostationary communications satellites of EchoStar 17's generation are typically complex spacecraft with sophisticated onboard electronics, large deployable reflector antennas for generating spot beams, and substantial onboard propellant reserves for years of stationkeeping operations — but specific details of the platform's construction are not publicly confirmed in the available catalog data and are therefore not stated here as fact.

The satellite's mass is likewise not recorded in the catalog. Communications satellites of this class and era generally range across a wide spectrum of launch masses, and without a verified figure it would be inappropriate to characterize the spacecraft's size beyond what is known. What is confirmed is that it was launched on July 4, 2012, entering service as a commercial HTS asset serving the North American broadband market.

EchoStar Corporation, the parent of Hughes Network Systems, is a United States-based company with a broad portfolio of satellite assets and related businesses. The attribution of EchoStar 17 to a U.S. owner and operator is consistent with its role as a commercial communications satellite licensed and operated under American regulatory frameworks, including coordination through the Federal Communications Commission and International Telecommunication Union processes that govern orbital slot assignments and frequency rights.

Significance and Current Status

When EchoStar 17 entered service, it was recognized as one of the most capable commercial communications satellites of its time in terms of aggregate throughput capacity. The deployment of high-throughput satellite technology at the scale represented by EchoStar 17 marked a meaningful inflection point in the satellite internet industry, demonstrating that geostationary broadband could be delivered at speeds and capacities that made it genuinely competitive — at least in bandwidth terms — with terrestrial alternatives for residential users. This positioned HughesNet to offer service tiers that had been difficult to support on earlier generations of less capable spacecraft.

The satellite's operational longevity illustrates a broader characteristic of geostationary communications satellites: when designed and built to high standards and placed in the relatively benign environment of the geostationary belt, these spacecraft are routinely expected to operate for fifteen years or more, limited primarily by onboard fuel reserves for stationkeeping rather than by the degradation of electronic components. EchoStar 17 remains in orbit and, based on available catalog data, continues to be maintained at its operational slot.

The broader context of EchoStar 17's legacy includes its role in establishing the Jupiter platform brand within Hughes Network Systems, a designation that carried forward into subsequent satellite generations. Each successive Jupiter satellite built upon the high-throughput architecture that EchoStar 17 helped pioneer at commercial scale for the HughesNet customer base. In this sense, EchoStar 17 is not merely an individual spacecraft but a milestone in the iterative development of satellite broadband infrastructure serving parts of North America that remain underserved by ground-based networks.

For researchers and satellite enthusiasts, EchoStar 17 is most readily identified through its NORAD catalog number 38551 and COSPAR designator 2012-035A. Its geostationary orbit means that its position in the sky is effectively fixed for observers in its coverage area — located in the southern sky for North American observers, positioned along the arc of the geostationary belt at a point corresponding to its 107.1° West orbital slot. While it is not a target for visual observation in the way that low Earth orbit satellites are, its catalog entry remains a reference point for anyone tracking the populated geostationary arc and the history of commercial broadband satellite deployment.

Related satellites

Sources & further reading

Embed this satellite on your site

Free for editorial use. Attribution back to LowEarth is required.

<iframe src="https://lowearth.app/embed/38551" width="640" height="400" frameborder="0" allow="fullscreen"></iframe>