#Satellite downlink serial#

The Bottom LineĪs in-space data generation capabilities improve, downlinking via lasers is expected to play a significant role in easing up the bottleneck that currently exists within RF data pipes. And this is reflected in the industry: optical ground station networks are only one of several new proposed business models in the move towards offering economic downlink services: complementary approaches such as the leveraging of unused antenna time across a network and phased array antennas could provide potential alternatives to customers.

It is important that alongside technology innovations, newer business models that ensure manageable operating costs are brought into the mix to meet the long-term demand for downlink services. While the engineering considerations of such undertakings are well established, particularly as it pertains to availability of an optical DTE link due to atmospheric and cloud cover effects, the market considerations are much less discussed: availability of ground stations will be a key enabler for site diversity, for instance. And across the pond, we have already seen a PPP success story for optical satcom: the European Data Relay System (EDRS), that has provided data relay to the Copernicus program through Airbus’ SpaceDataHighway. ATLAS Space Operations was the sole small business granted this study, as part of the Empower Space Alliance to investigate future RF/optical satcom systems. On the other hand, the data downlink market has more moving parts, with service providers tackling the space-ground data transport problem in multiple ways.Įarlier this month, for instance, NASA’s Space Communication and Navigation (SCaN) program selected 8 companies to study space-based relay system partnerships and practices.

#Satellite downlink serial#

LEO constellations offer a pure volume-play for LCT equipment vendors, who can target this market by ramping up serial production capabilities, accelerated via partnerships or the adoption of heritage technology.

This is expected to become increasingly crucial as next generation high revisit/high resolution EO systems come online. While more than 90% of this market will be driven by LCT manufacturers securing initial contracts with upcoming mega-constellations, the fact that lasers excel in point-to-point communications will pave the way for optical satcom in the Space-to-Ground downlink market via data relay systems or direct-to-Earth datalinks from sensor data payloads, of which Earth Observation (EO) applications make up the largest share. However, the question of how lasercom will fit into the larger satcom ecosystem is much less discussed, as is the total cost of ownership of a laser terminal/link as opposed to an RF solution.Īccording to NSR’s Optical Satellite Communications report, more than 11,000 LCTs are expected to be deployed cumulatively by 2028, generating nearly $4 billion in revenues.

The advantages of optical communications as a technology and the problems of link availability are often cited in comparison to traditional satcom, with particular depth devoted to the high security and bandwidth of optical beams. While the optical satcom market is far from being established, there is a healthy dynamic of early stage and emerging startups/companies using lasers to address the data downlink bottleneck, as well as inter-satellite links (ISLs) in proposed mega-constellations. This has led to the rise of a number of commercial optical communication solutions providers: these laser communication terminal (LCT) solution providers range from specialized manufacturers to vertically integrated data relay system / ground network providers looking into in-house development of space-based LCTs. The last few years have seen increasing interest in space-based optical communications, driven by the convergence of multiple trends: rising small satellite data volumes, increasing security concerns and Radio Frequency (RF) spectrum congestion, to name a few. Satellite Data Downlinking: The Case for Lasers