Ookla recently published a blog that looks at the speed performance of satellite broadband, focusing mostly on Starlink. I haven't looked at this broadband sector for a while and thought it was time for an update. Starlink has had a busy year. At the end of November, the company had 5,500 satellites in orbit, up from over 3,200 at the end of 2022. The first constellation is still slated to reach almost 12,000 satellites, and the company has tentative permission from the FCC to extend to 42,000.
For well over a decade, it was fairly easy to understand the trajectory of the broadband industry. In the residential market, cable companies snagged all the growth while telcos shrank as customers abandoned DSL. Other technologies like fiber or fixed wireless gained customers but were a blip on the national scale.
Section 706 of the Telecommunications Act of 1996 orders the FCC to "encourage the deployment on a reasonable and timely basis of advanced telecommunications capability to all Americans." On October 25, The FCC issued a notice of inquiry (NOI) into how well we are doing and invited comments. The NOI points out that COVID and the concomitant increase in the use of interactive applications has "made it clear that broadband is no longer a luxury...
SpaceX is equipping its new satellites with inter-satellite laser links (ISLLs). They now have over 8,000 optical terminals in orbit (3 per satellite) and they communicate at up to 100 Gbps. The other low-Earth orbit Internet service providers will follow SpaceX's lead.
Starlink recently launched a new webpage that advertises the future ability to deliver text, voice, and data to 4G cell phones via satellite. The texting service is supposed to be available in 2024, with voice and data coming in 2025. The service will require a user to have a view of the open sky.
A recent invitation to participate in a webinar to discuss ICANN's Role in Satellite Internet Governance as an enabler of UN Sustainable Development Goal (SDG) 9 prompted me to consider this issue. As a legal scholar with expertise in telecommunications infrastructure, I had much to say and discuss about the new mega-constellation phenomenon and its potential role in achieving SDG9, which, for me, is a multifaceted and fascinating subject.
Starlink gets almost all of the satellite press in the U.S., which is fair since the company now serves many homes and RVs with broadband. The company currently has over 4,600 active satellites in orbit, and if it sticks with its original business plan, it will eventually have 30,000. But there are a few other satellite companies working in the broadband space that don't get the press.
In 2017, Telesat, an established Canadian geostationary satellite operator, announced a planned low-Earth orbit Internet service constellation. The plan called for 117 satellites with inter-satellite laser links in a mix of inclined and polar orbits, enabling global coverage.
Astronomy & Astrophysics published a research paper recently that looked at "Unintended Electromagnetic Radiation from Starlink Satellites." The study was done in conjunction with the Low-Frequency Array (LOFAR) telescope in the Netherlands. The LOFAR telescope is a network of over forty radio antennas spread across the Netherlands, Germany, and the rest of Europe.
In an earlier post, I asked whether electronically steered antennas (ESAs) would replace parabolic antennas in satellite ground stations. I did some research and concluded that it is likely that they will. Next, I discussed the same question with ChatGPT and, while it made several false statements, it made a relevant point that I had overlooked. The relevant addition was positive, but the errors were troublesome, so I decided to try ChatGPT's competitor Google Bard.