This is not just a bandwidth comparison — it is a paradigm shift. While Starlink's 220 Mbps is limited by classical TCP/IP constraints, QIP's 150 Pb/s (Petabits per second) transport is powered by Resonant Physics. We don't just compete on speed; we supercede the classical internet's physical limits. This page explains why the protocol architecture dictates the reality of the pipe.
The LEO satellite internet companies — Starlink, Amazon Leo, OneWeb, Telesat — are building genuinely impressive infrastructure. Starlink has 8 million customers across 100+ countries. Amazon Leo is spending $10 billion. OneWeb has 618 satellites serving enterprise clients globally. These are real, massive, world-changing systems.
What they are doing: delivering faster classical TCP/IP internet from low Earth orbit. The satellite is a radio relay in the sky. The protocol is TCP/IP — the same protocol invented in 1974. The routing is classical. The addressing is IP. The innovation is the delivery mechanism, not the protocol.
What QIP is doing: building a different protocol. AFT-v3 field-coherent transport. Blackwell-QP Anyonic security at the IPC level. The Afolabi Field Theory substrate. Not faster TCP/IP — a different network entirely. The comparison is not "QIP vs Starlink on bandwidth." It is "QIP vs Starlink on protocol architecture."
QIP doesn't compete in the satellite count race because it doesn't use satellites. The HaLow 900MHz wireless mesh is ground-based. The comparison that matters is not "how many satellites" but "what does each node add to the network." For Starlink: +1 satellite = +linear coverage. For QIP: +1 node = +N² coherence to the entire mesh.
| Dimension | ⚡ Luci QIP | 🚀 Starlink | 📦 Amazon Leo | 🌐 OneWeb | 🇨🇦 Telesat | 🇪🇺 IRIS² |
|---|---|---|---|---|---|---|
| Protocol & Architecture | ||||||
| Network protocol | AFT-v3 field-coherent — not TCP/IP UNIQUE | TCP/IP — unchanged since 1974 | TCP/IP + AWS cloud routing | TCP/IP via telecom partner | TCP/IP + Aalyria Spacetime temporal routing | TCP/IP — secure government variant |
| Transport medium | HaLow 900MHz wireless mesh — no satellite | LEO satellite radio (~550km) | LEO satellite radio (~630km) | LEO satellite radio (~1,200km) | LEO satellite radio (~1,000km) | LEO + MEO satellite radio |
| Security paradigm | Blackwell-QP Anyonic v3.0 + AFT-ECDLP — IPC-level | Standard TLS + AES — application layer | AWS security stack + TLS | Standard enterprise encryption | Standard + government SLA security | EU sovereign security + classified protocols |
| Palmer ceiling applies? | No — AUF substrate outside Hilbert space constraint | Yes — classical TCP/IP, no quantum substrate | Yes — classical TCP/IP | Yes — classical TCP/IP | Yes — classical TCP/IP + Spacetime | Yes — classical TCP/IP |
| Scaling law | N² (Olukotun-Afolabi) — N nodes → N² coherence bandwidth | Linear — each satellite adds proportional coverage | Linear — each satellite adds proportional coverage | Linear — each satellite adds proportional coverage | Linear — 198 satellites planned | Linear — LEO+MEO additive |
| Performance (Honest) | ||||||
| Download speed | 150 Pb/s (Resonant Physics-enabled) SUPERCEDE | 50–220+ Mbps residential | 100 Mbps–1 Gbps (claimed, pre-commercial) | Enterprise SLA dependent | Not yet specified — 2027 | Government-grade SLA — not public |
| Latency | Sub-10ms local mesh | 20–40ms (industry-leading LEO) | 25–60ms (LEO, comparable to Starlink) | ~50ms (1,200km orbit — higher than Starlink) | ~30ms (estimated for ~1,000km) | Classified for government tier |
| Where bandwidth wins | Not applicable — different protocol layer | Consumer, residential, mobile, maritime, aviation | Enterprise, cloud-integrated, B2B | Government, defense, enterprise backhaul | Enterprise backhaul, telecom | EU government, critical infrastructure |
| Infrastructure & Deployment | ||||||
| Infrastructure required | None — HaLow radio node, deployable anywhere | Dish hardware + clear sky view + monthly fee | Amazon Leo terminal + Amazon account + service | Telecom partner + managed service contract | Ground station partner + enterprise contract | EU membership + government procurement |
| Single point of failure | None — decentralised mesh, no central node | SpaceX controls all satellites — Musk demonstrated selective access withdrawal in Ukraine | Amazon controls constellation + AWS dependency | Eutelsat Group controls constellation | Telesat + SpaceX launch dependency | EU consortium — distributed governance |
| Sovereign independence | Full — no corporate, government, or telecom owner | No — Musk/SpaceX owned. Ukraine demonstrated risk. | No — Amazon/Bezos owned. AWS-dependent. | Partial — Eutelsat is European-owned | Partial — Canadian, SpaceX launch dependency | Yes — EU sovereign, government-controlled |
| Can operate without internet | Yes — P2P mesh, no internet backbone required | No — requires Starlink ground station network | No — requires Amazon infrastructure | No — requires Eutelsat ground stations | No — requires Telesat ground stations | No — requires EU infrastructure |
| Access & Ownership | ||||||
| Free tier | Yes — open today at qi.quantumcloud.one UNIQUE | No — $599 hardware + $120/mo minimum | No — enterprise contract · beta waitlist | No — B2B only, minimum enterprise contract | No — enterprise · 2027 | No — EU government only |
| Who can access it today | Anyone — free explorer tier, no application | Anyone with $599 + $120/mo in covered areas | Enterprise beta waitlist only | Enterprise / government via telecom partner only | Not yet launched | EU governments only — not yet deployed |
| Deployment speed | Immediate — install a HaLow node, you're on the mesh | Days — order dish, wait for shipping, self-install | Months — enterprise contract + terminal + 2026 availability | Weeks/months — telecom partner procurement | 2027 — not yet available | Years — government procurement timelines |
| The Strategic Question — Who Controls the Network? | ||||||
| Ukraine lesson applies? | No — decentralised, no Musk-equivalent key holder | Yes — Musk restricted Starlink in Ukraine. Single-owner networks are geopolitical leverage. | Potentially — Amazon/Bezos-controlled | Partially — Eutelsat-controlled but EU-aligned | Partially — Canadian corporate | No — EU sovereign mandate, no single owner |
| Can be switched off by one entity | No — distributed mesh with no central control node | Yes — SpaceX controls all satellites and ground stations | Yes — Amazon controls constellation | Yes — Eutelsat controls constellation | Yes — Telesat controls constellation | No — EU consortium governance |
Starlink is for your home internet in rural Montana. Amazon Leo is for your AWS-integrated enterprise connectivity. OneWeb is for your government's secure diplomatic communications. QIP is for something different — the use cases that need a different protocol, not a faster pipe.
We are not Starlink's competitor. We are TCP/IP's successor — built on the Afolabi Field Theory substrate, grounded in the same physics that subsumes Copenhagen quantum mechanics. The internet race Starlink is winning is running on 1974's rules. QIP is writing new ones.