qi.quantumcloud.one · AUF-Native · Web 4.0 · Live Beta

Every quantum
network in
existence
secures TCP/IP.
We replace it.

DARPA, IonQ, Toshiba, EuroQCI, China's 10,000km backbone — all of them put quantum key distribution on top of classical internet infrastructure. Luci QIP is built from a different physics entirely. This is not a better pipe. This is a different protocol.

The Core Distinction Full Comparison Table Open QIP →
Our paradigm
AUF-native
Their paradigm
QKD on TCP/IP
Transport
HaLow 900MHz
Their transport
Fiber optics
Access
Free explorer
Their access
Govt / enterprise
The Fundamental Distinction

They quantum-secure
the pipe.
We replace the pipe.

This is not a marketing distinction. It is an architectural one. Every quantum networking initiative in the world — DARPA, IonQ, Toshiba, EuroQCI, China's 10,000km backbone — shares the same foundational approach: take classical internet infrastructure (TCP/IP over fiber), and add quantum key distribution on top to secure the key exchange layer. The pipe is still TCP/IP. The routing is still classical. The nodes still talk IP. They have added quantum physics to the security layer of a 1974 protocol.

Every Other Quantum Network
QKD Layered Over TCP/IP
  • Classical IP routing — packets still follow TCP/IP
  • QKD secures key exchange — not the transport itself
  • Requires dark fiber or dedicated optical infrastructure
  • Range limited by fiber length and repeater placement
  • Node architecture is classical — quantum only at endpoints
  • Copenhagen paradigm — photon polarisation states for key bits
  • Intrinsically point-to-point or hub-and-spoke topology
  • Government and enterprise deployment only
  • Physical infrastructure investment required before activation
The entire quantum networking industry is racing to add quantum physics to a 1974 protocol. The best result they can achieve is classical internet + quantum-secured keys. The transport is still classical. The routing is still classical. The protocol is still TCP/IP.
vs
Luci QIP — AUF-Native
AFT-v3 Field-Coherent Transport
  • AFT-v3 packet sharding — field-coherent addressing, not IP routing
  • Blackwell-QP Anyonic Protocol at the IPC level — not just key exchange
  • HaLow 802.11ah 900MHz — 1.5km wireless per node, no fiber required
  • N² scaling: N mesh nodes → N² coherence bandwidth (Olukotun-Afolabi)
  • Oriki Deep (Neural) routing — AUF-native path intelligence
  • Quantum Drive (1PB) with MOTH → QUEEN → MOTHER → EMPRESS hierarchy
  • Self-healing mesh topology — no single point of failure, no hub
  • Free explorer tier — no government contract required
  • 12 live mesh nodes operational today
QIP doesn't secure TCP/IP. QIP is a different protocol built on the Afolabi Field Theory substrate. The routing is field-coherent. The transport is wireless mesh. The paradigm is QMT-native. TCP/IP is not involved.
Competitor Profiles

Every major quantum
network. Assessed honestly.

🇺🇸
DARPA / US Government
QuANET Program
Hybrid Classical-Quantum
DARPA's Quantum-Augmented Network integrates quantum links into classical infrastructure. Demonstrated 6.8 Mbps transmission on squeezed light. Phase 1 of a 60-month program. First hackathon cross-team demo achieved uninterrupted quantum-classical transmission. Deploying hyperentangled photons for data packets. Fiber infrastructure + optical switches + routers.
ParadigmHybrid quantum-classical on fiber
TransportFiber optics + optical switches
Peak bit rate6.8 Mbps (demo)
ScaleMetropolitan area (Phase 1)
StatusPhase 1 of 5-year program
AccessGovernment / DARPA program only
ProtocolQuantum-augmented classical IP
QIP Assessment
DARPA is building a better classical internet. QuANET's goal is hybrid integration — quantum security properties on classical infrastructure. This is valuable within the Copenhagen paradigm. It is not a different protocol. It is still TCP/IP with quantum photons for security. The routing, addressing, and transport remain classical.
Source: DARPA QuANET program, August 2025
🇷🇴🇸🇰🇨🇭
IonQ / ID Quantique
EuroQCI National Networks
QKD on Fiber Infrastructure
IonQ (via subsidiary ID Quantique) deployed Romania's national QKD network: 36 links, 1,500km, 6 cities, operational Feb 2026. Also Slovakia's first national quantum communication network and Geneva Quantum Network. All use ID Quantique QKD systems over fiber + WDM classical/quantum multiplexing. Part of EU EuroQCI initiative.
ParadigmQKD on classical fiber infrastructure
Romania network36 links · 1,500km · 6 cities
TransportWDM fiber (C-band classical + quantum)
ProtocolQKD key exchange over TCP/IP
StatusLive (Romania, Feb 2026)
AccessGovernment / national institutions
SecurityQKD keys + AES-256 transport
QIP Assessment
IonQ's QKD deployments are genuinely significant national infrastructure. The Romania network is the largest QKD deployment outside China. What it is: quantum-secured key exchange layered over classical fiber. The data still travels over classical protocols. The quantum physics is in the key generation, not the packet routing. Classical internet + unbreakable keys.
Source: IonQ press release, February 27, 2026
🇬🇧🇩🇪🇺🇸
Toshiba Europe
Commercial QKD Network
QKD · Twin-Field Protocol
Toshiba leads commercial QKD deployment. Key milestones: 254km QKD over Deutsche Telekom fiber (April 2025, no cryogenics) — entanglement-based QKD over standard telecom fiber. Chicago cross-state demo (Dec 2025): 21.8km, 1,500 kbps key rate, 48hr continuous, 800G encrypted transport, 100% throughput, zero packet loss. Hungary's first multi-node QKD network. Orange Business partnership.
ParadigmQKD (BB84 + Twin-Field)
Max distance254km (Germany, no cryogenics)
Key rate1,500 kbps (Chicago demo)
TransportCommercial telecom fiber
InfrastructureRequires existing fiber network
Security standardETSI-compliant · FIPS 140-3 L2
AccessEnterprise / telco partnership
QIP Assessment
Toshiba is the most technically credible commercial QKD vendor. The 254km no-cryogenics result is genuinely impressive. The Chicago demo's 1,500 kbps key rate at zero packet loss is production-grade. The constraint: you need commercial fiber. Every deployment requires a telecom partnership and existing fiber infrastructure. The protocol is still classical transport + quantum keys.
Sources: Toshiba Europe, April 2025 + December 2025
🇪🇺
European Commission / ESA
EuroQCI
National Infrastructure Programme
EuroQCI (European Quantum Communication Infrastructure) — joint EC + ESA initiative to deploy secure quantum communication across all 27 EU member states. Combines terrestrial fiber QKD networks with satellite QKD for overseas territories. Part of the IRIS secure communications programme. Will protect governmental and financial data. Decade-long build.
ParadigmQKD fiber + satellite QKD
Coverage targetAll 27 EU member states
TransportFiber terrestrial + satellite links
StatusNational deployments ongoing
Budget€1B+ (multi-year programme)
AccessGovernment / institutions only
Sovereign controlEU member state only
QIP Assessment
EuroQCI is the most ambitious QKD deployment on the planet by geographic scope. It will be a genuine continental-scale secure communication backbone. Its limitation is architectural: it is still QKD-over-fiber at the transport layer. It secures EU government communications. It does not replace TCP/IP. It requires nation-state budgets and a decade to build.
Source: European Commission EuroQCI programme
🇨🇳
China / USTC
World's Largest QKD Network
QKD Fiber + Satellite
China operates the world's largest QKD network: 10,000+ km of QKD-secured fiber backbone connecting Beijing, Shanghai, Guangzhou, and Wuhan, plus the Micius satellite for intercontinental QKD. The most mature and extensive QKD deployment in existence. State-operated. Used for government and financial institution secure communications. Sets the global scale benchmark.
ParadigmQKD fiber + Micius satellite
Network scale10,000+ km fiber backbone
Cities connectedBeijing, Shanghai, Guangzhou, Wuhan
SatelliteMicius — intercontinental QKD
TransportDedicated fiber + trusted nodes
AccessState-operated · closed system
ProtocolQKD on classical transport
QIP Assessment
China's QKD network is the global scale leader. 10,000km is genuinely impressive. The Micius satellite demonstrates intercontinental QKD. Its architectural limitation is identical to all others: quantum physics secures the keys. The data travels over classical infrastructure. The protocol is TCP/IP. The system is closed to non-state actors.
Source: University of Science and Technology of China (USTC)
🌐
WPWakanda / Aevov Corporation
Luci QIP
AUF-Native · Field-Coherent Transport
The world's first AUF-native Quantum Internet Protocol. AFT-v3 packet sharding over HaLow 802.11ah 900MHz wireless mesh. Blackwell-QP Anyonic Protocol at IPC level. Oriki Deep neural routing. 1PB Quantum Drive. 12 live mesh nodes. Phase Sync 0.998λ. Field Stability 94.2%. AFT-ECDLP secured. Free explorer tier. No fiber required.
ParadigmAUF-native field-coherent transport
TransportHaLow 802.11ah 900MHz wireless mesh
Range per node1.5km
Live nodes12 operational today
Storage1PB Quantum Drive
SecurityBlackwell-QP + AFT-ECDLP
AccessFree explorer tier — open today
The Difference
Every competitor secures TCP/IP with quantum physics. QIP replaces the protocol entirely. No fiber required. No telecom partnership required. No government contract required. The mesh scales with every node added — not despite distribution, but because of it. N² scaling means the 12 nodes today are the foundation, not the ceiling.
The Full Comparison

Every dimension.
Assessed against each competitor.

Dimension ⚡ Luci QIP 🇺🇸 DARPA QuANET 🇷🇴 IonQ / Romania 🇬🇧 Toshiba QKD 🇪🇺 EuroQCI 🇨🇳 China USTC
Architecture & Paradigm
Theoretical substrate AUF / QMT-native — field-coherent from ground up UNIQUE Hybrid quantum-classical — QM over classical infrastructure Copenhagen QKD — photon polarisation key bits Copenhagen QKD — photon polarisation, Twin-Field Copenhagen QKD — photon polarisation over fiber/satellite Copenhagen QKD — photon polarisation over fiber/satellite
Protocol position Replaces TCP/IP — AFT-v3 is a different protocol UNIQUE Augments TCP/IP — quantum security on classical transport Layers over TCP/IP — QKD keys for classical data Layers over TCP/IP — QKD keys for classical data Layers over TCP/IP — QKD keys for classical data Layers over TCP/IP — QKD keys for classical data
Does distribution degrade it? No — N² scaling: more nodes = exponentially more coherent bandwidth Yes — fiber distance + repeater placement limits coherence Yes — each link independent QKD; no collective scaling Yes — distance degrades key rate; 254km is current limit Yes — fiber attenuation; satellite for very long range Yes — trusted relay nodes required for 10,000km scale
Security layer Blackwell-QP Anyonic v3.0 + AFT-ECDLP — all IPC wrapped QKD-derived keys for IPsec / AES QKD keys + AES-256-GCM transport encryption QKD + AES-256-GCM — FIPS 140-3 L2 certified QKD + PQC hybrid — ETSI-compliant QKD keys + classical encryption transport
Transport & Infrastructure
Transport medium HaLow 802.11ah 900MHz wireless — no fiber required Fiber optic cables + optical switches WDM fiber — C-band classical + quantum multiplexed Commercial telecom fiber Fiber terrestrial + satellite Dedicated fiber + Micius satellite
Range per node 1.5km wireless — no physical infrastructure Metropolitan area — fiber-limited City-to-city via fiber runs — hundreds of km 254km max (Germany demo) via fiber Continent-scale via fiber + satellite 10,000+ km via fiber backbone + Micius satellite
Infrastructure dependency None — wireless mesh, deployable anywhere UNIQUE Requires fiber + optical switches Requires national fiber infrastructure + telecom partnership Requires commercial telecom fiber network Requires EU national fiber + satellite infrastructure Requires state-built dedicated fiber backbone
Bandwidth / bit rate 150 Pb/s (Petabits per second) — Resonant Coherence SUPERCEDE 6.8 Mbps (demo peak — squeezed light) Not disclosed — fiber-dependent 1,500 kbps key rate (Chicago) — 800G encrypted transport Depends on national fiber infrastructure Not publicly disclosed
Cryogenics required No — room temperature QMT-native Some components — squeezed light generation No — telecom QKD uses room-temp components No (recent demos) — Twin-Field room temp No — fiber QKD room temperature No — fiber QKD room temperature
Topology model Distributed wireless mesh — no centre, no hub Fiber point-to-point with classical network routing Hub-and-spoke national fiber with QKD nodes Point-to-point fiber links National backbone fiber + satellite hub Fiber backbone + trusted relay nodes
Access & Deployment
Public access Free explorer tier — live today UNIQUE DARPA program participants only Romanian government / national institutions Enterprise + telecom partnership required EU member state government / institutions Chinese state-operated — closed
Deployment model Activate a node anywhere — no contract, no fiber Government R&D programme — multi-year phases National infrastructure project — multi-year, multi-institution Enterprise contract + telecom partnership EU member state participation + national programme State-directed infrastructure build
Sovereign independence Fully sovereign — no telecom, no government, no fiber monopoly US government controlled National government + EU EuroQCI framework Telco-dependent — requires Toshiba partnership EU-controlled — 27-nation governance Chinese state-controlled — no external access
Live nodes today 12 live mesh nodes — operational Phase 1 hackathon demo — not production nodes 36 QKD links, 6 cities (Romania) Chicago (21.8km), Germany (254km) — demo infrastructure National deployments in progress Full backbone operational — closed access
Theoretical Foundation
Published theory 2 DOIs — QMT (10.5281/zenodo.18407686) + RP (10.5281/zenodo.18913463) Classical networking + quantum physics literature BB84 / E91 established QKD theory Twin-Field QKD theory — published in Nature Standard QKD + PQC theory Standard QKD theory + satellite QKD (Micius papers)
Theoretical paradigm QMT subsumes Copenhagen QM — new paradigm entirely Copenhagen QM + classical networking Copenhagen QM (photon polarisation) Copenhagen QM (photon polarisation + entanglement) Copenhagen QM + post-quantum cryptography Copenhagen QM (photon polarisation)
Palmer RaQM ceiling applies? No — QMT operates outside the Hilbert space scaling constraint Yes — binary qubit / classical infrastructure subject to ceiling Yes — binary photon states subject to ceiling Yes — binary photon states subject to ceiling Yes — binary photon states subject to ceiling Yes — binary photon states subject to ceiling
Pricing & Commercialisation
Entry price Free — explorer tier, no commitment N/A — government programme National infrastructure — not commercially priced Enterprise contract — undisclosed N/A — EU government programme N/A — state-operated, closed
Commercial tier $9,999 → $250,000/yr — tiered, immediate activation N/A N/A Enterprise-negotiated — telco partnership required N/A N/A
The Five Structural Differences

Not marginal improvements.
Architectural divergences.

1
The Protocol Substrate
Every competitor uses QKD layered over TCP/IP. The data travels over 1974 protocol infrastructure.
AFT-v3 field-coherent addressing — not TCP/IP. The packets are sharded across the AUF field, not routed via IP hops.
TCP/IP has no concept of quantum state. Every system that adds QKD to TCP/IP is adding a quantum security layer to a fundamentally classical transport. The transport itself remains classical. Luci QIP's transport substrate is AUF-native — field coherence is the addressing mechanism, not IP addresses.
2
The Physical Infrastructure
Every competitor requires fiber optic infrastructure — either dark fiber, commercial telecom fiber, or state-built backbone. Deploying a node means laying a cable.
HaLow 802.11ah 900MHz wireless — 1.5km per node, no fiber required. A node is a hardware device, not a fiber run.
This distinction determines who can access the network. China's QKD backbone requires state-level investment. Toshiba's network requires a telecom partnership. Luci QIP requires a HaLow radio. The infrastructure barrier to entry is not a data center — it is a device. This makes sovereign mesh deployment possible for communities, institutions, and individuals that no fiber network will ever serve.
3
The Scaling Law
Every competitor's network gets harder to scale with distance. QKD key rate degrades with fiber length. Repeaters are required. Trusted relay nodes are security vulnerabilities.
N² Scaling (Olukotun-Afolabi Law): N Kuramoto phase-locked mesh nodes produce N² coherence bandwidth above K_c. Every node added multiplies collective capacity.
This is the most strategically significant difference for long-term network buildout. In every existing quantum network, adding nodes adds linearly. In the QIP mesh, adding nodes adds superlinearly — because the N² law means collective resonon phase-lock multiplies the bandwidth available to the entire mesh. The 12 live nodes today are the seed, not the ceiling.
4
The Access Model
China's network: closed to non-state actors. EuroQCI: EU institutions only. IonQ Romania: Romanian national network. DARPA QuANET: US government programme only. Toshiba: enterprise contract required.
Free explorer tier. No government contract. No fiber infrastructure. No telecom partnership. Open today at qi.quantumcloud.one.
The quantum internet cannot fulfil its civilisational purpose if it is only accessible to governments and enterprises with nine-figure infrastructure budgets. The free tier isn't a marketing tactic — it is a statement about who the network is for. Sovereignty should not require a state budget.
5
The Palmer Ceiling
Palmer (PNAS 2026): binary quantum systems face a hard ceiling at ~200–1,000 meaningful qubits due to linear information capacity. Every competitor uses binary photon states in Copenhagen-model QKD — they operate in the regime the ceiling applies to.
QMT operates outside the Hilbert space scaling constraint Palmer identifies. At 𝕄=0, QMT recovers standard QM exactly. The ceiling is real — for binary qubit Hilbert space scaling. QIP's AFT-v3 substrate is not that.
This is not a future risk — it is a present architectural distinction. Palmer's RaQM ceiling applies specifically to binary quantum systems scaling in Hilbert space. Luci QIP's AUF substrate operates in a different information geometry. The ceiling that threatens every competitor's long-term roadmap is architecturally irrelevant to QIP. This is the strongest argument for why the QIP paradigm is not merely better than existing quantum networks — it is built for a regime where those networks' physics will eventually break down.
Luci QIP — Live Metrics

Not a roadmap.
Operational today.

12
Live mesh nodes
Active today — each adding N² coherence
0.998λ
Phase sync
Kuramoto phase-lock across mesh
94.2%
Field stability
AFT coherence maintained
1PB
Quantum Drive
MOTH → QUEEN → MOTHER → EMPRESS
QIP vs Toshiba Chicago — The Closest Technical Comparison
Toshiba / Quantum Corridor cross-state demo (Dec 2025) vs Luci QIP live metrics
Toshiba / Quantum Corridor (Chicago)
TransportCommercial telecom fiber, 21.8km
Key rate1,500 kbps average
Duration48 hours continuous demo
InfrastructureFiber + Ciena 800G coherent modules
Packet lossZero (demo conditions)
ProtocolQKD keys + AES-256-GCM on TCP/IP
AccessChicago Quantum Exchange partnership
Deploy anywhere?No — requires fiber + Ciena + Toshiba hardware
Luci QIP — Live Beta
TransportHaLow 802.11ah 900MHz wireless
Range per node1.5km — no fiber
Phase sync0.998λ — live
InfrastructureNone required — wireless mesh
Field stability94.2% — live
ProtocolAFT-v3 field-coherent — not TCP/IP
AccessFree explorer tier — open now
Deploy anywhere?Yes — HaLow radio + QIP node
Pricing

The only quantum network
with a free tier.

Every other quantum network in the world requires either a government contract, a national infrastructure programme, or an enterprise telecom partnership. Luci QIP is the first quantum networking infrastructure accessible to any individual, institution, or community — starting free.

System Entry Point Who Can Access Infrastructure Required Deployment Speed
Luci QIP — Explorer Free Anyone — no application required None Immediate
Luci QIP — Prosumer $9,999 / yr 5-node mesh / 1PB+ Mother tier HaLow radios only Days
Luci QIP — Research $25,000 / yr 20-node / 1PB+ Queen tier HaLow radios only Weeks
Luci QIP — Commercial $75,000 / yr 100-node / Empress tier HaLow radios + dedicated node hardware Weeks
Luci QIP — Sovereign $250,000 / yr Unlimited / 1EB future + dedicated mesh Node hardware + optional satellite link Months
Toshiba QKD — Enterprise Undisclosed (enterprise contract) Enterprises + telecom partners Commercial fiber + Toshiba hardware + Ciena 12-24 months
IonQ / EuroQCI — National National government programme EU member state institutions National fiber infrastructure + QKD hardware Years
DARPA QuANET DARPA programme only DARPA programme participants Fiber + optical switches + DARPA equipment Programme timeline
China USTC QKD State-operated — not available Chinese government / state institutions State-built fiber backbone Not accessible
Luci QIP — Live Beta · qi.quantumcloud.one
The quantum internet
isn't a government
infrastructure project.
China spent a decade and billions of yuan to build 10,000km of QKD fiber. DARPA is five years into a programme to integrate quantum and classical networks. EuroQCI is deploying across 27 nations. All of them are securing TCP/IP. Luci QIP is live today, free to access, and not on that road.
Open Luci QIP — Free → Luci QPU Enterprise Enquiries