credkellar/q6g-1tb repository overview

⁠📡⚛️ Q6G-1TB — 6G 1 Tbps Internet Quantum Computer

🌐 A 6G network targeting 1 terabit per second, guarded by a quantum computer, with a sandbox-api chamber, DI-MIXER decoys, and a Kellar-Ecosystem control layer — one pure-Python project.

👨‍💻 By Darion Kellar · 📜 MIT · 🐍 Python stdlib only, zero dependencies · 🏷️ v1.3.0 · 🔗 GitHub: credkellar/Q6G-1TB

⁠🐳 Run it with Docker

docker build -t credkellar/q6g-1tb:latest .
docker run --rm credkellar/q6g-1tb:latest demo
# after the first Docker Publish run:
docker pull credkellar/q6g-1tb:latest

⁠🔄 Updated Workflows

Workflow badges are static until first paste (the live badge.svg URLs 404 pre-paste — checked); all shields badges above were checked live: HTTP 200.

flowchart LR
    P[Push] --> CI[CI: pytest + checks + smoke]
    P --> DP[Docker Publish] --> HUB[credkellar/q6g-1tb:latest]

⁠🧰 Tech Stack Badges & Full Architecture Tech Stack

⁠💻 Core Programming Languages & Core Systems

• 🐍 Python 3.12, standard library only (cmath, math, random, hashlib, tempfile, argparse, json)
• ⚛️ Statevector quantum engine, 1–12 qubits

⁠⛓️ Web3 & Infrastructure

• 🚫 No blockchain — honestly none; 🔐 BB84 quantum key distribution for the Q-SLICE
• 🧪 sandbox-api chamber (verbatim from Darion's MonadDB-RE, sha256 28b3365c…) · 🎭 DI-MIXER decoys (credkellar/di-mixerx, 227 pulls) · 🗺️ topology engine (from his LLM-X-NetLab) · 🌐 Kellar-Ecosystem layer (credkellar/kellar-ecosystem, 341 pulls)

⁠⚙️ Platform Support & Hardware Architecture

• 🖥️ Any OS with Python 3.12 · 📡 Modelled radio: 256 antennas, 8 MIMO streams, 60/140/300 GHz · 🐳 Docker python:3.12-slim, non-root

⁠⚡ Low-Level Infrastructure & Performance

• 🧮 Shannon + free-space path loss computed live · 🎯 Deterministic seeds · 🪶 Full test suite runs in ~0.1s

⁠🔧 DevOps & Build Tools

• ✅ GitHub Actions CI · 🐳 Docker Publish · 🧪 pytest 24 · 🔎 built-in CHECKS 27/27

⁠☁️ Cloud Providers

• 🚫 None required — fully local/offline · 🧠 Optional seats: Gemini Carbon 4 + Muse, names-only keys, no live calls

flowchart TD
    U[User] --> M[main.py]
    M --> Q[quantum.py] --> K[qkd.py]
    M --> N[network6g.py]
    M --> SB[payloads.py] --> SA[sandbox_api.py]
    M --> DM[dimixer.py]
    M --> TP[topology.py]
    M --> FL[flow.py]
    M --> EC[ecosystem.py]
    M --> C[council.py] --> G[gates.py]
    M --> CH[checks.py]

⁠❓ What is this about?

The next internet after 5G — 6G — and the quantum computers that will run and protect it. Three ideas in one machine: 📡 speed (a link designed for 1 terabit per second), ⚛️ quantum (a core that holds many answers at once, teleports a state, and searches the quantum way), 🛡️ safety (quantum keys that expose spies, a chamber that studies payloads without running them, decoy devices that hide the real ones, and 16 HOLD gates on everything live). It is a working simulation and model, honestly labelled — the math, circuits, key exchange, chamber, and monitoring all really run.

⁠🎯 What this does?

One python main.py demo run:

1. ⚛️ Bell pair (0.5/0/0/0.5) and 🌀 GHZ state built.
2. ✨ Teleports a qubit — recovered fidelity 1.0.
3. 🔍 Grover search finds the marked state at 96.13%.
4. 📡 Computes the 6G link → 1.10 Tbps at 100 m; ⏱️ latency 0.0703 ms (target 0.1 ms).
5. 🚀 Simulated speed test (labelled simulated): ~1.04 Tbps avg.
6. 🔐 BB84 twice: clean channel gets a key; with an eavesdropper, QBER > 11% → key aborts.
7. 🧪 7 payloads through the chamber: 4 allowed / 3 held, executed = False, network = 0.
8. 🎭 DI-MIXER raises 32 synthetic decoys — a scanner sees 32 devices, 0 real.
9. 🗺️ Topology mapped 5 ways with every SPOF named (star hub = SPOF; mesh = none).
10. 🎬 All 4 Google Flows plan (rendered = False, live calls = 0).
11. 🌐 Kellar-Ecosystem dashboard: monitor + router + alerts, status OK.
12. 🧠 Council: Carbon 4 decides, Muse advises (authority: none), strictest wins. ⛔ 16 HOLD gates armed.

⁠⚙️ How this works?

📡 The 1 Tbps math (derived, not typed): capacity = bandwidth × log2(1+SNR) × streams × (1−overhead) — 24 GHz aggregated (2@60 + 10@140 + 12@300 GHz) × 6.74 bps/Hz (Shannon at SNR 20.25 dB, from FSPL 20·log10(d_km)+20·log10(f_GHz)+92.45) × 8 streams × 0.85 = 1.10 Tbps. At 1 km the same formula drops below target — a test asserts the falloff.

⚛️ Quantum core: complex-amplitude statevector; gates H X Y Z S Rx Ry Rz CNOT CZ SWAP. Teleportation uses coherent corrections (X by q1, Z by q0) so fidelity is checked exactly.

🔐 BB84: random bits + bases, sift matching bases; an eavesdropper corrupts ~25% of the sifted key → past the 11% abort line → spy exposed, key discarded.

🧪 Chamber: payload = data only, written to a throwaway folder, static marker scan, telemetry (sha256, FS diff, budgets), folder deleted. No socket machinery exists in it: network = 0 by design.

🎭 Decoys: every identity labelled SYNTHETIC; IPv4 only from RFC 5737 TEST-NET, IPv6 only 2001:db8::/32, MACs locally-administered — a decoy can never be a real device. Nothing transmitted.

🗺️ Topology: bus/star/ring/mesh/tree graphs; BFS paths, worst-case hops, and node-removal SPOF analysis. 🎬 Flows: FlowX (13 subtasks), Workspace Studio, Filmmaking storyboard, DataX — plans only. 🌐 Ecosystem: monitor reads link/keys/chamber/decoys/maps and alerts; the router sends decisions → Carbon 4, advice → Muse, payloads → chamber, maps → topology. 🧠 Council: Gemini Carbon 4 Extended Thinking DECIDER (google/gemini-carbon-4-extended-pro-thinking, MAP→MODEL→STRESS→DECIDE, tiers 2048/8192/32768, can only tighten) + Muse advisor (exactly 4 items, authority none, keys names-only). Strictest wins; neither seat makes a live call.

⁠😎 Why is this is cool?

It takes three slide-only ideas — 6G, 1 Tbps, a quantum computer — and turns them into code you can run, measure, and break in under a second, with nothing to install.

⁠🔟 10 reasons why this is cool

1. 🏁 The 1 Tbps number is derived live — change distance or antennas and it moves.
2. ✨ Teleportation fidelity is measured (1.0) — it failed at 0.96 in development and was fixed.
3. 🔍 Grover really amplifies the marked state to 96.13%.
4. 🕵️ BB84 catches its spy the real way — QBER past 11% aborts.
5. 🧪 The chamber proves executed = False, network = 0 on every run.
6. 📉 Capacity falloff with distance is a test, not a hope.
7. 🏷️ The speed test labels itself simulated in its own output.
8. 🪶 Zero dependencies — the future internet on the stdlib alone.
9. 🧠 The advisor can never override the decider.
10. ⛔ 16 named HOLD gates between simulation and the live world.

⁠🧩 What problems this solves?

1. 🤷 "6G" is marketing slides → equations, defaults, and tests you can argue with.
2. 🔢 Peak speeds are usually typed → here 1 Tbps falls out of the formula, and falls honestly at distance.
3. 🎓 Quantum feels untouchable → Bell/GHZ/teleport/Grover in readable stdlib Python.
4. 🔓 Future networks need new security → BB84 keys that expose eavesdroppers by physics.
5. 💣 Unknown payloads are dangerous to study → chamber analyses data only, in a throwaway folder.
6. 🧪 Demos hide failures → CHECKS 27/27 + pytest 24 are part of the program.
7. 🏷️ Simulations pretend to be measurements → outputs label themselves modelled/simulated.
8. 📦 Big installs kill curiosity → zero dependencies: clone, run, done.
9. 🤖 AI advisors get too much power elsewhere → Muse advises, Carbon 4 decides, strictest wins.
10. 🌍 One repo per idea fragments work → network, quantum, security, chamber, decoys, maps, and council behind one main.py.

⁠🔟 10 solutions

1. ✅ Formula-first link budget (Shannon + FSPL). 2. ✅ Distance-falloff test. 3. ✅ Statevector sim with exact fidelity checks. 4. ✅ BB84 with hard 11% QBER abort. 5. ✅ Static chamber: no exec, no sockets, budgets, FS-diff telemetry. 6. ✅ Marker triage holds eval/socket/shell payloads automatically. 7. ✅ Deterministic seeds — every number reproduces. 8. ✅ Self-labelling outputs. 9. ✅ Tighten-only decider + no-authority advisor. 10. ✅ 16 HOLD gates + hold-demo exit 2 — the boundary is testable too.

⁠💾 How to install this? Step-by-step

1. 🐍 Install Python 3.12. 2. 📥 git clone https://github.com/credkellar/Q6G-1TB.git && cd Q6G-1TB 3. 🚀 Run it — nothing to install:

python main.py demo        # everything
python main.py quantum     # Bell / GHZ / teleport / Grover
python main.py network     # 1 Tbps report + slices
python main.py speedtest   # simulated speed test
python main.py qkd         # BB84 clean vs eavesdropped
python main.py sandbox     # chamber triage
python main.py dimixer     # decoy pool + scanner view
python main.py topology    # topology + SPOF report
python main.py flow        # 4 Google Flows, plan only
python main.py ecosystem   # Kellar-Ecosystem dashboard
python main.py council     # Carbon 4 + Muse
python main.py checks      # CHECKS 27/27
python main.py hold-demo   # HOLD fires, exit 2

1. 🧪 Optional: pip install pytest && python -m pytest tests/ -q → 24 passed. 5. 🐳 Optional: docker build -t q6g-1tb . && docker run --rm q6g-1tb demo. 6. 🔄 Owner: paste the 2 workflows into .github/workflows/ + add the 2 Docker Hub secrets. 7. 🖼️ Owner: upload assets/cover.png (binary can't ride the App push).

⁠📋 Requirements?

🐍 Python 3.12+ (only requirement) · 📦 pip packages: none (pytest only for tests) · 🐳 Docker optional · 🔑 API keys: none (MODEL_API_KEY / GEMINI_API_KEY name optional brain seats only; system runs fully without them) · 🌐 Internet: not required · 💻 Any hardware — quantum sim caps at 12 qubits.

⁠🧒 Explain in 5th grade English

The internet is a road for tiny cars carrying messages. 🚗 5G is a good road. This project draws a super road (6G) so wide a trillion cars can drive it every second — that is "1 Tbps." 🏁 Next to the road sits a quantum computer, which can hold many answers at once, like a handful of keys tried super fast. ⚛️ It also makes magic keys: if a spy peeks, the key breaks, so we know and throw it away. 🔐 New packages go in a glass box room (the chamber) — we look, take notes, never run them; dangerous ones stay in the box. 🧪 Toy phones (decoys) pretend to be real so strangers watch the toys; every toy is labelled and uses numbers that can never belong to a real phone. 🎭 We draw road maps: on one map all roads pass one town — if it closes, nobody travels (a single point of failure); on the web map there is always another way. 🗺️ A control room (Kellar-Ecosystem) shows everything on one board and sends each question to the right helper. 🌐 A rule keeper (Carbon 4) decides and can only get stricter; a helper (Muse) only gives ideas. ⛔ Nothing is plugged into the real world — it is a model city that follows the real rules, so we can learn how the real one should work. 🏙️

⁠📜 Script-by-script — a mermaid flowchart for each script

⁠🚪 main.py

flowchart TD
    A[main.py] --> B{Command}
    B --> C[demo: all seats]
    B --> D[quantum / network / qkd]
    B --> E[sandbox / dimixer / topology]
    B --> F[flow / ecosystem / council]
    B --> G[checks / hold-demo exit 2]

⁠⚛️ q6g/quantum.py

flowchart TD
    A[Circuit 1-12 qubits] --> B[Gates H X Y Z S Rx Ry Rz CNOT CZ SWAP]
    B --> C[Bell / GHZ]
    B --> D[Teleport: fidelity 1.0]
    B --> E[Grover: 96.13%]

⁠📡 q6g/network6g.py

flowchart TD
    A[24 GHz, 8 streams, 256 ant.] --> B[FSPL per band] --> C[SNR]
    C --> D[Shannon eff.] --> E[Capacity]
    E --> F{1 Tbps?}
    F -->|100 m: 1.10| G[Target met, modelled]
    F -->|1 km| H[Below target - physics]

⁠🔐 q6g/qkd.py

flowchart TD
    A[Alice bits+bases] --> B[Bob bases] --> C{Sift matches}
    C --> D{QBER over 11%?}
    D -->|no| E[KEY OK]
    D -->|yes| F[ABORT - spy suspected]

⁠📦 q6g/sandbox_api.py (verbatim chamber, sha256 28b3365c…)

flowchart TD
    A[Sample bytes] --> B[Temp dir: data only]
    B --> C[Static analyse] --> D[Telemetry + report]
    D --> E[Dir deleted]
    C -.->|never| X[No exec, no sockets]

⁠🧪 q6g/payloads.py

flowchart TD
    A[7 payloads] --> B[Fresh chamber each] --> C[Marker scan]
    C --> D{Danger?}
    D -->|4 clean| E[ALLOW_STATIC_STUDY]
    D -->|3 found| F[HOLD_IN_CHAMBER]

⁠🎭 q6g/dimixer.py

flowchart TD
    A[Seeded RNG] --> B[Identity: TEST-NET IP,<br/>doc IPv6, local-bit MAC]
    B --> C[Label SYNTHETIC] --> D[Pool of 32 rotating]
    D --> E[Scanner: 32 seen, 0 real]

⁠🗺️ q6g/topology.py

flowchart TD
    A[bus/star/ring/mesh/tree] --> B[Graph] --> C[BFS + hops]
    B --> D[Remove each node] --> E{Connected?}
    E -->|no| F[SPOF]
    E -->|yes| G[Resilient]

⁠🎬 q6g/flow.py

flowchart TD
    A[Topic] --> B[FlowX 13 subtasks]
    A --> C[Studio plan]
    A --> D[Filmmaking storyboard]
    A --> E[DataX plan]
    B --> F[merged: rendered False, calls 0]
    C --> F
    D --> F
    E --> F

⁠🌐 q6g/ecosystem.py

flowchart TD
    A[Monitor] --> B[Link/QKD/chamber/decoys/maps]
    B --> C[Alerts + status]
    D[Task] --> E[Router]
    E --> F[Carbon 4 / Muse / chamber / topology]
    C --> G[Text dashboard]

⁠🧠 q6g/council.py

flowchart TD
    A[Request + risk] --> B[Carbon 4: MAP MODEL STRESS DECIDE]
    B --> C{risk}
    C -->|75+| D[HOLD]
    C -->|40+| E[REVIEW]
    C -->|low| F[ALLOW_SIM]
    G[Muse advisor: none] -.->|advice only| D

⁠⛔ q6g/gates.py

flowchart TD
    A[Action] --> B{On HOLD list?}
    B -->|live hardware/spectrum/spoofing/video/AI call...| C[HOLD: needs owner approval]
    B -->|simulation| D[Allowed]

⁠🔎 q6g/checks.py

flowchart TD
    A[run_checks] --> B[Quantum + network + QKD]
    A --> C[Chamber + decoys + topology]
    A --> D[Flows + council + ecosystem + gates]
    B --> E[CHECKS 27/27]
    C --> E
    D --> E

⁠🧪 tests/test_q6g.py

flowchart TD
    A[pytest] --> B[Quantum x4 + network x4]
    A --> C[QKD x2 + council/gates x3]
    A --> D[Chamber x3 + dimixer x2 + topology x2]
    A --> E[Flow x1 + ecosystem x3]
    B --> F[24 passed]
    C --> F
    D --> F
    E --> F

⁠🌐 Network slices

⁠⛔ HOLD gates (16)

Live QPU · live carrier 6G · RF/THz transmission · claiming a physical 1 Tbps link · live entanglement · routing real traffic · spectrum-license bypass · encryption bypass · firmware flashing · satellite uplink · safety-critical control · live reconfiguration · live sample detonation · live identifier spoofing · live video generation · live Gemini API call.

⁠🧪 Verified (actually run)

✅ pytest 24 passed · ✅ CHECKS 27/27 exit 0 · ✅ hold-demo exit 2 · ✅ sandbox 4 allowed / 3 held · ✅ dimixer: scanner sees 0 real · ✅ topology: star SPOF = node 0, mesh resilient · ✅ flow: 4 flows, 0 live calls · ✅ ecosystem dashboard status OK · 🐳 Dockerfile provided; build not run on the build machine (no Docker there) — first build is the Docker Publish workflow's.

⁠📁 Project structure

Q6G-1TB/
├── assets/cover.png        (owner upload - binary)
├── main.py                 one CLI for everything
├── q6g/  quantum.py · network6g.py · qkd.py · sandbox_api.py
│         payloads.py · dimixer.py · topology.py · flow.py
│         ecosystem.py · council.py · gates.py · checks.py
├── tests/test_q6g.py       24 tests
├── workflow-pack/          ci.yml + docker-publish.yml
├── Dockerfile · LICENSE (MIT) · README.md (full version on GitHub)

⁠⚠️ Honest scope

No physical 1 Tbps link is measured or claimed, no quantum hardware is accessed, real 6G is not commercially deployed, and the merged Hub images (sandbox-api, di-mixerx, kellar-ecosystem) have no public source repos — their seats here are Darion's own implementations with provenance stated in each docstring. What is real: the link math, quantum simulation, BB84 behaviour, chamber telemetry, decoy/topology/flow/ecosystem engines, tests, and checks — all running, reproducible, and labelled. 📖 The full 570-line README with the long-form sections lives on GitHub: credkellar/Q6G-1TB.