🚀 MyZubster: 36 Robot Projects, 119 XMR in Bounties, and a New Space Sector
Open Source · XMR Payments · 36 Robot Projects · 7 Sectors · 119 XMR in Bounties · Space Infrastructure
The MyZubster ecosystem has reached another major milestone.
What started as a collection of robotics experiments has grown into a broader open-source infrastructure combining:
- 🤖 robotics;
- 🧠 AI agents;
- 👁️ computer vision;
- 📡 IoT;
- 🪙 Monero payment infrastructure;
- 🌱 environmental and agricultural applications;
- 🚀 space-oriented software concepts.
The ecosystem now includes 36 robot projects across 7 sectors, with 119 XMR allocated across the bounty structure described in the project.
But the most interesting addition is the new Space Station sector.
This does not mean that a physical space station has been built.
It means that the software architecture is now being extended to model the types of systems that could eventually support autonomous robotics and infrastructure beyond Earth.
📊 The MyZubster Ecosystem
The current project structure is divided into seven sectors:
| Sector | Robot Projects | Bounty Allocation | Status |
|---|---|---|---|
| Fluffypony | 5 | 16 XMR | ✅ Complete |
| Robot Barman | 4 | 8.5 XMR | ✅ Complete |
| Nurse Robots | 5 | 13 XMR | ✅ Complete |
| Hera Robots | 5 | 9 XMR | ✅ Complete |
| Industrial | 4 | 15 XMR | ✅ Complete |
| Educational | 3 | 5.5 XMR | ✅ Complete |
| 🚀 Space | 10 | 78 XMR | ✅ Complete |
| TOTAL | 36 | 119 XMR | ✅ |
The word "complete" here refers to the defined software/project scope and bounty milestones.
The physical deployment of these systems is a separate engineering challenge.
🚀 Why Add a Space Sector?
Space changes the requirements of autonomous systems.
On Earth, a robot can often depend on:
- continuous network connectivity;
- nearby humans;
- local infrastructure;
- relatively low communication latency;
- easy physical maintenance.
A robot operating on the Moon, Mars, or inside a remote space facility cannot assume the same conditions.
Communication can be delayed.
Hardware failures can be difficult to repair.
Energy and computing resources can be limited.
Human intervention may not be immediately available.
That means autonomy becomes much more important.
The Space sector is an attempt to explore this problem through software.
🛰️ The 10 Space Projects
The new sector contains ten projects:
| # | Project | Bounty |
|---|---|---|
| 1 | Core Module | 10 XMR |
| 2 | Satellite Communication | 8 XMR |
| 3 | Lunar Rover | 12 XMR |
| 4 | Astronaut AI | 6 XMR |
| 5 | Space Dashboard | 5 XMR |
| 6 | Space Gateway | 7 XMR |
| 7 | Debris Tracker | 4 XMR |
| 8 | Interplanetary Communications | 9 XMR |
| 9 | Life Support | 6 XMR |
| 10 | AI Core | 11 XMR |
| Total | 78 XMR |
Each project represents a different part of a potential autonomous infrastructure.
🛰️ Core Module
The Core Module represents the central infrastructure layer.
The idea is similar to the MyZubster Gateway used elsewhere in the ecosystem.
Instead of every robot implementing its own communication and service logic, the platform can provide common infrastructure.
Robot
↓
Gateway
↓
Core Services
↓
AI / Data / Payment / Communication
This same architectural principle can be reused across different environments.
📡 Satellite Communication
Communication becomes critical outside Earth.
A space-oriented architecture needs to consider:
Robot
↓
Local Network
↓
Station Gateway
↓
Satellite
↓
Ground Infrastructure
The important concept is local autonomy.
A robot should not necessarily stop functioning just because communication with Earth is temporarily unavailable.
🌕 Lunar Rover
The Lunar Rover project explores autonomous robotic operation in a lunar environment.
A future architecture could combine:
- navigation;
- telemetry;
- environmental sensors;
- computer vision;
- local AI;
- remote commands.
The software can be developed and tested before any physical lunar deployment is possible.
That is the value of simulation and modular architecture.
🧠 Astronaut AI
The Astronaut AI concept extends the EVA philosophy into a space environment.
Instead of an AI agent only managing software repositories and ecosystem operations, a future space-oriented agent could help interpret:
- telemetry;
- sensor readings;
- mission status;
- robot activity;
- system warnings;
- communication events.
The principle remains the same:
AI should help humans understand complex systems and coordinate actions.
📊 Space Dashboard
Autonomous systems generate enormous amounts of information.
A dashboard can provide a common operational view:
┌────────────────────────────────────┐
│ SPACE DASHBOARD │
├────────────────────────────────────┤
│ Power 87% │
│ Communications ONLINE │
│ Rover ACTIVE │
│ AI Core RUNNING │
│ Life Support NOMINAL │
│ Debris Monitor ACTIVE │
└────────────────────────────────────┘
The numbers above are illustrative.
The important idea is to create a unified interface for monitoring the ecosystem.
🌐 Space Gateway
The Gateway is one of the most important architectural concepts in MyZubster.
It provides an intermediate layer between devices, services and applications.
A space-oriented Gateway could eventually sit between:
Robots
↓
Local Gateway
↓
Station Infrastructure
↓
Communication Layer
↓
Earth
This architecture reduces the need for every robot to communicate directly with every external service.
☄️ Debris Tracker
Space infrastructure has to account for its environment.
A debris-tracking system could process information about objects that may represent risks to spacecraft or orbital infrastructure.
This is another example of the broader MyZubster model:
Sensors → Data → AI → Decision Support
📡 Interplanetary Communications
Earth and Mars are not connected like two computers on the same LAN.
Communication delays make real-time remote control impractical for many situations.
A future architecture therefore needs to distinguish between:
Local decisions
Sensor
↓
AI
↓
Robot
↓
Action
and:
Remote coordination
Robot
↓
Local Gateway
↓
Delayed Communication
↓
Earth
The robot needs enough autonomy to continue operating while waiting for instructions from Earth.
🫁 Life Support
Life-support systems are obviously safety-critical.
In the MyZubster architecture, this project should be treated as a software and simulation concept, not as a certified life-support controller.
A real life-support system would require extensive engineering, redundancy, verification, certification and human safety procedures.
The software architecture can nevertheless explore how monitoring systems could collect and visualize environmental parameters.
🧠 AI Core
The AI Core represents the intelligence layer of the space ecosystem.
A simplified architecture could be:
Sensors
↓
Data Processing
↓
AI Core
↓
Situation Analysis
↓
Decision Support
↓
Robot / Gateway
The AI does not need to control every physical action.
It can instead provide analysis and recommendations while deterministic safety systems remain responsible for critical controls.
👁️ The Robots Can See
The Space sector isn't isolated from the work already done on MyZubster robotics.
The ecosystem now includes a reusable Smart Camera concept.
The vision layer uses technologies such as:
- OpenCV;
- YOLO;
- face-detection / recognition components;
- mock camera modes;
- real camera input.
This creates a common perception layer.
🍹 Fluffypony Smart
One of the first demonstrations is the Fluffypony robot bartender.
The vision system can check for objects such as a glass before continuing the service workflow.
Conceptually:
Camera
↓
Object Detection
↓
Glass Found
↓
Person Found
↓
Robot Logic
↓
Service
The important transition is:
Command → Perception → Decision → Action
rather than simply:
Command → Action
🛡️ Hera Security Vision
Hera provides another example.
A camera can provide information about people detected during a patrol.
Camera
↓
Vision
↓
Person Detection
↓
Event
↓
Security Workflow
This is currently an engineering and development concept.
Real-world security deployment would require additional testing, privacy controls, false-positive handling and human oversight.
🧠 EVA + Vision + Robotics
Another important component is EVA, the MyZubster AI agent.
The long-term architecture can connect EVA with the robotics and vision layers.
EVA
│
▼
AI / Logic
│
┌──────────┼──────────┐
↓ ↓ ↓
Vision Gateway IoT
│ │ │
└──────────┼──────────┘
↓
Robots
↓
Real World
This is where the ecosystem becomes more than a collection of independent robots.
The goal is to create reusable infrastructure.
🪙 Why Monero?
Monero is part of the MyZubster payment architecture.
The idea is to explore how autonomous services could interact with privacy-focused digital payments.
A simplified workflow could be:
User
↓
Service Request
↓
Payment Request
↓
Monero
↓
Gateway Verification
↓
Authorization
↓
Robot Service
For example, a future autonomous service could require payment before performing a task.
The Gateway separates the payment logic from the robot itself.
That makes the robot easier to maintain and integrate.
💳 From Robots to Physical Payments
The ecosystem is also exploring hardware payment interfaces such as the Cardputer integration.
The architecture connects:
UHF Tag
↓
Cardputer
↓
Bluetooth
↓
Android
↓
MyZubster Gateway
↓
Monero Payment
↓
Verification
This demonstrates another important principle:
physical devices can become interfaces for decentralized services.
The same architecture could eventually be adapted for robots.
💰 Bounty-Driven Development
The ecosystem has been developed through GitHub issues, pull requests and bounty-based contributions.
The basic workflow is:
Issue
↓
Claim
↓
Development
↓
Pull Request
↓
Review
↓
Merge
↓
Bounty
↓
Integration
↓
Testing
This creates a direct connection between an idea and an implementation.
It also makes development more modular.
A contributor doesn't need to build the entire ecosystem.
They can contribute one component.
🌍 What Does This Change in the Real World?
The most important consequence isn't the number 36.
It is the architecture.
The project is moving from isolated prototypes toward a common infrastructure where different systems can share:
- AI;
- Gateway services;
- computer vision;
- IoT;
- payment infrastructure;
- APIs;
- monitoring;
- open-source tooling.
That means a future robot does not necessarily need to be designed from zero.
It can become another client of the ecosystem.
MYZUBSTER
│
┌────────────────┼────────────────┐
↓ ↓ ↓
Robots AI IoT
│ │ │
└────────────────┼────────────────┘
↓
Gateway
│
┌──────────┴──────────┐
↓ ↓
XMR Services
│ │
└──────────┬──────────┘
↓
Real World
🚀 From Earth to Space
This is the most interesting part of the new direction.
The same architecture can be viewed at different scales.
Earth
Robot → Gateway → Internet → Services
Remote environment
Robot → Local Gateway → Local AI → Delayed Communication
Future space infrastructure
Robots
↓
Local AI
↓
Station Gateway
↓
Satellite
↓
Earth
The hardware would obviously be very different.
But the software principles remain similar:
modularity, autonomy, communication, monitoring and coordination.
🧪 Simulation Before Deployment
The most important practical principle is:
software first, hardware second.
Before deploying autonomous systems into difficult environments, developers can test:
- APIs;
- communication;
- AI decisions;
- sensor processing;
- failure scenarios;
- payment workflows;
- robot logic;
- telemetry.
The development loop becomes:
Idea
↓
Code
↓
Simulation
↓
Mock Hardware
↓
Real Hardware
↓
Physical Testing
↓
Feedback
↓
New Issue
↓
Improvement
This is how a speculative idea can gradually become an engineering project.
📅 The Next Step: Physical Testing
The next challenge is no longer simply creating more software modules.
It is validating them in the physical world.
That means testing:
- cameras;
- robots;
- IoT devices;
- payment interfaces;
- Gateway communication;
- AI-assisted workflows.
The planned TAZ DAY #1 in Riccione provides an opportunity to demonstrate parts of this ecosystem in a real-world environment.
⚠️ What "Complete" Actually Means
Calling the ecosystem "complete" does not mean that all 36 robots are autonomous physical machines operating in the real world.
It means that the current project structure and defined development milestones have been assembled across seven sectors.
There is still a large gap between:
software prototype
and
certified autonomous physical system.
Bridging that gap requires:
- hardware engineering;
- safety testing;
- reliability testing;
- cybersecurity;
- privacy controls;
- regulatory compliance;
- real-world validation.
That's the next stage of the project.
🔮 What's Next?
The next phase can focus on turning the architecture into increasingly realistic demonstrations.
🤖 Robotics
More physical robot integrations.
👁️ Vision
More real-world camera testing.
🧠 AI
Better decision support and autonomous workflows.
📡 IoT
More sensors and environmental data.
🪙 Payments
More physical XMR payment interfaces.
🚀 Space
More simulation and autonomous mission concepts.
Final Thoughts
MyZubster started with a simple question:
Can open-source software connect robotics with decentralized services?
The project is now exploring a much larger question:
Can the same infrastructure support autonomous systems across Earth, remote environments and eventually space?
The answer isn't known yet.
And that's exactly why we're building it.
Today we have:
36 robot projects.
7 sectors.
119 XMR in the defined bounty structure.
Computer vision.
AI agents.
IoT.
Monero payment infrastructure.
A new Space sector.
The next milestone isn't another number.
It's taking these components out of the repository and into increasingly realistic environments.
From code.
To simulation.
To hardware.
To the real world.
And eventually, perhaps, beyond Earth.
🚀🤖👁️🧠📡🪙🌍
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