feat: Create implementation roadmap for LiveChain Mesh

ethos_wavelink_features.md

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+# Ethos Feature Proposals: Inspired by Wavelink
+
+## Introduction
+
+This document proposes a set of new, OS-level features for the Ethos (Ethereum Operating System) project. The inspiration for these features comes from a thorough analysis of the technologies and concepts associated with the "wavelink" topic on GitHub, which primarily encompasses two areas: the Lavalink/Wavelink client-server architecture for offloading audio processing, and the Elgato Wave Link software for real-time audio mixing.
+
+By generalizing these concepts, we can create powerful, native services within Ethos that will enable a new generation of decentralized applications.
+
+## 1. Core Feature: Generalized Service Offloading Protocol
+
+**Concept:** Derived from the Lavalink/Wavelink model, this is a native, OS-level protocol that allows any dApp to delegate resource-intensive, specialized tasks to a decentralized network of incentivized service nodes. This is analogous to how a traditional OS offloads tasks to a GPU, but generalized for any task.
+
+**Proposed Implementation:**
+
+*   **Service Registry:** A smart contract where service nodes can register their capabilities (e.g., "video transcoding," "AI inference," "ZKP generation") and their pricing.
+*   **Task Delegation:** An OS-level API that allows dApps to submit a "task request" to the registry. The OS, via the protocol, would then select a suitable and available service node.
+*   **Incentive Mechanism:** The protocol would handle the financial aspects, escrowing payment from the dApp and releasing it to the service node upon successful completion of the task, verified either by the dApp or a decentralized oracle.
+*   **Data Transport:** The protocol would leverage a robust P2P communication layer (like Lattica, as researched in the multistreaming project) to handle the transfer of data between the dApp and the service node.
+
+**Benefits:**
+
+*   **Scalability:** dApps can remain lightweight and efficient, offloading heavy computation.
+*   **Flexibility:** Any specialized task can be made available as a service on the network.
+*   **Economic Incentive:** Creates a new economic layer for users to provide computational resources to the network.
+
+## 2. D-RTC: Decentralized Real-Time Communication Service
+
+**Concept:** A specific, high-value implementation of the Service Offloading Protocol, designed to provide robust, low-latency audio and video communication services directly within the OS. This would function as a decentralized alternative to WebRTC, but with native integration and incentives.
+
+**Proposed Implementation:**
+
+*   **Service Nodes:** A specialized subset of service nodes would register as "D-RTC nodes," running optimized software for audio/video processing and routing (inspired by Lavalink).
+*   **OS-Level API:** Ethos would provide a simple API for dApps to initiate and manage audio/video sessions (e.g., `initiateCall(participants)`, `createStream(source)`).
+*   **Media Routing:** The D-RTC nodes would handle the complex tasks of media routing, transcoding, and mixing, ensuring low latency and high quality, even with many participants.
+*   **Use Cases:** This would be a foundational service for decentralized social media, gaming (in-game voice chat), and streaming applications.
+
+---
+## 3. Programmable Media Mixing Layer
+
+**Concept:** Inspired by the fine-grained control of Elgato's Wave Link software, this is a higher-level OS service, built on top of the D-RTC service, that allows for the sophisticated, on-the-fly composition and manipulation of media streams.
+
+**Proposed Implementation:**
+
+*   **Media Graph API:** Ethos would provide an API for dApps to define a "media graph," specifying sources (e.g., a user's microphone, a game's audio, a D-RTC stream from another user), processing nodes (e.g., "volume control," "equalizer," "noise suppression"), and output sinks (e.g., "main speakers," "stream output," "recording file").
+*   **Decentralized Mixing:** The actual mixing and processing of the media graph would be handled by D-RTC service nodes, ensuring that the user's local device is not burdened with the task.
+*   **Composable Streams:** This would allow for powerful, dynamic audio/video experiences. For example, a decentralized streaming application could allow the audience to choose which gamer's voice they want to listen to, or a social VR application could apply spatial audio effects to participants' voices based on their location in the virtual world.
+
+**Benefits:**
+
+*   **Rich Media Experiences:** Enables complex, interactive audio/video applications that are not possible with traditional, rigid streaming models.
+*   **User Empowerment:** Gives users and developers fine-grained control over their media streams.
+*   **Efficiency:** Offloads the complex task of media mixing to the decentralized network of service nodes.
+
+---
+
+## Conclusion
+
+The features proposed in this document—a generalized offloading protocol, a native decentralized RTC service, and a programmable media mixing layer—represent a powerful, cohesive vision for the future of Ethos. By abstracting the core principles of the "wavelink" ecosystem, we can provide developers with the tools to build a new class of sophisticated, real-time, decentralized applications that are both highly scalable and richly interactive.

~/.docker/buildx/buildkitd.default.toml

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+[registry."docker.io"]
+  mirrors = ["mirror.gcr.io"]