YuKKi OS 5
Monolithic: P2P Network Merges with 4D 9-Vector IPC
Forget bloatware like Kubernetes. Try YuKKi OS 5 CRTC compliant with Jobby Slotty dependency aware RBE! - Updated with 4D-9vector simulation, chat and pretty prompts but still crisp and sexy in Internet 3.0 now in RUST
Adi Protocol - For your study (Why?)
Adi HTTP wrapper - CEF extensible (To browse 🌬🌎)
Step 1. LINUX - Your choice 64-bit
Step 2. RTFM
The highly anticipated release of **YuKKi OS 5** marks a significant architectural milestone. We have successfully completed the monolithic integration of our core Rust P2P framework with the high-performance **Advanced Dimension Interconnect (ADI) IPC Protocol**. This merge unlocks distributed simulation capabilities, allowing any peer on the network to request another peer to execute a byte-aligned C-based computation and stream the raw results back in real-time.
The Architectural Shift: Beyond Basic P2P
YuKKi OS 4 focused purely on robust C2 peer discovery and direct TCP file transfers. YuKKi OS 5 maintains these layers but introduces a critical third layer: **local IPC delegation**.
The execution flow is now a tightly controlled three-way handshake:
- **C2 (WebSocket):** Maintains the active peer list, providing routing information (UUID to P2P address).
- **P2P (TCP):** Handles the command tunnel. A remote peer sends a new `adi_req` command.
- **IPC (Local TCP):** The receiving Rust peer becomes an **IPC Server**, spawns the C simulation (`adi_client`), and mediates the fixed-length frame transfer back to the requesting peer via the original P2P stream.
The diagram below illustrates how this hybrid model allows the P2P network to leverage the host peer's computation capabilities without exposing the internal IPC socket to the external network.
Deep Dive: The 4D 9-Vector ADI Protocol
The ADI protocol is tailored for fixed-size, high-throughput numerical operations. The C client is compiled with the sole purpose of generating the **4D 9-Vector** dataset, which is precisely engineered to fit a **70-byte payload** (containing 8 doubles and necessary alignment/padding).
ADI Frame Structure (P2P Streamed)
- **13 Bytes: ADI Header**
- – Bytes [8-11]: Sequence ID (
u32Big-Endian) - – Byte [12]: Frame Type (
0xAA) - **70 Bytes: Payload**
- – 4D 9-Vector data (8 x
double, 64-bit float) - **Total Frame Size: 83 Bytes**
This fixed framing ensures predictable network consumption and simplifies the asynchronous Rust handling, as the receiving client simply reads blocks of 83 bytes until the pre-announced packet count is reached.
New Command: `adi `
The CLI now supports the primary new feature via the `adi` command.
*Client sends "adi_req" to remote peer.*
*Remote peer compiles C, runs simulation, and streams back results...*
[ADI] Packet 2/5 | SeqID=10 Type=0xAA | Payload=70 bytes
[ADI] Packet 3/5 | SeqID=11 Type=0xAA | Payload=70 bytes
...
Furthermore, the Rust application now automatically attempts to compile the required C dependency (`src/adi_protocol.c` into `./adi_client`) using `gcc` if the binary is missing, making deployment for new peers significantly smoother. This monolithic approach reduces external dependencies and ensures the core simulation component is always available and aligned with the network protocol.
Conclusion: The Future is Distributed Simulation
YuKKi OS 5 represents a major leap forward, transforming our P2P network from a simple file distribution system into a distributed computational grid capable of remote, high-integrity data generation. Download the archive, build the system, and begin experimenting with remote ADI simulation today.
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