[Feature/Performance] Implement Low-Overhead Zero-Copy Memory Splicing via Direct Kernel-to-Userspace Ring Mapping

Commercial Objective

Accelerate volumetric data transit handling by bypassing standard system memory copy overhead entirely, forcing enterprise cluster admins to adopt FaultPlane as their core proxy backbone.

High-Volume Technical Specifications

1. Zero-Copy Page Mapping: Establish direct memory pages mapping between the Linux kernel device buffers and our userspace daemon allocation ring memory space .
2. Eliminating syscall overhead: Use direct memory pointer manipulation hooks to shunt raw bytes streams arrays directly onto healthy multi-tenant nodes channels without executing expensive read() and write() kernel context switches.
3. Enterprise Performance Ceiling: Clamps execution memory bandwidth degradation down to absolute 0% natively, allowing a single lightweight FaultPlane sidecar container to process up to 10M packet streams per second flat under maximum traffic saturation parameters .

The issue names no files, tests, or entry points. Start by mapping the Go daemon’s Linux transport path and checking whether an existing kernel or userspace ring implementation is present. Done would require a documented zero-copy mapping and reproducible throughput and bandwidth measurements against the stated targets.