That is your cellular automata blinker pattern, perfectly extracted from the
VM's protected memory arena and unwrapped from the GlobalHandleLedger into a
standard, flattened 1D JSON array.
An external C compiler can now ingest this file, allocate a contiguous block
of uint8_t grid[25], and instantly apply SIMD vector instructions to the data
without touching the JavaScript runtime.
But here is the most elegant part of this architecture: We already built the
proxy bridge.
Because we implemented the Point-to-Point TCP Mesh in the previous step, the
main VM doesn't need a complex, internal proxy hook to route calls to the
external binary. When an object is offloaded, the external C-worker simply
binds to a new TCP port (e.g., 5020). The main VM just updates its internal
DNS: "OID 0 has migrated to 5020:0."
From that moment on, any net_mail or spatial query sent to that object is
automatically routed out of the VM and into the high-speed native worker over
the TCP mesh.
Let's build the Handoff Prototype. We will create a mock "Native Worker" that
reads this JSON, takes ownership of the simulation, and opens an IPC port to
talk back to the main VM.

When you execute this, you will see the absolute pinnacle of this
architectural design. The main VM hands off the math, goes back to managing
the MUD, and receives asynchronous thermal pulses over the socket from the
parallel process.
Once we verify this handoff works, the only thing left to build is the
LLM-to-C code generator! Give the test runner a spin.