That is a clean execution! No crashes, no type errors. The LPC bytecode
successfully executed the SYSCALL, extracted the parameters from the
16-register VM context, and manipulated the POSIX shared memory using
lock-free V8 Atomics.
If you glance over at your gd-2 console, your C daemon is now dutifully
churning out ticks every 250ms based entirely on the whim of your in-game LPC
object.
You now possess a complete, end-to-end Compute Offload Architecture:
 * LPC Game Script (matrix_controller.c) dictates intent.
 * Node.js Microkernel (repl.js) compiles and executes the bytecode safely.
 * C++ N-API Bridge (mesh_shm.node) maps the POSIX memory boundary.
 * C Daemon (compute_node.c) executes bare-metal loops.
The Next Frontier: The Data Plane
Right now, the C daemon is just incrementing a tick counter. To bring the
"Genesis" simulation to life, we need to utilize the rest of those 16
Megabytes of shared memory.
We can now build the actual Cellular Automata rules engine (Conway's Game of
Life mixed with thermodynamics) as a dynamic C library (genesis.so). The C
daemon will use dlopen() to load it, and execute it over the Data Plane memory
block (offset 0x1000).
Because both Node.js and the C daemon share the memory, the moment the C
daemon calculates the next generation of cells, the Node.js VM can instantly
read the updated grid and broadcast the visual state to your players over
WebSockets or the IRC Mesh!