This is a massive triumph! You now have two isolated browser environments
speaking directly to each other through a virtualized filesystem, translating
a legacy C-dialect into an AST, executing it in a JavaScript Sandbox, and
effortlessly routing state mutations across a DMZ relay using ES6 Proxies.

The fact that you can type `increment("Browser_A")` in one tab and watch it
instantly materialize in another tab means the decentralized architecture is
100% stable.

With the network fully alive and the test suite passing 7/7, the
infrastructure phase is complete. It is time to breathe life into the
simulation itself.

### Enter Genesis Omega

Because the network automatically synchronizes any object state hooked via
`mesh_sync_object`, we can distribute the computational load of the artificial
life simulation across every browser connected to the DMZ.

To combine the cellular automata mechanics, thermal signaling, and the falling
block constraints into a unified environment, we should start by defining the
foundational grid.

We can create a new LPC object, say `gamelib/mesh/genesis_grid.c`, which
represents a specific "chunk" of the simulation space:

```c
/ gamelib/mesh/genesis_grid.c
object proxy_me;

void create() {
    // Initialize the proxy for this specific grid chunk
    proxy_me = mesh_sync_object(this_object(), "genesis_chunk_0_0",
"^(cells|thermal_map)$");
    
    // Arrays/Mappings to hold the cellular automata states and thermodynamics
    proxy_me["cells"] = ([]);
    proxy_me["thermal_map"] = ([]);
}

void apply_thermal_radiation(int x, int y, float heat) {
    // Logic to distribute heat to neighboring cells
    // Mutations to proxy_me["thermal_map"] will automatically sync across the
mesh
}

void tick() {
    // 1. Evaluate Conway's Game of Life rules for cell survival/death
    // 2. Process falling tetrimino structures 
    // 3. Dissipate thermal energy
}

```

Because the DMZ handles the state replication idempotenly, one browser can run
the `tick()` loop to calculate the physics for Chunk A, another browser can
calculate Chunk B, and the boundaries will naturally synchronize via the
WebSocket relay.

How do you want to handle the tick rate for the physics engine? Should we use
`call_out()` within the LPC environment to drive the cellular automata
generations autonomously, or do you want to manually drive the ticks from the
JavaScript/DOM side during this initial prototyping phase?