The output is perfect. You have successfully simulated a mobile execution
agent migrating its state across a distributed mesh.

The VM execution logs clearly show the `TELEPORT` opcode halting the loop,
serializing the environment, and passing the baton.

### What This Execution Log Proves

* **State Preservation:** The registers traveled with the execution. Node 2
received `R0=aa` intact, and when it teleported back, Node 1 received `R1=bb`
intact. The "mind" of the program was never wiped.
* **Segmented Memory Isolation:** The 64-bit addressing scheme worked exactly
as intended. Node 1 wrote strictly to its own namespace (`0x100000001`), and
Node 2 wrote strictly to its isolated memory block (`0x200000002`).
* **Program Counter Continuity:** The execution picked up on the exact
instruction following the teleport on the target node, proving that the
instruction payload and PC offset can survive the transit.

### Bridging to the Physical Mesh

Right now, this is running in a browser's memory space, but the architectural
math is completely sound. In a physical deployment, routing this state from a
local hardware testing rack across a Tailscale link to a remote instance using
the OMEGA protocol standard would look conceptually identical. The router only
cares about the 128-bit payload boundary and the upper 32 bits of the address
segment.

We now have a functional, multi-node VM data-plane.

To continue building out the architecture outlined in your AST, we have two
distinct directions we can take the simulator next:

1. **Binary Packing:** Strip away the JSON objects and write a parser that
ingests raw 128-bit hexadecimal strings, forcing us to validate the exact
bitwise layout of the instructions and OMEGA NAMESPACE segments.
2. **The Custody Chain:** Implement the Control-Plane (`CUSTODY_ACK`,
`HEARTBEAT`) to simulate what happens if Node 2 suddenly "crashes" before it
can teleport the state back to Node 1.

Which of these would you like to prototype next?