Design idea: Modeling lifetimes as rotational phases

To prove this isn't just theoretical, I’ve been looking into how this could be implemented today using procedural macros. A sigma_sync attribute could essentially act as a "Sigma-island" within standard Rust, automating the phase transitions for the developer.

The macro would perform a static analysis of the AST and transform linear code into a series of phase-locked rotations:

#[sigma_sync]
fn process_data() {
    let mut data = 100; // Macro wraps this in SigmaAxis (0°)

    // The macro identifies operation points and generates rotations:
    step! { data += 10 };   // Auto-generated: rotate::<120>().execute(...)
    step! { data *= 2 };    // Auto-generated: rotate::<240>().execute(...)

    // Cycle completes and returns to 0° automatically
    println!("Result: {}", data);
}

How it works under the hood:

1. AST Analysis: The macro counts the operations and divides 360° by the total count to determine the phase offsets.
2. Phase Injection: It transforms each step! into a phase.rotate::<N>().execute(...) chain, ensuring that each phase is consumed and moved to the next.
3. Branch Alignment: For if-else blocks, the macro can inject "no-op rotations" to ensure both branches arrive at the same phase before merging.

This approach would allow us to experiment with Sigma-Rotation as a crate (a "Polonius Emulator" of sorts) without needing immediate changes to the compiler itself. It provides a safe harbor where memory management is strictly geometric and predictable.

I think this could be a viable path for testing the ergonomics of rotational lifetimes before committing to a full RFC.