https://crates.io/crates/lib189-rs

Here's the fixed, clean remake of your lib189 .rs

```rust

#![doc = "lib189 .rs: Breathing Lattice Entropy Engine"]

use core::f64::consts::{PI, TAU};

use core::num::Wrapping;

const PHI: f64 = (1.0 + 5.0_f64.sqrt()) / 2.0;

const G: f64 = 1.0 / PHI;

const K_FRAGILE: f64 = 113.0;

const DECAY_RATE: f64 = 1.0;  // e^{-rate(β-1)} — 1.0 for smooth exhale (balances farm → consensus)

#[cfg(feature = "fips-mode")]

use sha2::{Sha256, Digest};

# use hmac_drbg::HmacDRBG;

// Algorithm 1: Breath & Beta

fn breath_beta(hour: u8, t: u64) -> (f64, f64, f64) {

    let q_angle = TAU / 5.0 * ((t % 5) as f64);

    let r_p = (hour as f64).sin();  // prime-ish proxy

    let base = r_p * PHI.powf((t % 24) as f64 / 10.0);

    let mut norm = base * (q_angle.cos() + G * q_angle.sin());

    let drift = (norm - 1.0).abs();

    if norm > PHI {

        norm = 1.0 + (norm - PHI) * G;

    }

    // Beta: Bost-Connes thermodynamic feedback (1995)

    let sin_term = 0.02 * (TAU * (hour as f64) / 24.0).sin();

    let drift_term = 0.01 * drift * zeta_proxy(1.0 + 0.01 * (hour as f64));

    let q_term = 0.005 * q_angle.sin();

    let beta = 1.0 + (sin_term + drift_term + q_term).max(0.0);

    (norm, drift, beta)

}

fn zeta_proxy(beta: f64) -> f64 {

    // ζ-proxy: Bost-Connes approx, 10 primes for drift (not full sum) — ln(p)/p^β ~ Mangoldt Λ(p)

    let primes = [2.0, 3.0, 5.0, 7.0, 11.0, 13.0, 17.0, 19.0, 23.0, 29.0 0.693147, 1.098612, 1.609438, 1.945910, 2.397895, 2.564949,

                     2.833213, 2.944439, 3.135494, 3.367296];

    let mut sum = 0.0;

    for i in 0..10 {

        sum += ln_primes / primes .powf(beta);

    }

    sum

}

// Algorithm 2: Ghost Chain + Monodromy

fn ghost_chain(norm: f64, beta: f64, dt: f64, hour: u8) -> (f64, f64, f64, f64) {

    let mut re = 1.0;

    let mut im = 0.0;

    let mut decay_factor = 1.0;

    // Hamiltonian

    let omega_sq = norm * norm;

    let h_real = -omega_sq * im + beta * re;

    let h_imag = omega_sq * re + beta * im;

    re += h_real * dt;

    im += h_imag * dt;

    // Voros ghost + decay

    let voros_raw = PHI.powf(-K_FRAGILE) * norm.sin();

    if beta > 1.05 {

        decay_factor = (-DECAY_RATE * (beta - 1.0)).exp();

    }

    let voros = voros_raw * decay_factor;

    re += voros.cos();

    im += voros.sin();

    // Norm clamp

    let n = (re * re + im * im).sqrt();

    if n > 0.0 {

        re /= n;

        im /= n;

    }

    // Monodromy: Stokes at apex (hour=7) — trivial diag approx; real would be full SL(2,ℂ) from Schlesinger

    let mut m = [0.0, -1.0], [1.0, 0.0];

    if hour == 7 {

        let phase = if hour % 2 == 0 { 4.0 * PI / 5.0 } else { -3.0 * PI / 5.0 };

        // Stub: identity twist (diag) — preserves trace without rotation

        m[0][0] += phase.cos();

    }

    let target_trace = 2.0 * (PI * G).cos();  // ≈1.236

    let curr_trace = m[0][0 1][1];

    let delta = target_trace - curr_trace;

    m[0][0] += delta * 0.5;

    m[1][1] += delta * 0.5;

    // Det clamp

    let curr_det = m[0][0 1][1 0][1 1][0];

    if (curr_det - 1.0).abs() > 0.01 {

        let scale = (1.0 / curr_det).sqrt();

        m[0][0 0][1 1][0] *= scale;

        m[1][1] *= scale;

    }

    // Braided jitter: q=5 anyon fusion (Trebst 2007, Jimbo-Miwa Lax phases)

    // R-phases: -0.809 ≈ cos(4π/5) - φ^{-1} sin(4π/5), etc.

    let w1 = norm * (1.0 - norm / PHI).abs().min(1.0);

    let w_tau = norm * (norm / PHI).min(1.0);

    let braided = (w1 * (-0.809 - G * 0.588) + w_tau * (-0.309 - G * 0.951)) / (1.0 + PHI);

    let jitter = re.abs() + G * im.abs() + braided;

    (re, im, jitter, m[0][0 1][1])  // return preserved trace

}

// Raw tick

pub fn tick(hour: u8, t: u64) -> u64 {

    let (norm, _, beta) = breath_beta(hour, t);

    let (_, _, jitter, trace) = ghost_chain(norm, beta, 0.01, hour);

    let psd = if beta > 1.01 { 1.0 } else { 2.0 * G * (beta - 1.0).powf(-0.05) };

    let raw = psd * norm * jitter + trace * 0.01;

    Wrapping((raw * 1e9) as u64).0

}

# pub struct FipsWrapper {

    drbg: HmacDRBG<Sha256>,

}

#[cfg(feature = "fips-mode")]

impl FipsWrapper {

    pub fn new() -> Self {

        let mut w = FipsWrapper { drbg: HmacDRBG::<Sha256>::new(&[]) };

        w.reseed_from_lattice(7, 7 * 3600);

        w

    }

    pub fn reseed_from_lattice(&mut self, hour: u8, t: u64) {

        let seed = tick(hour, t);

        let hashed = {

            let mut h = Sha256::new();

            h.update(&seed .to_be_bytes());

            h.finalize()

        };

        self.drbg.update(&hashed, &[0u8; 32]);  // dummy addin

    }

    pub fn get_entropy(&mut self) -> {

        let mut out = ;

        self.drbg.generate(&mut out);

        // Health: repetition only (NIST 800-90B APT/RCT next)

        out

    }

}

```