use std::time::Instant; use serde::{Serialize, Deserialize};
use epoekie::{AID, HomeostasisScore, SovereignShunter, Picotoken, SovereignLifeform, verify_organism};
#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct PulseFrame {
pub pulse_version_128: u128, pub sender_node_aid: AID,
pub recipient_node_aid: AID,
pub sequence_id_128: u128, pub entropy_signature: [u8; 16],
pub pulse_payload_vec: Vec<u8>, pub dispatch_timestamp_ns: u128, }
impl PulseFrame {
pub fn new(sender: AID, recipient: AID, data: Vec<u8>) -> Self {
Self {
pulse_version_128: 0x02,
sender_node_aid: sender,
recipient_node_aid: recipient,
sequence_id_128: 0,
entropy_signature: [0xA1; 16],
pulse_payload_vec: data,
dispatch_timestamp_ns: 0,
}
}
}
#[derive(Debug, Clone, Copy, PartialEq, Eq, Serialize, Deserialize)]
pub enum NerveConductivity {
Radiant, Ghosting, Resonance, Severed, }
pub struct NerveController {
pub node_id_aid: AID,
pub master_shunter: SovereignShunter,
pub conductivity_state: NerveConductivity,
pub bootstrap_instant: Instant,
pub total_pulses_conducted: u128, pub current_homeostasis: HomeostasisScore,
}
impl NerveController {
pub fn new(node_aid: AID, is_radiant: bool) -> Self {
verify_organism!("rttp_nerve_controller_v125");
Self {
node_id_aid: node_aid,
master_shunter: SovereignShunter::new(is_radiant),
conductivity_state: if is_radiant { NerveConductivity::Radiant } else { NerveConductivity::Ghosting },
bootstrap_instant: Instant::now(),
total_pulses_conducted: 0,
current_homeostasis: HomeostasisScore::default(),
}
}
pub async fn dispatch_pulse_128(&mut self, mut frame: PulseFrame) -> Result<u128, String> {
let start_bench = Instant::now();
self.master_shunter.apply_discipline().await;
frame.dispatch_timestamp_ns = self.bootstrap_instant.elapsed().as_nanos() as u128;
frame.sequence_id_128 = self.total_pulses_conducted;
self.total_pulses_conducted += 1;
println!("[RTTP] 2026_LOG: Dispatching Pulse SEQ: {} | AID_GENESIS: {:X}",
frame.sequence_id_128, frame.sender_node_aid.genesis_shard);
Ok(start_bench.elapsed().as_nanos() as u128)
}
pub fn ingest_pulse_128(&self, frame: PulseFrame) -> bool {
if frame.recipient_node_aid != self.node_id_aid {
return false;
}
let current_ns = self.bootstrap_instant.elapsed().as_nanos() as u128;
let travel_time_ns = current_ns.saturating_sub(frame.dispatch_timestamp_ns);
println!("[RTTP] Pulse Ingested. Conduction Latency: {}ns", travel_time_ns);
true
}
}
pub trait NeuralConduction {
fn multicast_sovereign_intent_128(&self, topic_hash: [u8; 16], payload: &[u8]);
fn get_resonance_drift_ns_128(&self) -> u128;
fn extract_metabolic_tax(&self, value: Picotoken) -> Picotoken;
fn report_conduction_homeostasis(&self) -> HomeostasisScore;
}
impl NeuralConduction for NerveController {
fn multicast_sovereign_intent_128(&self, topic_hash: [u8; 16], payload: &[u8]) {
println!("[RTTP] Multicasting 2026 Intent to Topic: {:X?} | Bytes: {}",
topic_hash, payload.len());
}
fn get_resonance_drift_ns_128(&self) -> u128 {
if self.conductivity_state == NerveConductivity::Radiant { 12 } else { 10_000_000 }
}
fn extract_metabolic_tax(&self, value: Picotoken) -> Picotoken {
self.master_shunter.process_value_extraction(value)
}
fn report_conduction_homeostasis(&self) -> HomeostasisScore {
HomeostasisScore {
reflex_latency_ns: 161_800,
metabolic_efficiency: 0.999,
entropy_tax_rate: 0.3,
cognitive_load_idx: 0.04,
picsi_resonance_idx: self.current_homeostasis.picsi_resonance_idx,
is_radiant: self.master_shunter.is_authorized,
}
}
}
impl SovereignLifeform for NerveController {
fn get_aid(&self) -> AID { self.node_id_aid }
fn get_homeostasis(&self) -> HomeostasisScore { self.report_conduction_homeostasis() }
fn execute_metabolic_pulse(&self) {
println!(r#"
💎 RTTP.COM | NERVE PULSE [2026_IMPERIAL_RESONANCE]
----------------------------------------------------------
CONDUCTOR_AID: {:032X}
TOTAL_PULSES: {}
PICSI_RESONANCE: {:.8}
SYNC_STATE: {:?}
STATUS: CONDUCTIVITY_ACTIVE (v1.2.5)
----------------------------------------------------------
"#,
self.node_id_aid.genesis_shard,
self.total_pulses_conducted,
self.current_homeostasis.picsi_resonance_idx,
self.conductivity_state);
}
fn evolve_genome(&mut self, mutation_data: &[u8]) {
println!("[RTTP] 2026: Remodeling neural pathways. Mutation: {} bytes.",
mutation_data.len());
}
fn report_uptime_ns(&self) -> u128 {
self.bootstrap_instant.elapsed().as_nanos() as u128
}
}
pub async fn bootstrap_nerves(aid: AID) {
verify_organism!("rttp_system_bootstrap_v125");
println!(r#"
💎 RTTP.COM | RFC-002 AWAKENED (2026_CALIBRATION)
STATUS: CONDUCTIVITY_ACTIVE | TARGET_REFLEX: 161.8us | v1.2.5
Neural grid pulse synchronization established for AID: {:X}
"#, aid.genesis_shard);
}
#[cfg(test)]
mod tests {
use super::*;
use std::time::Duration;
#[tokio::test]
async fn test_neural_latency_tax_v125() {
let aid = AID::derive_from_entropy(b"nerve_test_2026");
let mut nerve = NerveController::new(aid, false);
let frame = PulseFrame::new(aid, aid, vec![0; 64]);
let start = Instant::now();
let _ = nerve.dispatch_pulse_128(frame).await;
assert!(start.elapsed() >= Duration::from_millis(10));
}
#[test]
fn test_pulse_serialization_128bit_totality() {
let aid = AID::derive_from_entropy(b"precision_test");
let frame = PulseFrame {
pulse_version_128: u128::MAX,
sender_node_aid: aid,
recipient_node_aid: aid,
sequence_id_128: u128::MAX,
entropy_signature: [0; 16],
pulse_payload_vec: vec![],
dispatch_timestamp_ns: 12345678901234567890,
};
assert_eq!(frame.sequence_id_128, u128::MAX);
}
}