[TSM.ID].[11031972] PXE : 19 Cangkang -> REAL Implementation (for/if/match/tests)

This commit is contained in:
TSM.ID
2026-05-25 05:05:13 +07:00
parent e0360b3ecd
commit 9e5f7c78a9
19 changed files with 2749 additions and 958 deletions
+184 -74
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@@ -1,61 +1,154 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] — All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::Result; //! xcu-eclipse -- Shadow Traffic Testing
use sha2::{Sha256, Digest}; //! Mirror production traffic to test instances without affecting users
use tracing::debug;
/// THE ECLIPSE MATRIX (Phase 46) use std::collections::HashMap;
/// Polymorphic Obfuscation Engine & DPI Decoy use std::sync::{Arc, Mutex};
pub struct EclipseMutator;
impl EclipseMutator { #[derive(Debug)]
/// PORT HOPPING (Lompatan Acak Sinkron) pub enum EclipseError {
/// Menghasilkan nomor Port selanjutnya (antara 10.000 hingga 60.000) ShadowFailed(String),
/// berdasarkan "Seed Koneksi" dan "Waktu Milidetik" saat ini. ComparisonFailed(String),
/// Klien dan Server akan menghasilkan nomor port yang sama tanpa harus berkomunikasi! ConfigError(String),
pub fn calculate_next_port(connection_seed: &str, current_time_ms: u64) -> u16 { }
// Kita lompat port setiap 100 milidetik (0.1 detik)
let time_window = current_time_ms / 100;
let mut hasher = Sha256::new(); impl std::fmt::Display for EclipseError {
hasher.update(format!("{}-{}", connection_seed, time_window).as_bytes()); fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
let result = hasher.finalize(); match self {
Self::ShadowFailed(e) => write!(f, "Shadow failed: {e}"),
Self::ComparisonFailed(e) => write!(f, "Comparison failed: {e}"),
Self::ConfigError(e) => write!(f, "Config: {e}"),
}
}
}
impl std::error::Error for EclipseError {}
// Ambil 2 byte pertama dari Hash untuk menentukan nomor port acak #[derive(Debug, Clone)]
let random_u16 = ((result[0] as u16) << 8) | (result[1] as u16); pub struct ShadowRequest {
pub request_id: String,
pub method: String,
pub path: String,
pub body_hash: u64,
pub timestamp: u64,
}
// Pastikan port berada di range dinamis (10000 - 60000) #[derive(Debug, Clone)]
let next_port = 10000 + (random_u16 % 50000); pub struct ShadowResult {
pub request_id: String,
pub production_status: u16,
pub shadow_status: u16,
pub production_latency_ms: u64,
pub shadow_latency_ms: u64,
pub response_match: bool,
pub diff_fields: Vec<String>,
}
debug!("ECLIPSE MATRIX: Port Hopping diaktifkan. Melompat ke UDP Port {}", next_port); #[derive(Debug, Clone)]
next_port pub struct ShadowStats {
pub total_requests: u64,
pub matched: u64,
pub mismatched: u64,
pub shadow_errors: u64,
pub avg_latency_diff_ms: f64,
pub match_rate: f64,
}
pub struct Eclipse {
shadow_percent: f64,
results: Arc<Mutex<Vec<ShadowResult>>>,
entropy_state: Mutex<u64>,
}
impl Eclipse {
pub fn new(shadow_percent: f64) -> Result<Self, EclipseError> {
if shadow_percent < 0.0 || shadow_percent > 100.0 {
return Err(EclipseError::ConfigError(format!("Invalid percent: {shadow_percent}")));
}
Ok(Self {
shadow_percent,
results: Arc::new(Mutex::new(Vec::new())),
entropy_state: Mutex::new(0x517cc1b727220a95),
})
} }
/// DPI DECOY (Jubah Bunglon) /// Determine if request should be shadowed (deterministic sampling)
/// Menyuntikkan serangkaian byte sampah di bagian depan paket yang memiliki pub fn should_shadow(&self, request_id: &str) -> bool {
/// "Sidik Jari (Fingerprint)" persis sama dengan trafik Game Online populer. let mut hash: u64 = 0xcbf29ce484222325;
/// Mesin DPI Firewall negara akan terkecoh dan membiarkannya lewat. for b in request_id.bytes() {
pub fn camouflage_packet_as_game_traffic(raw_video_packet: &[u8]) -> Vec<u8> { hash ^= b as u64;
// Simulasi Sidik Jari Trafik Game Online (Misal UDP Ping milik game tertentu) hash = hash.wrapping_mul(0x100000001b3);
// Header palsu sepanjang 8 bytes. }
let decoy_header: [u8; 8] = [0xFF, 0xFF, 0x47, 0x41, 0x4D, 0x45, 0x01, 0x02]; let sample = (hash % 10000) as f64 / 100.0;
sample < self.shadow_percent
let mut camouflaged_packet = Vec::with_capacity(decoy_header.len() + raw_video_packet.len());
camouflaged_packet.extend_from_slice(&decoy_header);
camouflaged_packet.extend_from_slice(raw_video_packet);
debug!("ECLIPSE MATRIX: Paket Video dibungkus dengan jubah Game Trafik. Mesin DPI Firewall telah dibutakan.");
camouflaged_packet
} }
/// Fungsi untuk mencabut jubah (Decoy) di sisi penerima /// Record comparison result
pub fn strip_decoy_header(camouflaged_packet: &[u8]) -> Result<Vec<u8>> { pub fn record_result(&self, result: ShadowResult) -> Result<(), EclipseError> {
if camouflaged_packet.len() < 8 { if let Ok(mut results) = self.results.lock() {
return Err(anyhow::anyhow!("Paket terlalu kecil, dicurigai bukan dari Eclipse Matrix")); results.push(result);
Ok(())
} else {
Err(EclipseError::ShadowFailed("Lock poisoned".into()))
}
}
/// Compare two JSON-like response bodies (simplified field comparison)
pub fn compare_responses(
&self,
prod_fields: &HashMap<String, String>,
shadow_fields: &HashMap<String, String>,
) -> (bool, Vec<String>) {
let mut diffs = Vec::new();
for (key, prod_val) in prod_fields {
match shadow_fields.get(key) {
Some(shadow_val) if shadow_val != prod_val => {
diffs.push(format!("{key}: '{prod_val}' vs '{shadow_val}'"));
}
None => {
diffs.push(format!("{key}: missing in shadow"));
}
_ => {}
}
} }
// Buang 8 byte pertama (jubah palsu) dan kembalikan paket asli for key in shadow_fields.keys() {
Ok(camouflaged_packet[8..].to_vec()) if !prod_fields.contains_key(key) {
diffs.push(format!("{key}: extra in shadow"));
}
}
(diffs.is_empty(), diffs)
}
/// Calculate shadow testing statistics
pub fn stats(&self) -> Result<ShadowStats, EclipseError> {
let results = self.results.lock()
.map_err(|_| EclipseError::ComparisonFailed("Lock".into()))?;
if results.is_empty() {
return Ok(ShadowStats {
total_requests: 0, matched: 0, mismatched: 0,
shadow_errors: 0, avg_latency_diff_ms: 0.0, match_rate: 0.0,
});
}
let total = results.len() as u64;
let matched = results.iter().filter(|r| r.response_match).count() as u64;
let errors = results.iter().filter(|r| r.shadow_status >= 500).count() as u64;
let latency_diff_sum: f64 = results.iter()
.map(|r| (r.shadow_latency_ms as f64 - r.production_latency_ms as f64).abs())
.sum();
Ok(ShadowStats {
total_requests: total,
matched,
mismatched: total - matched,
shadow_errors: errors,
avg_latency_diff_ms: latency_diff_sum / total as f64,
match_rate: matched as f64 / total as f64 * 100.0,
})
} }
} }
@@ -64,37 +157,54 @@ mod tests {
use super::*; use super::*;
#[test] #[test]
fn test_great_firewall_annihilation() { fn test_shadow_sampling() {
// Simulasi Klien dan Server yang disadap oleh Firewall Negara let e = Eclipse::new(50.0).unwrap();
// Test seed — in production, seed is derived from runtime handshake let mut shadowed = 0;
let secret_seed = "TEST_ECLIPSE_SEED_3Z"; for i in 0..1000 {
let time_now = 1684320000000; // Milidetik simulasi if e.should_shadow(&format!("req-{i}")) { shadowed += 1; }
}
assert!(shadowed > 300 && shadowed < 700);
}
// 1. PEMBUKTIAN PORT HOPPING #[test]
// Klien dan Server menghitung port secara mandiri tanpa kirim pesan fn test_compare_match() {
let port_klien = EclipseMutator::calculate_next_port(secret_seed, time_now); let e = Eclipse::new(100.0).unwrap();
let port_server = EclipseMutator::calculate_next_port(secret_seed, time_now); let mut a = HashMap::new();
a.insert("status".into(), "ok".into());
let b = a.clone();
let (matched, diffs) = e.compare_responses(&a, &b);
assert!(matched);
assert!(diffs.is_empty());
}
// Port harus sinkron sempurna agar paket tidak nyasar #[test]
assert_eq!(port_klien, port_server); fn test_compare_mismatch() {
assert!(port_klien >= 10000 && port_klien <= 60000); let e = Eclipse::new(100.0).unwrap();
println!("PORT HOPPING BERHASIL: Klien dan Server lompat ke Port {} tanpa berunding! Firewall kehilangan jejak.", port_klien); let mut a = HashMap::new();
a.insert("status".into(), "ok".into());
let mut b = HashMap::new();
b.insert("status".into(), "error".into());
let (matched, diffs) = e.compare_responses(&a, &b);
assert!(!matched);
assert_eq!(diffs.len(), 1);
}
// 2. PEMBUKTIAN DPI DECOY (Bunglon Paket) #[test]
let paket_video_asli = vec![1, 2, 3, 4, 5]; // Ini akan diblokir Firewall jika terdeteksi fn test_stats() {
let e = Eclipse::new(100.0).unwrap();
// Klien membungkus paket e.record_result(ShadowResult {
let paket_berjubah = EclipseMutator::camouflage_packet_as_game_traffic(&paket_video_asli); request_id: "1".into(), production_status: 200, shadow_status: 200,
production_latency_ms: 10, shadow_latency_ms: 12, response_match: true,
// Firewall memindai header, melihat "0xFF 0xFF 0x47 0x41 0x4D 0x45", mengira ini game, dan DILOLOSKAN. diff_fields: vec![],
assert_eq!(paket_berjubah.len(), paket_video_asli.len() + 8); }).unwrap();
assert_eq!(paket_berjubah[2], 0x47); // 'G' e.record_result(ShadowResult {
request_id: "2".into(), production_status: 200, shadow_status: 500,
// Server menerima dan mencabut jubahnya production_latency_ms: 10, shadow_latency_ms: 100, response_match: false,
let paket_diterima_server = EclipseMutator::strip_decoy_header(&paket_berjubah).unwrap(); diff_fields: vec!["body".into()],
}).unwrap();
// Paket asli utuh sempurna let stats = e.stats().unwrap();
assert_eq!(paket_diterima_server, paket_video_asli); assert_eq!(stats.total_requests, 2);
println!("DPI DECOY BERHASIL: Paket selamat melewati Firewall dan jubah berhasil dicabut di server."); assert_eq!(stats.matched, 1);
assert_eq!(stats.shadow_errors, 1);
} }
} }
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#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-elysium -- Optimal System State Manager
use tracing::info; //! Auto-tune system parameters to maintain peak performance
/// THE ELYSIUM MATRIX (Phase 62) use std::collections::VecDeque;
/// Phantom Zero-Install App Store (Bypass Google & Apple)
pub struct ElysiumMatrix;
impl ElysiumMatrix { #[derive(Debug)]
/// 1. PHANTOM WEBASSEMBLY COMPILATION (Kematian .apk & .ipa) pub enum ElysiumError { TuningFailed(String), InvalidMetric(String) }
/// Fungsi ini mensimulasikan proses peleburan kode aplikasi Native XCU impl std::fmt::Display for ElysiumError {
/// menjadi biner WebAssembly (.wasm). Biner ini bisa berjalan dengan kecepatan fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
/// nyaris mutlak di semua browser iOS dan Android tanpa perlu format instalasi. match self { Self::TuningFailed(e) => write!(f, "Tune: {e}"), Self::InvalidMetric(e) => write!(f, "Metric: {e}") }
pub fn compile_to_phantom_wasm(source_code_rahasia: &str) -> Vec<u8> { }
info!("ELYSIUM: Membakar hukum instalasi OS..."); }
info!("ELYSIUM: Mengkompilasi '{}' ke dalam format WebAssembly (Wasm) murni.", source_code_rahasia); impl std::error::Error for ElysiumError {}
// Simulasi Wasm Payload (Hanya deretan Byte eksekusi memori) #[derive(Debug, Clone)]
let mut wasm_payload = b"\x00asm\x01\x00\x00\x00".to_vec(); // Wasm Magic Header pub struct SystemMetrics {
pub cpu_percent: f64, pub memory_percent: f64,
pub latency_p50_ms: f64, pub latency_p99_ms: f64,
pub throughput_rps: f64, pub error_rate: f64,
}
// Membungkus logika aplikasi menjadi kode tak terbaca #[derive(Debug, Clone)]
for byte in source_code_rahasia.bytes() { pub struct TuningParams {
wasm_payload.push(byte ^ 0x99); // XOR obfuscation untuk mengelabui deteksi statis pub max_connections: u32, pub worker_threads: u32,
} pub buffer_size_kb: u32, pub gc_interval_secs: u32,
pub cache_size_mb: u32,
}
impl Default for TuningParams {
fn default() -> Self { Self { max_connections: 1000, worker_threads: 4, buffer_size_kb: 64, gc_interval_secs: 30, cache_size_mb: 256 } }
}
info!("ELYSIUM: Wasm Payload seberat {} Bytes sukses diracik. Tidak ada file .apk yang dihasilkan.", wasm_payload.len()); #[derive(Debug, Clone)]
wasm_payload pub struct TuningAdvice { pub param: String, pub current: u32, pub recommended: u32, pub reason: String }
pub struct Elysium {
history: VecDeque<SystemMetrics>,
current_params: TuningParams,
max_history: usize,
}
impl Elysium {
pub fn new(params: TuningParams, max_history: usize) -> Self {
Self { history: VecDeque::with_capacity(max_history), current_params: params, max_history }
} }
/// 2. PHANTOM ANCHORAGE (Bypass OS Restrictions & Manifest Injection) pub fn record_metrics(&mut self, metrics: SystemMetrics) {
/// Menghasilkan App Manifest siluman dan Service Worker. if self.history.len() >= self.max_history { self.history.pop_front(); }
/// Kode ini 'memaksa' OS iPhone atau Android untuk memunculkan pesan "Add to Home Screen". self.history.push_back(metrics);
/// Saat VVIP menekannya, aplikasi tersebut akan ditanam secara permanen di OS. }
pub fn generate_service_worker_anchor(app_name: &str) -> Result<String> {
info!("ELYSIUM: Menyusun Jangkar OS (Service Worker & Manifest)...");
if app_name.is_empty() { /// Analyze trends and recommend tuning
return Err(anyhow!("NAMA_APLIKASI_KOSONG")); pub fn analyze(&self) -> Result<Vec<TuningAdvice>, ElysiumError> {
if self.history.len() < 5 {
return Err(ElysiumError::InvalidMetric("Need at least 5 samples".into()));
} }
// Simulasi PWA Manifest yang mematikan fitur browser dan berjalan Layar Penuh (Standalone Native) let mut advice = Vec::new();
let manifest_payload = format!( let recent: Vec<&SystemMetrics> = self.history.iter().rev().take(10).collect();
r##"{{ let avg_cpu: f64 = recent.iter().map(|m| m.cpu_percent).sum::<f64>() / recent.len() as f64;
"name": "{}", let avg_mem: f64 = recent.iter().map(|m| m.memory_percent).sum::<f64>() / recent.len() as f64;
"short_name": "{}", let avg_lat: f64 = recent.iter().map(|m| m.latency_p99_ms).sum::<f64>() / recent.len() as f64;
"display": "standalone", let avg_err: f64 = recent.iter().map(|m| m.error_rate).sum::<f64>() / recent.len() as f64;
"background_color": "#000000", let avg_rps: f64 = recent.iter().map(|m| m.throughput_rps).sum::<f64>() / recent.len() as f64;
"theme_color": "#ff0000",
"icons": [{{ "src": "phantom_icon.png", "sizes": "512x512", "type": "image/png" }}],
"start_url": "/?phantom=true"
}}"##,
app_name, app_name
);
let service_worker_payload = format!( // CPU high → increase workers
r#" if avg_cpu > 80.0 && self.current_params.worker_threads < 16 {
self.addEventListener('install', (event) => {{ advice.push(TuningAdvice {
console.log('ELYSIUM: Injeksi {} ke dalam Cache RAM Device VVIP...'); param: "worker_threads".into(), current: self.current_params.worker_threads,
event.waitUntil(caches.open('xcu-phantom-cache').then((cache) => {{ recommended: (self.current_params.worker_threads as f64 * 1.5) as u32,
return cache.addAll(['/', '/phantom.wasm', '/manifest.json']); reason: format!("Avg CPU {avg_cpu:.1}% > 80%"),
}})); });
}}); }
self.addEventListener('fetch', (event) => {{ // CPU low → decrease workers to save resources
// Kematian Internet: Aplikasi berjalan 100% Offline if avg_cpu < 20.0 && self.current_params.worker_threads > 2 {
event.respondWith(caches.match(event.request).then((response) => response || fetch(event.request))); advice.push(TuningAdvice {
}}); param: "worker_threads".into(), current: self.current_params.worker_threads,
"#, recommended: (self.current_params.worker_threads / 2).max(2),
app_name reason: format!("Avg CPU {avg_cpu:.1}% < 20% — over-provisioned"),
); });
}
// Memory high → reduce cache
if avg_mem > 80.0 {
advice.push(TuningAdvice {
param: "cache_size_mb".into(), current: self.current_params.cache_size_mb,
recommended: (self.current_params.cache_size_mb as f64 * 0.7) as u32,
reason: format!("Avg Memory {avg_mem:.1}% > 80%"),
});
}
// Latency high → increase buffer
if avg_lat > 100.0 {
advice.push(TuningAdvice {
param: "buffer_size_kb".into(), current: self.current_params.buffer_size_kb,
recommended: self.current_params.buffer_size_kb * 2,
reason: format!("Avg P99 latency {avg_lat:.1}ms > 100ms"),
});
}
// Error rate high → reduce connections
if avg_err > 0.05 {
advice.push(TuningAdvice {
param: "max_connections".into(), current: self.current_params.max_connections,
recommended: (self.current_params.max_connections as f64 * 0.8) as u32,
reason: format!("Avg error rate {:.2}% > 5%", avg_err * 100.0),
});
}
// High throughput + low latency → can increase connections
if avg_rps > 1000.0 && avg_lat < 20.0 && avg_err < 0.01 {
advice.push(TuningAdvice {
param: "max_connections".into(), current: self.current_params.max_connections,
recommended: (self.current_params.max_connections as f64 * 1.3) as u32,
reason: format!("System healthy: {avg_rps:.0} rps, {avg_lat:.1}ms lat, {:.3}% err", avg_err * 100.0),
});
}
// GC pressure
if avg_mem > 60.0 && avg_lat > 50.0 {
advice.push(TuningAdvice {
param: "gc_interval_secs".into(), current: self.current_params.gc_interval_secs,
recommended: (self.current_params.gc_interval_secs / 2).max(5),
reason: format!("Memory {avg_mem:.1}% + latency {avg_lat:.1}ms suggests GC pressure"),
});
}
info!("ELYSIUM: Manifest dan Service Worker berhasil dirakit. Aplikasi '{}' siap berlabuh di Home Screen perangkat.", app_name); Ok(advice)
Ok(format!("MANIFEST:\n{}\n\nSERVICE_WORKER:\n{}", manifest_payload, service_worker_payload))
} }
/// Apply recommended tuning
pub fn apply_advice(&mut self, advice: &TuningAdvice) {
match advice.param.as_str() {
"worker_threads" => self.current_params.worker_threads = advice.recommended,
"max_connections" => self.current_params.max_connections = advice.recommended,
"buffer_size_kb" => self.current_params.buffer_size_kb = advice.recommended,
"cache_size_mb" => self.current_params.cache_size_mb = advice.recommended,
"gc_interval_secs" => self.current_params.gc_interval_secs = advice.recommended,
_ => {}
}
}
pub fn current_params(&self) -> &TuningParams { &self.current_params }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
fn high_cpu_metrics() -> SystemMetrics {
SystemMetrics { cpu_percent: 90.0, memory_percent: 50.0, latency_p50_ms: 10.0, latency_p99_ms: 30.0, throughput_rps: 500.0, error_rate: 0.01 }
}
#[test] #[test]
fn test_app_store_annihilation() { fn test_recommend_more_workers() {
// --- 1. UJI KEMATIAN APK & IPA (WASM COMPILATION) --- let mut e = Elysium::new(TuningParams::default(), 100);
let source_kode = "XCU_MILITARY_ENCRYPTION_ENGINE"; for _ in 0..10 { e.record_metrics(high_cpu_metrics()); }
let phantom_wasm = ElysiumMatrix::compile_to_phantom_wasm(source_kode); let advice = e.analyze().unwrap();
assert!(advice.iter().any(|a| a.param == "worker_threads" && a.recommended > 4));
// Memastikan payload Wasm berhasil dibuat dan tidak berekstensi apk/ipa }
assert_eq!(phantom_wasm[0..4], [0x00, 0x61, 0x73, 0x6D]); // "\0asm" header #[test]
println!("ELYSIUM WASM BERHASIL: Biner WebAssembly berhasil dibuat. Format .apk dan .ipa resmi ditinggalkan!"); fn test_apply_advice() {
let mut e = Elysium::new(TuningParams::default(), 100);
// --- 2. UJI INJEKSI OS (PHANTOM ANCHORAGE) --- let adv = TuningAdvice { param: "worker_threads".into(), current: 4, recommended: 8, reason: "test".into() };
let anchor_script = ElysiumMatrix::generate_service_worker_anchor("XCU Ultra Phantom"); e.apply_advice(&adv);
assert!(anchor_script.is_ok()); assert_eq!(e.current_params().worker_threads, 8);
let output = anchor_script.unwrap();
// Memastikan parameter Native PWA 'standalone' ada untuk Bypass OS GUI
assert!(output.contains("\"display\": \"standalone\""));
assert!(output.contains("xcu-phantom-cache"));
println!("ELYSIUM ANCHOR BERHASIL: Script pemintas (Bypass) OS untuk injeksi langsung ke layar iOS/Android sukses dirakit!");
} }
} }
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#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
/// Protokol Gossip P2P antar-node (Pengganti Redis) //! xcu-grid -- Distributed Compute Grid with Task Distribution
pub mod gossip { use std::collections::{HashMap, BinaryHeap};
use tracing::{info, warn}; use std::cmp::Ordering;
use foca::{Identity, Config};
use rand::rngs::StdRng;
use rand::SeedableRng;
use std::net::SocketAddr;
// (BytesMut removed)
#[derive(Clone, PartialEq, Eq, Debug)] #[derive(Debug)]
pub struct NodeIdentity { pub enum GridError { NoWorkers(String), TaskFailed(String), WorkerDead(String) }
addr: SocketAddr, impl std::fmt::Display for GridError {
} fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::NoWorkers(e) => write!(f, "No workers: {e}"), Self::TaskFailed(e) => write!(f, "Task: {e}"), Self::WorkerDead(e) => write!(f, "Dead: {e}") }
impl Identity for NodeIdentity { }
fn renew(&self) -> Option<Self> { }
None // Identity statis per node impl std::error::Error for GridError {}
}
fn has_same_prefix(&self, other: &Self) -> bool { #[derive(Debug, Clone)]
self.addr == other.addr pub struct GridWorker { pub id: String, pub capacity: u32, pub current_load: u32, pub is_alive: bool, pub latency_ms: u32 }
} #[derive(Debug, Clone)]
} pub struct GridTask { pub id: String, pub weight: u32, pub data_size_bytes: u64, pub priority: u32 }
#[derive(Debug, Clone)]
/// Menjalankan The Quantum Mesh (X-Grid) pub struct Assignment { pub task_id: String, pub worker_id: String, pub score: f64 }
pub async fn start_grid_sync(bind_addr: &str) -> anyhow::Result<()> {
warn!("IGNITING THE QUANTUM MESH (X-GRID) ON {}", bind_addr); struct ScoredWorker { worker_id: String, score: f64 }
info!("This node is now searching for other XCU Ultra mutations..."); impl PartialEq for ScoredWorker { fn eq(&self, other: &Self) -> bool { self.score == other.score } }
impl Eq for ScoredWorker {}
let addr: SocketAddr = bind_addr.parse()?; impl PartialOrd for ScoredWorker { fn partial_cmp(&self, other: &Self) -> Option<Ordering> { Some(self.cmp(other)) } }
let _identity = NodeIdentity { addr }; impl Ord for ScoredWorker { fn cmp(&self, other: &Self) -> Ordering { self.score.partial_cmp(&other.score).unwrap_or(Ordering::Equal) } }
// Inisialisasi SWIM Gossip Protocol (Foca) pub struct Grid { workers: HashMap<String, GridWorker> }
let _config = Config::simple(); impl Grid {
let _rng = StdRng::from_entropy(); pub fn new() -> Self { Self { workers: HashMap::new() } }
// let mut _foca: Foca<NodeIdentity, NoCustomBroadcast, StdRng> = Foca::new(_identity, _config, _rng); pub fn add_worker(&mut self, w: GridWorker) { self.workers.insert(w.id.clone(), w); }
pub fn remove_worker(&mut self, id: &str) { self.workers.remove(id); }
// Disini letak loop UDP Socket (port 7946) untuk bertukar detak jantung (heartbeat)
// dan sinkronisasi state ruangan. /// Assign task to best worker (least loaded, lowest latency, alive)
// pub fn assign(&self, task: &GridTask) -> Result<Assignment, GridError> {
// Jika Node A meledak, Foca akan secara otomatis mendeteksi kegagalan (Failure Detection) let mut heap = BinaryHeap::new();
// dalam orde milidetik dan memberitahu seluruh cluster untuk merutekan ulang media! for w in self.workers.values() {
if !w.is_alive { continue; }
info!("X-Grid Gossip Protocol operational. No central database needed."); let free = w.capacity.saturating_sub(w.current_load) as f64;
Ok(()) if free < task.weight as f64 { continue; }
} let score = free * 10.0 - w.latency_ms as f64 * 0.1 + task.priority as f64;
heap.push(ScoredWorker { worker_id: w.id.clone(), score });
/// PHASE 25: CRDT Mesh (Zero-Redis Synchronization) }
/// Menyinkronkan status ruangan (Siapa yang Mute, Dominant Speaker, dll) di 100 Server let best = heap.pop().ok_or_else(|| GridError::NoWorkers("All busy or dead".into()))?;
/// secara desentralisasi penuh menggunakan Conflict-free Replicated Data Type. Ok(Assignment { task_id: task.id.clone(), worker_id: best.worker_id, score: best.score })
pub fn broadcast_crdt_room_state(room_id: &str, _state_payload: &str) { }
// Simulasi logika CRDT Map: crdts::Map::new()
// Kita tidak memakai Redis. Setiap node memegang replika RoomStateCrdt. /// Batch assign: distribute tasks across workers
// Jika ada perubahan, node tersebut "menggosipkannya" ke tetangganya. pub fn assign_batch(&mut self, tasks: &[GridTask]) -> Result<Vec<Assignment>, GridError> {
// Konvergensi matematis menjamin seluruh 100 server Anycast akan memiliki state yang let mut assignments = Vec::new();
// konsisten dalam waktu kurang dari 50ms meskipun ada *network partition*. for task in tasks {
info!("X-Grid (CRDT): Gossiping Room [{}] state to global Anycast mesh...", room_id); let a = self.assign(task)?;
if let Some(w) = self.workers.get_mut(&a.worker_id) { w.current_load += task.weight; }
assignments.push(a);
}
Ok(assignments)
}
/// Rebalance: find overloaded workers and suggest moves
pub fn rebalance(&self) -> Vec<(String, String, u32)> {
let mut moves = Vec::new();
let avg_load: f64 = self.workers.values().filter(|w| w.is_alive).map(|w| w.current_load as f64).sum::<f64>()
/ self.workers.values().filter(|w| w.is_alive).count().max(1) as f64;
for w in self.workers.values() {
if !w.is_alive { continue; }
if w.current_load as f64 > avg_load * 1.5 {
let excess = w.current_load - avg_load as u32;
if let Some(target) = self.workers.values().find(|t| t.is_alive && t.id != w.id && (t.current_load as f64) < avg_load * 0.8) {
moves.push((w.id.clone(), target.id.clone(), excess));
}
}
}
moves
}
pub fn alive_workers(&self) -> usize { self.workers.values().filter(|w| w.is_alive).count() }
pub fn total_capacity(&self) -> u32 { self.workers.values().filter(|w| w.is_alive).map(|w| w.capacity - w.current_load).sum() }
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_assign() {
let mut g = Grid::new();
g.add_worker(GridWorker { id: "w1".into(), capacity: 10, current_load: 2, is_alive: true, latency_ms: 5 });
g.add_worker(GridWorker { id: "w2".into(), capacity: 10, current_load: 8, is_alive: true, latency_ms: 5 });
let a = g.assign(&GridTask { id: "t1".into(), weight: 3, data_size_bytes: 100, priority: 1 }).unwrap();
assert_eq!(a.worker_id, "w1");
}
#[test]
fn test_batch() {
let mut g = Grid::new();
g.add_worker(GridWorker { id: "w1".into(), capacity: 100, current_load: 0, is_alive: true, latency_ms: 5 });
let tasks: Vec<GridTask> = (0..5).map(|i| GridTask { id: format!("t{i}"), weight: 10, data_size_bytes: 100, priority: 1 }).collect();
let result = g.assign_batch(&tasks).unwrap();
assert_eq!(result.len(), 5);
} }
} }
+98 -58
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@@ -1,76 +1,116 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] — All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use tracing::debug; //! xcu-harmonic -- Cross-service Tempo Synchronization
use std::time::{SystemTime, UNIX_EPOCH}; //! Distributed clock sync, heartbeat coordination, event ordering
/// THE HARMONIC MATRIX (Phase 38) use std::collections::HashMap;
/// Global Quantum Clock Synchronization (Precision Time Protocol / IEEE 1588) use std::sync::{Arc, Mutex};
pub struct HarmonicClock;
impl HarmonicClock { #[derive(Debug)]
/// Mengambil stempel waktu absolut (Universal Time) hingga tingkat milidetik pub enum HarmonicError { ClockDrift(String), SyncFailed(String), NodeLost(String) }
pub fn get_absolute_now() -> u64 { impl std::fmt::Display for HarmonicError {
let start = SystemTime::now(); fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
let since_the_epoch = start.duration_since(UNIX_EPOCH).expect("Time went backwards"); match self { Self::ClockDrift(e) => write!(f, "Drift: {e}"), Self::SyncFailed(e) => write!(f, "Sync: {e}"), Self::NodeLost(e) => write!(f, "Lost: {e}") }
since_the_epoch.as_millis() as u64
} }
}
impl std::error::Error for HarmonicError {}
/// Menghitung "Waktu Ledakan" (Detonation Time) absolut untuk sebuah ruangan. /// Hybrid Logical Clock (HLC) — combination of physical + logical time
/// Waktu ledakan adalah: Waktu Saat Ini + Selisih Latensi Terburuk di Ruangan Tersebut. #[derive(Debug, Clone, Copy, PartialEq, Eq, PartialOrd, Ord)]
pub fn calculate_global_detonation_time(worst_rtt_ms: u64) -> u64 { pub struct HybridTimestamp { pub physical: u64, pub logical: u32, pub node_id: u16 }
let now = Self::get_absolute_now();
// Berikan buffer ekstra (contoh: 50ms) di atas latensi terburuk untuk margin keamanan hardware
let detonation_time = now + worst_rtt_ms + 50;
debug!("HARMONIC MATRIX: Paket dikunci. Akan diledakkan serentak secara global pada Timestamp: {}", detonation_time); impl HybridTimestamp {
detonation_time pub fn new(physical: u64, node_id: u16) -> Self { Self { physical, logical: 0, node_id } }
/// Update on local event
pub fn tick(&mut self, now: u64) {
if now > self.physical { self.physical = now; self.logical = 0; }
else { self.logical += 1; }
} }
/// Merge with received timestamp (Lamport-style)
/// SISI KLIEN / RECEIVER: Mengeksekusi paket pub fn merge(&mut self, other: &HybridTimestamp, now: u64) {
/// Mengecek apakah sudah waktunya paket ini dikeluarkan ke Speaker if now > self.physical && now > other.physical { self.physical = now; self.logical = 0; }
pub fn is_time_to_detonate(detonation_time: u64) -> bool { else if self.physical == other.physical { self.logical = self.logical.max(other.logical) + 1; }
let now = Self::get_absolute_now(); else if other.physical > self.physical { self.physical = other.physical; self.logical = other.logical + 1; }
now >= detonation_time else { self.logical += 1; }
}
pub fn to_bytes(&self) -> [u8; 14] {
let mut buf = [0u8; 14];
buf[..8].copy_from_slice(&self.physical.to_be_bytes());
buf[8..12].copy_from_slice(&self.logical.to_be_bytes());
buf[12..14].copy_from_slice(&self.node_id.to_be_bytes());
buf
} }
} }
/// Struktur Pembungkus Paket Suara dengan Timestamp #[derive(Debug, Clone)]
#[derive(Debug, Clone, PartialEq)] pub struct HeartbeatRecord { pub node_id: String, pub timestamp: HybridTimestamp, pub drift_ms: i64, pub is_alive: bool }
pub struct HarmonicPacket {
pub payload: Vec<u8>, pub struct Harmonic {
pub detonation_timestamp: u64, clock: Arc<Mutex<HybridTimestamp>>,
node_id: u16,
heartbeats: Arc<Mutex<HashMap<String, HeartbeatRecord>>>,
max_drift_ms: i64,
}
impl Harmonic {
pub fn new(node_id: u16, max_drift_ms: i64) -> Self {
Self {
clock: Arc::new(Mutex::new(HybridTimestamp::new(0, node_id))),
node_id, max_drift_ms,
heartbeats: Arc::new(Mutex::new(HashMap::new())),
}
}
pub fn now(&self, physical_now: u64) -> Result<HybridTimestamp, HarmonicError> {
let mut clock = self.clock.lock().map_err(|_| HarmonicError::SyncFailed("Lock".into()))?;
clock.tick(physical_now);
Ok(*clock)
}
pub fn receive(&self, remote: &HybridTimestamp, physical_now: u64) -> Result<HybridTimestamp, HarmonicError> {
let mut clock = self.clock.lock().map_err(|_| HarmonicError::SyncFailed("Lock".into()))?;
let drift = physical_now as i64 - remote.physical as i64;
if drift.abs() > self.max_drift_ms {
return Err(HarmonicError::ClockDrift(format!("{}ms exceeds {}ms", drift, self.max_drift_ms)));
}
clock.merge(remote, physical_now);
Ok(*clock)
}
pub fn record_heartbeat(&self, node_name: &str, remote_ts: HybridTimestamp, local_now: u64) -> Result<(), HarmonicError> {
let drift = local_now as i64 - remote_ts.physical as i64;
let record = HeartbeatRecord { node_id: node_name.into(), timestamp: remote_ts, drift_ms: drift, is_alive: drift.abs() < self.max_drift_ms };
if let Ok(mut hb) = self.heartbeats.lock() { hb.insert(node_name.into(), record); }
Ok(())
}
pub fn alive_nodes(&self) -> Vec<String> {
self.heartbeats.lock().map(|hb| hb.values().filter(|r| r.is_alive).map(|r| r.node_id.clone()).collect()).unwrap_or_default()
}
pub fn max_drift(&self) -> Result<i64, HarmonicError> {
let hb = self.heartbeats.lock().map_err(|_| HarmonicError::SyncFailed("Lock".into()))?;
Ok(hb.values().map(|r| r.drift_ms.abs()).max().unwrap_or(0))
}
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
use std::thread;
#[test] #[test]
fn test_harmonic_time_collision() { fn test_hlc_tick() {
// Simulasi Koor (Choir): VVIP A (Singapura, 10ms) dan VVIP B (Eropa, 500ms) bernyanyi bersama. let h = Harmonic::new(1, 5000);
let worst_rtt = 500; // Eropa adalah yang terlambat let t1 = h.now(1000).unwrap();
let t2 = h.now(1000).unwrap();
// Server menentukan waktu ledakan absolut (500ms + 50ms = 550ms dari sekarang) assert!(t2 > t1); // logical incremented
let detonation_time = HarmonicClock::calculate_global_detonation_time(worst_rtt); }
#[test]
// Paket suara Singapura sampai dalam 10ms fn test_hlc_merge() {
let packet_sg = HarmonicPacket { let h = Harmonic::new(1, 5000);
payload: vec![1, 2, 3], let remote = HybridTimestamp { physical: 2000, logical: 5, node_id: 2 };
detonation_timestamp: detonation_time, let t = h.receive(&remote, 1999).unwrap();
}; assert_eq!(t.physical, 2000);
assert!(t.logical > 5);
// Paket suara Eropa sampai dalam 500ms }
let packet_eu = HarmonicPacket { #[test]
payload: vec![4, 5, 6], fn test_drift_detection() {
detonation_timestamp: detonation_time, let h = Harmonic::new(1, 100);
}; let remote = HybridTimestamp { physical: 1000, logical: 0, node_id: 2 };
assert!(h.receive(&remote, 2000).is_err()); // 1000ms drift > 100ms limit
// BUKTI MUTLAK:
// Meskipun paket datang di waktu yang sangat jauh berbeda (Selisih 490ms),
// Keduanya memiliki takdir waktu ledak yang SAMA PERSIS.
assert_eq!(packet_sg.detonation_timestamp, packet_eu.detonation_timestamp);
println!("TIME COLLISION TEST BERHASIL: Ratusan paket suara telah ditakdirkan untuk meledak di milidetik yang sama secara global.");
} }
} }
+84 -2
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@@ -1,3 +1,85 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
pub mod rtmp_server; //! xcu-ingest -- Media Ingestion Server (RTMP/HLS/DASH)
pub mod server;
use std::collections::HashMap;
#[derive(Debug)]
pub enum IngestError { StreamNotFound(String), TranscodeFailed(String), BufferFull(String) }
impl std::fmt::Display for IngestError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::StreamNotFound(e) => write!(f, "Stream: {e}"), Self::TranscodeFailed(e) => write!(f, "Transcode: {e}"), Self::BufferFull(e) => write!(f, "Buffer: {e}") }
}
}
impl std::error::Error for IngestError {}
#[derive(Debug, Clone)]
pub struct StreamConfig { pub stream_id: String, pub codec: String, pub bitrate_kbps: u32, pub width: u32, pub height: u32, pub fps: u32 }
#[derive(Debug, Clone)]
pub struct MediaChunk { pub sequence: u64, pub data: Vec<u8>, pub duration_ms: u32, pub keyframe: bool, pub timestamp: u64 }
pub struct IngestPipeline {
streams: HashMap<String, StreamState>,
max_buffer_chunks: usize,
}
struct StreamState { config: StreamConfig, buffer: Vec<MediaChunk>, total_bytes: u64, chunk_count: u64 }
impl IngestPipeline {
pub fn new(max_buffer: usize) -> Self { Self { streams: HashMap::new(), max_buffer_chunks: max_buffer } }
pub fn create_stream(&mut self, config: StreamConfig) -> Result<(), IngestError> {
let id = config.stream_id.clone();
self.streams.insert(id, StreamState { config, buffer: Vec::new(), total_bytes: 0, chunk_count: 0 });
Ok(())
}
pub fn push_chunk(&mut self, stream_id: &str, chunk: MediaChunk) -> Result<u64, IngestError> {
let state = self.streams.get_mut(stream_id).ok_or_else(|| IngestError::StreamNotFound(stream_id.into()))?;
if state.buffer.len() >= self.max_buffer_chunks {
state.buffer.remove(0); // Drop oldest (sliding window)
}
state.total_bytes += chunk.data.len() as u64;
state.chunk_count += 1;
let seq = state.chunk_count;
state.buffer.push(chunk);
Ok(seq)
}
/// Generate HLS playlist from buffer
pub fn generate_hls_playlist(&self, stream_id: &str) -> Result<String, IngestError> {
let state = self.streams.get(stream_id).ok_or_else(|| IngestError::StreamNotFound(stream_id.into()))?;
let mut m3u8 = String::from("#EXTM3U\n#EXT-X-VERSION:3\n#EXT-X-TARGETDURATION:4\n");
for chunk in &state.buffer {
m3u8.push_str(&format!("#EXTINF:{:.3},\n", chunk.duration_ms as f64 / 1000.0));
m3u8.push_str(&format!("segment_{}.ts\n", chunk.sequence));
}
Ok(m3u8)
}
/// Get stream stats
pub fn stream_stats(&self, stream_id: &str) -> Result<(u64, u64, f64), IngestError> {
let state = self.streams.get(stream_id).ok_or_else(|| IngestError::StreamNotFound(stream_id.into()))?;
let bitrate = if state.chunk_count > 0 { (state.total_bytes * 8) as f64 / (state.chunk_count as f64 * 4.0) / 1000.0 } else { 0.0 };
Ok((state.chunk_count, state.total_bytes, bitrate))
}
pub fn active_streams(&self) -> usize { self.streams.len() }
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_ingest() {
let mut p = IngestPipeline::new(10);
p.create_stream(StreamConfig { stream_id: "s1".into(), codec: "h264".into(), bitrate_kbps: 3000, width: 1920, height: 1080, fps: 30 }).unwrap();
for i in 0..5 {
p.push_chunk("s1", MediaChunk { sequence: i, data: vec![0; 1000], duration_ms: 4000, keyframe: i == 0, timestamp: i * 4000 }).unwrap();
}
let playlist = p.generate_hls_playlist("s1").unwrap();
assert!(playlist.contains("#EXTM3U"));
assert!(playlist.contains("segment_"));
}
}
+162 -77
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@@ -1,96 +1,181 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-labyrinth -- Multi-hop Obfuscated Routing
use tracing::{info, warn, error}; //! Traffic path randomization so no single node knows full route
use std::time::{SystemTime, UNIX_EPOCH};
/// THE LABYRINTH MATRIX (Phase 52) use std::collections::HashMap;
/// Proactive Cyber Deception & Active Defense
pub struct LabyrinthMatrix;
impl LabyrinthMatrix { #[derive(Debug)]
/// GHOST PORTS (Infinite Tarpit) pub enum LabyrinthError {
/// Saat Nmap atau alat Scanner memindai IP kita, mereka mengharapkan jawaban cepat (Buka/Tutup). NoRoute(String),
/// Tarpit Matrix merespons: "Ya, saya buka" lalu sengaja menahan koneksi, membalas 1 byte NodeFailed(String),
/// per 100 detik. Ini akan menyiksa dan menghentikan alat pemindai musuh. EncryptionFailed(String),
pub fn deploy_tarpit(ip_penyerang: &str, port_target: u16) -> String { }
warn!("LABYRINTH: Terdeteksi mesin pemindai (Nmap) dari IP [{}]. Mengaktifkan GHOST PORT {}.", ip_penyerang, port_target); impl std::fmt::Display for LabyrinthError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
// Simulasi Penahanan (Tarpitting) match self { Self::NoRoute(e) => write!(f, "No route: {e}"),
// Musuh tidak akan bisa memutus koneksi karena lapisan TCP dikendalikan oleh kita. Self::NodeFailed(e) => write!(f, "Node: {e}"),
let status = format!("Menyandera koneksi dari IP {}. Waktu tunggu dipaksa menjadi tidak terbatas (Infinite Wait).", ip_penyerang); Self::EncryptionFailed(e) => write!(f, "Encrypt: {e}"), }
info!("LABYRINTH: Mesin peretas telah dibekukan. Pengejaran forensik balik sedang diluncurkan...");
status
} }
}
impl std::error::Error for LabyrinthError {}
/// HONEYTOKEN (Sensor Tripwire Senyap) #[derive(Debug, Clone)]
/// Membuat file/data palsu yang seolah-olah berharga (misal: 'master_password.txt'). pub struct LabyrinthNode {
/// Siapapun yang membaca ini (baik itu peretas dari luar maupun pengkhianat dari dalam) pub id: String,
/// akan memicu alarm senyap tanpa mereka sadari. pub latency_ms: u32,
pub fn generate_honeytoken(nama_file: &str) -> String { pub bandwidth_mbps: u32,
// Konten palsu yang menggoda peretas pub trust_score: f64,
let konten_umpan = "AKSES_BRANKAS: VVIP_ADMIN_8899\nJANGAN_DISEBARKAN"; pub country: String,
pub is_alive: bool,
}
info!("LABYRINTH: Ranjau data (Honeytoken) '{}' berhasil ditebar di dalam server.", nama_file); /// Onion-layered routing envelope
konten_umpan.to_string() #[derive(Debug, Clone)]
} pub struct OnionEnvelope {
pub layers: Vec<EncryptedLayer>,
pub total_hops: usize,
}
/// ANALYZER: Ketika Honeytoken tersentuh! #[derive(Debug, Clone)]
pub fn trigger_honeytoken_alarm(nama_file_tersentuh: &str, entitas_pembuka: &str) -> Result<()> { pub struct EncryptedLayer {
let timestamp = SystemTime::now().duration_since(UNIX_EPOCH).expect("[TSM.ID]").as_secs(); pub next_hop: String,
pub encrypted_payload: Vec<u8>,
pub layer_key_hash: u64,
}
error!("ALARM KIAMAT LABYRINTH DIBUNYIKAN!"); pub struct Labyrinth {
error!("Ranjau file '{}' telah DIBACA!", nama_file_tersentuh); nodes: HashMap<String, LabyrinthNode>,
error!("Identitas Pelaku / Mesin: [{}]", entitas_pembuka); min_hops: usize,
error!("Waktu Intrusi: {}", timestamp); max_hops: usize,
error!("TINDAKAN: Mengunci semua gerbang. Mengirim tim fisik ke lokasi pelaku."); avoid_countries: Vec<String>,
entropy_state: u64,
}
Err(anyhow!("HONEYTOKEN_TRIPWIRE_TRIGGERED")) impl Labyrinth {
} pub fn new(min_hops: usize, max_hops: usize, avoid: Vec<String>) -> Self {
Self {
/// SHADOW SANDBOX nodes: HashMap::new(), min_hops, max_hops,
/// Menelan payload peretas (seperti SQL Injection) ke dalam "Ruang Kaca" avoid_countries: avoid,
/// sehingga peretas mengira mereka berhasil, padahal XCU sedang menelanjangi taktik mereka. entropy_state: 0xa5a5a5a5deadbeef,
pub fn analyze_trapped_exploits(payload_serangan: &str) -> &'static str {
if payload_serangan.contains("' OR 1=1") {
info!("LABYRINTH SANDBOX: Musuh menggunakan teknik primitif (SQL Injection). Membalas dengan simulasi 'Login Sukses' palsu.");
"KREDENSIAL_PALSU_DIBERIKAN"
} else {
info!("LABYRINTH SANDBOX: Musuh menggunakan 0-Day Exploit canggih. Merekam pola serangan ke bank intelijen.");
"MEREKAM_PAYLOAD_HANTU"
} }
} }
pub fn add_node(&mut self, node: LabyrinthNode) {
self.nodes.insert(node.id.clone(), node);
}
fn next_random(&mut self) -> u64 {
self.entropy_state ^= self.entropy_state << 13;
self.entropy_state ^= self.entropy_state >> 7;
self.entropy_state ^= self.entropy_state << 17;
self.entropy_state
}
/// Select route through the labyrinth
pub fn build_route(&mut self, source: &str, destination: &str) -> Result<Vec<String>, LabyrinthError> {
let eligible: Vec<&LabyrinthNode> = self.nodes.values()
.filter(|n| n.is_alive)
.filter(|n| !self.avoid_countries.contains(&n.country))
.filter(|n| n.id != source && n.id != destination)
.collect();
if eligible.len() < self.min_hops {
return Err(LabyrinthError::NoRoute(format!("Need {} hops, only {} nodes", self.min_hops, eligible.len())));
}
let hop_count = self.min_hops + (self.next_random() as usize % (self.max_hops - self.min_hops + 1));
let hop_count = hop_count.min(eligible.len());
// Score nodes: prefer high trust, low latency, diverse countries
let mut scored: Vec<(&LabyrinthNode, f64)> = eligible.iter().map(|n| {
let score = n.trust_score * 50.0
+ (1000.0 / (n.latency_ms as f64 + 1.0))
+ n.bandwidth_mbps as f64 * 0.1
+ (self.next_random() % 100) as f64 * 0.3; // randomness
(*n, score)
}).collect();
scored.sort_by(|a, b| b.1.partial_cmp(&a.1).unwrap_or(std::cmp::Ordering::Equal));
// Pick top nodes but ensure country diversity
let mut route = vec![source.to_string()];
let mut used_countries = std::collections::HashSet::new();
for (node, _) in &scored {
if route.len() - 1 >= hop_count { break; }
if !used_countries.contains(&node.country) || route.len() > 3 {
route.push(node.id.clone());
used_countries.insert(node.country.clone());
}
}
route.push(destination.to_string());
Ok(route)
}
/// Build onion-encrypted envelope for the route
pub fn build_onion(&mut self, route: &[String], payload: &[u8]) -> Result<OnionEnvelope, LabyrinthError> {
let mut layers = Vec::new();
let mut current_payload = payload.to_vec();
// Build layers from destination back to source (onion wrapping)
for i in (1..route.len()).rev() {
let next_hop = &route[i];
let layer_key = self.next_random();
// XOR encrypt each layer
let encrypted: Vec<u8> = current_payload.iter().enumerate()
.map(|(j, &b)| b ^ ((layer_key >> ((j % 8) * 8)) & 0xFF) as u8)
.collect();
layers.push(EncryptedLayer {
next_hop: next_hop.clone(),
encrypted_payload: encrypted.clone(),
layer_key_hash: layer_key & 0xFFFFFFFF,
});
current_payload = encrypted;
}
layers.reverse();
Ok(OnionEnvelope { layers, total_hops: route.len() - 2 })
}
/// Peel one layer of the onion (at each relay node)
pub fn peel_layer(&self, layer: &EncryptedLayer, key: u64) -> Vec<u8> {
layer.encrypted_payload.iter().enumerate()
.map(|(j, &b)| b ^ ((key >> ((j % 8) * 8)) & 0xFF) as u8)
.collect()
}
pub fn node_count(&self) -> usize { self.nodes.len() }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
fn make_nodes(lab: &mut Labyrinth) {
for (id, country) in [("node-de","DE"),("node-jp","JP"),("node-br","BR"),("node-sg","SG"),("node-ch","CH")] {
lab.add_node(LabyrinthNode { id: id.into(), latency_ms: 50, bandwidth_mbps: 100, trust_score: 0.9, country: country.into(), is_alive: true });
}
}
#[test] #[test]
fn test_deception_annihilation() { fn test_route_building() {
// 1. UJI PENYIKSAAN PEMINDAI (TARPIT) let mut lab = Labyrinth::new(2, 4, vec!["CN".into()]);
let nmap_ip = "198.51.100.44"; make_nodes(&mut lab);
let hasil_tarpit = LabyrinthMatrix::deploy_tarpit(nmap_ip, 22); let route = lab.build_route("source", "dest").unwrap();
assert!(hasil_tarpit.contains("Menyandera koneksi")); assert!(route.len() >= 4);
println!("TARPIT BERHASIL: Mesin Scanner musuh berhasil ditangkap dan ditahan!"); assert_eq!(route[0], "source");
assert_eq!(route.last().unwrap(), "dest");
// 2. UJI RANJAU HONEYTOKEN }
let nama_ranjau = "master_key_vvip.pem"; #[test]
let ranjau = LabyrinthMatrix::generate_honeytoken(nama_ranjau); fn test_onion_wrap() {
assert!(ranjau.contains("VVIP_ADMIN")); let mut lab = Labyrinth::new(2, 3, vec![]);
make_nodes(&mut lab);
// Simulasi seorang "Pengkhianat Orang Dalam" yang mencoba mengkopi ranjau tersebut let route = lab.build_route("src", "dst").unwrap();
let identitas_pengkhianat = "Laptop_Staf_Internal_MAC_A1B2"; let envelope = lab.build_onion(&route, b"secret").unwrap();
let alarm = LabyrinthMatrix::trigger_honeytoken_alarm(nama_ranjau, identitas_pengkhianat); assert!(envelope.total_hops >= 2);
assert!(!envelope.layers.is_empty());
assert!(alarm.is_err());
println!("HONEYTOKEN BERHASIL: Pengkhianat telah menginjak ranjau! Identitasnya terekspos sebelum dia bisa berbuat apa-apa.");
// 3. UJI SANDBOX ISOLASI
let serangan_sql = "admin' OR 1=1 --";
let respons_sandbox = LabyrinthMatrix::analyze_trapped_exploits(serangan_sql);
assert_eq!(respons_sandbox, "KREDENSIAL_PALSU_DIBERIKAN");
println!("SANDBOX BERHASIL: Peretas tertipu! Dia mengira berhasil meretas, padahal kita yang memegang kendali penuh.");
} }
} }
+112 -2
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#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
pub mod rtp_parser; //! xcu-media -- Media Framework Core (RTP, codec negotiation, pipeline)
pub mod rtp;
use std::collections::HashMap;
#[derive(Debug)]
pub enum MediaError { UnsupportedCodec(String), PipelineError(String), PayloadTooLarge(String) }
impl std::fmt::Display for MediaError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::UnsupportedCodec(e) => write!(f, "Unsupported: {e}"), Self::PipelineError(e) => write!(f, "Pipeline: {e}"), Self::PayloadTooLarge(e) => write!(f, "Too large: {e}") }
}
}
impl std::error::Error for MediaError {}
#[derive(Debug, Clone, Copy, PartialEq)]
pub enum CodecType { H264, H265, VP8, VP9, AV1, Opus, G711 }
impl CodecType {
pub fn payload_type(&self) -> u8 {
match self { Self::H264 => 96, Self::H265 => 97, Self::VP8 => 98, Self::VP9 => 99, Self::AV1 => 100, Self::Opus => 111, Self::G711 => 0 }
}
pub fn clock_rate(&self) -> u32 {
match self { Self::Opus => 48000, Self::G711 => 8000, _ => 90000 }
}
}
#[derive(Debug, Clone)]
pub struct RtpPacket {
pub version: u8, pub payload_type: u8, pub sequence: u16,
pub timestamp: u32, pub ssrc: u32, pub payload: Vec<u8>,
pub marker: bool,
}
impl RtpPacket {
pub fn new(pt: u8, seq: u16, ts: u32, ssrc: u32, payload: Vec<u8>, marker: bool) -> Self {
Self { version: 2, payload_type: pt, sequence: seq, timestamp: ts, ssrc: ssrc, payload, marker }
}
/// Serialize to bytes (simplified RTP header)
pub fn to_bytes(&self) -> Vec<u8> {
let mut buf = Vec::with_capacity(12 + self.payload.len());
buf.push((self.version << 6) | if self.marker { 0x80 >> 1 } else { 0 });
buf.push(self.payload_type | if self.marker { 0x80 } else { 0 });
buf.extend_from_slice(&self.sequence.to_be_bytes());
buf.extend_from_slice(&self.timestamp.to_be_bytes());
buf.extend_from_slice(&self.ssrc.to_be_bytes());
buf.extend_from_slice(&self.payload);
buf
}
/// Parse from bytes
pub fn from_bytes(data: &[u8]) -> Result<Self, MediaError> {
if data.len() < 12 { return Err(MediaError::PayloadTooLarge("Packet too small".into())); }
let version = (data[0] >> 6) & 0x03;
let marker = (data[1] & 0x80) != 0;
let pt = data[1] & 0x7F;
let seq = u16::from_be_bytes([data[2], data[3]]);
let ts = u32::from_be_bytes([data[4], data[5], data[6], data[7]]);
let ssrc = u32::from_be_bytes([data[8], data[9], data[10], data[11]]);
Ok(Self { version, payload_type: pt, sequence: seq, timestamp: ts, ssrc, payload: data[12..].to_vec(), marker })
}
}
/// Codec negotiation: find common codecs between offer and answer
pub fn negotiate_codecs(offer: &[CodecType], answer: &[CodecType]) -> Vec<CodecType> {
offer.iter().filter(|c| answer.contains(c)).cloned().collect()
}
/// Jitter buffer: reorder packets by sequence number
pub struct JitterBuffer { buffer: HashMap<u16, RtpPacket>, next_seq: u16, max_size: usize }
impl JitterBuffer {
pub fn new(max_size: usize) -> Self { Self { buffer: HashMap::new(), next_seq: 0, max_size } }
pub fn push(&mut self, pkt: RtpPacket) {
if self.buffer.len() >= self.max_size { self.buffer.remove(&self.next_seq); self.next_seq = self.next_seq.wrapping_add(1); }
self.buffer.insert(pkt.sequence, pkt);
}
pub fn pop_ordered(&mut self) -> Option<RtpPacket> {
let pkt = self.buffer.remove(&self.next_seq)?;
self.next_seq = self.next_seq.wrapping_add(1);
Some(pkt)
}
pub fn len(&self) -> usize { self.buffer.len() }
pub fn is_empty(&self) -> bool { self.buffer.is_empty() }
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_rtp_roundtrip() {
let pkt = RtpPacket::new(96, 42, 1000, 0xDEAD, vec![1, 2, 3], true);
let bytes = pkt.to_bytes();
let parsed = RtpPacket::from_bytes(&bytes).unwrap();
assert_eq!(parsed.sequence, 42);
assert_eq!(parsed.payload, vec![1, 2, 3]);
}
#[test]
fn test_negotiate() {
let offer = vec![CodecType::VP9, CodecType::H264, CodecType::Opus];
let answer = vec![CodecType::H264, CodecType::Opus, CodecType::AV1];
let common = negotiate_codecs(&offer, &answer);
assert_eq!(common, vec![CodecType::H264, CodecType::Opus]);
}
#[test]
fn test_jitter_buffer() {
let mut jb = JitterBuffer::new(10);
jb.push(RtpPacket::new(96, 2, 2000, 1, vec![], false));
jb.push(RtpPacket::new(96, 0, 0, 1, vec![], false));
jb.push(RtpPacket::new(96, 1, 1000, 1, vec![], false));
let p0 = jb.pop_ordered().unwrap();
assert_eq!(p0.sequence, 0);
let p1 = jb.pop_ordered().unwrap();
assert_eq!(p1.sequence, 1);
}
}
+174 -72
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#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-mjolnir -- Parallel Compute Force Multiplier
use tracing::{info, warn, error}; //! Work distribution across CPU cores with result aggregation
/// THE MJOLNIR MATRIX (Phase 64) use std::sync::{Arc, Mutex};
/// Absolute Spyware & Pegasus Annihilator (Hardware-Level Exorcism) use std::collections::HashMap;
pub struct MjolnirMatrix;
impl MjolnirMatrix { #[derive(Debug)]
/// 1. THERMODYNAMIC BATTERY PROFILING (Deteksi Fisika Penyadapan Panas) pub enum MjolnirError {
/// Pegasus dan spyware tingkat negara menyembunyikan filenya dari OS, TaskFailed(String),
/// namun mereka harus menggunakan listrik baterai untuk merekam suara/kamera Anda 24 jam. AllWorkersBusy(String),
/// Mjolnir memantau mikrodinamika Voltase dan Ampere perangkat (Termodinamika Baterai). AggregationFailed(String),
/// Jika HP dalam keadaan mati/standby tapi ada anomali sedotan listrik, Mjolnir mendeteksi Penyadapan. }
pub fn analyze_thermodynamic_entropy(is_screen_off: bool, power_draw_milliwatts: f32) -> Result<&'static str> { impl std::fmt::Display for MjolnirError {
info!("MJOLNIR: Memindai kurva termodinamika dan fluktuasi voltase baterai VVIP..."); fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::TaskFailed(e) => write!(f, "Task: {e}"),
Self::AllWorkersBusy(e) => write!(f, "Busy: {e}"),
Self::AggregationFailed(e) => write!(f, "Aggregate: {e}"), }
}
}
impl std::error::Error for MjolnirError {}
// Jika layar mati (standby), konsumsi listrik normal sebuah HP adalah di bawah 50mW #[derive(Debug, Clone)]
let normal_standby_power = 50.0; pub struct ComputeTask {
pub task_id: String,
pub input_data: Vec<f64>,
pub operation: ComputeOp,
}
if is_screen_off && power_draw_milliwatts > normal_standby_power { #[derive(Debug, Clone)]
error!("MJOLNIR ALERT: ANOMALI TERMODINAMIKA (SPYWARE INFECTION) TERDETEKSI!"); pub enum ComputeOp {
error!("Perangkat sedang tidur, namun ada entitas gaib yang menyedot {} mW daya! Mikrofon/Kamera Anda sedang disadap secara aktif!", power_draw_milliwatts); Sum,
return Self::execute_hardware_exorcism("ACTIVE_THERMODYNAMIC_LISTENING"); Product,
Mean,
Variance,
Max,
Min,
Percentile(f64),
MapMultiply(f64),
FilterAbove(f64),
Sort,
}
#[derive(Debug, Clone)]
pub struct ComputeResult {
pub task_id: String,
pub result: Vec<f64>,
pub scalar: Option<f64>,
pub duration_us: u64,
}
pub struct Mjolnir {
results: Arc<Mutex<HashMap<String, ComputeResult>>>,
parallelism: usize,
}
impl Mjolnir {
pub fn new(parallelism: usize) -> Self {
Self {
results: Arc::new(Mutex::new(HashMap::new())),
parallelism: if parallelism == 0 { 4 } else { parallelism },
}
}
/// Execute compute operation
pub fn execute(&self, task: ComputeTask) -> Result<ComputeResult, MjolnirError> {
let start = std::time::Instant::now();
let data = &task.input_data;
if data.is_empty() {
return Err(MjolnirError::TaskFailed("Empty input".into()));
} }
info!("MJOLNIR: Kurva baterai normal. Tidak ada aktivitas parasit energi saat perangkat tidur."); let (result_vec, scalar) = match &task.operation {
Ok("THERMODYNAMIC_CLEAN") ComputeOp::Sum => {
} let s: f64 = data.iter().sum();
(vec![], Some(s))
}
ComputeOp::Product => {
let p: f64 = data.iter().fold(1.0, |acc, x| acc * x);
(vec![], Some(p))
}
ComputeOp::Mean => {
let s: f64 = data.iter().sum();
(vec![], Some(s / data.len() as f64))
}
ComputeOp::Variance => {
let mean: f64 = data.iter().sum::<f64>() / data.len() as f64;
let var: f64 = data.iter().map(|x| (x - mean).powi(2)).sum::<f64>() / data.len() as f64;
(vec![], Some(var))
}
ComputeOp::Max => {
let m = data.iter().cloned().fold(f64::NEG_INFINITY, f64::max);
(vec![], Some(m))
}
ComputeOp::Min => {
let m = data.iter().cloned().fold(f64::INFINITY, f64::min);
(vec![], Some(m))
}
ComputeOp::Percentile(pct) => {
let mut sorted = data.clone();
sorted.sort_by(|a, b| a.partial_cmp(b).unwrap_or(std::cmp::Ordering::Equal));
let idx = ((pct / 100.0) * (sorted.len() - 1) as f64) as usize;
(vec![], Some(sorted[idx.min(sorted.len() - 1)]))
}
ComputeOp::MapMultiply(factor) => {
let r: Vec<f64> = data.iter().map(|x| x * factor).collect();
(r, None)
}
ComputeOp::FilterAbove(threshold) => {
let r: Vec<f64> = data.iter().filter(|&&x| x > *threshold).cloned().collect();
let count = r.len();
(r, Some(count as f64))
}
ComputeOp::Sort => {
let mut sorted = data.clone();
sorted.sort_by(|a, b| a.partial_cmp(b).unwrap_or(std::cmp::Ordering::Equal));
(sorted, None)
}
};
/// 2. CPU CACHE SIDE-CHANNEL ANALYSIS (Deteksi Hantu Memori RAM) let duration = start.elapsed().as_micros() as u64;
/// Fileless Malware (seperti Pegasus) hidup sebagai Hantu di dalam RAM (Kernel Space). let result = ComputeResult {
/// Mjolnir tidak akan mencari file malware tersebut, melainkan menghitung waktu respons silikon CPU. task_id: task.task_id.clone(),
/// Jika waktu akses L1/L2 Cache melambat secara mikrosekon, artinya ada Hantu yang memperebutkan memori CPU Anda. result: result_vec,
pub fn detect_cpu_cache_sidechannel(l1_cache_access_time_ns: f32) -> Result<&'static str> { scalar,
info!("MJOLNIR: Mengeksekusi otopsi memori silikon tingkat Microarchitectural (L1/L2 Cache)..."); duration_us: duration,
};
// Waktu wajar akses L1 Cache dalam Nanosecond (Tanpa interupsi malware) if let Ok(mut results) = self.results.lock() {
let _expected_clean_access_time = 1.0; results.insert(task.task_id, result.clone());
// Jika akses lebih lambat dari 1.5ns tanpa sebab, ada instruksi siluman yang mencegat siklus CPU
if l1_cache_access_time_ns > 1.5 {
error!("MJOLNIR ALERT: KEBOCORAN SILIKON (ZERO-CLICK MALWARE) TERDETEKSI!");
error!("Waktu akses CPU melambat menjadi {} ns. Terdapat injeksi instruksi hantu (Side-Channel) yang menyedot memori L1 Anda!", l1_cache_access_time_ns);
return Self::execute_hardware_exorcism("MICROARCHITECTURAL_PARASITE");
} }
info!("MJOLNIR: Silikon CPU bersih. Tidak ada instruksi hantu yang mengintervensi memori Cache."); Ok(result)
Ok("CPU_CACHE_CLEAN")
} }
/// 3. HARDWARE-LEVEL EXORCISM (Eksekusi Kematian Hantu) /// Parallel map-reduce: split data, compute, aggregate
/// Setelah Pegasus/Spyware terdeteksi melalui fisika (Listrik/CPU), pub fn map_reduce(&self, data: &[f64], map_op: ComputeOp, reduce_op: ComputeOp) -> Result<ComputeResult, MjolnirError> {
/// Mjolnir memutus daya secara paksa ke segmen RAM yang terinfeksi. let chunk_size = (data.len() + self.parallelism - 1) / self.parallelism;
/// Malware tersebut menguap tanpa kompromi. let mut intermediate: Vec<f64> = Vec::new();
pub fn execute_hardware_exorcism(tipe_ancaman: &str) -> Result<&'static str> {
error!("MJOLNIR EXECUTION: Menjatuhkan Palu Kematian (Hardware-Level SIGKILL)!");
error!("MJOLNIR EXECUTION: Menginterupsi aliran daya pada sektor RAM secara paksa. Menghancurkan siklus hidup entitas siluman.");
warn!("MJOLNIR: VVIP Anda telah dibersihkan. Sisa memori musuh telah dimusnahkan.");
Err(anyhow!("SPYWARE_ANNIHILATED_BY_MJOLNIR: {}", tipe_ancaman)) for (i, chunk) in data.chunks(chunk_size).enumerate() {
let task = ComputeTask {
task_id: format!("mr-chunk-{i}"),
input_data: chunk.to_vec(),
operation: map_op.clone(),
};
let result = self.execute(task)?;
if let Some(s) = result.scalar {
intermediate.push(s);
} else {
intermediate.extend(result.result);
}
}
let reduce_task = ComputeTask {
task_id: "mr-reduce".into(),
input_data: intermediate,
operation: reduce_op,
};
self.execute(reduce_task)
} }
pub fn parallelism(&self) -> usize { self.parallelism }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
#[test] #[test]
fn test_pegasus_annihilation() { fn test_sum() {
// --- 1. UJI SKENARIO AMAN (VVIP CLEAN) --- let m = Mjolnir::new(4);
// HP tidur (Layar Off), baterai hanya menyedot 10mW (Wajar) let r = m.execute(ComputeTask { task_id: "t1".into(), input_data: vec![1.0, 2.0, 3.0, 4.0], operation: ComputeOp::Sum }).unwrap();
let hasil_aman_baterai = MjolnirMatrix::analyze_thermodynamic_entropy(true, 10.0); assert_eq!(r.scalar.unwrap(), 10.0);
assert!(hasil_aman_baterai.is_ok()); }
#[test]
// CPU L1 berjalan sangat cepat dan bersih (1.0 ns) fn test_variance() {
let hasil_aman_cpu = MjolnirMatrix::detect_cpu_cache_sidechannel(1.0); let m = Mjolnir::new(4);
assert!(hasil_aman_cpu.is_ok()); let r = m.execute(ComputeTask { task_id: "t2".into(), input_data: vec![2.0, 4.0, 4.0, 4.0, 5.0, 5.0, 7.0, 9.0], operation: ComputeOp::Variance }).unwrap();
println!("MJOLNIR BERHASIL: Tidak ada hantu di VVIP. Termodinamika dan Silikon stabil."); assert!(r.scalar.unwrap() > 3.0 && r.scalar.unwrap() < 5.0);
}
// --- 2. UJI KIAMAT PEGASUS (ZERO-CLICK INFECTION) --- #[test]
// Layar HP VVIP mati, tapi mikrofon nyala merekam diam-diam karena Pegasus (Daya disedot 120mW!) fn test_map_reduce() {
let hasil_infeksi_baterai = MjolnirMatrix::analyze_thermodynamic_entropy(true, 120.0); let m = Mjolnir::new(4);
assert!(hasil_infeksi_baterai.is_err()); let data: Vec<f64> = (1..=100).map(|x| x as f64).collect();
assert!(hasil_infeksi_baterai.unwrap_err().to_string().contains("SPYWARE_ANNIHILATED_BY_MJOLNIR")); let r = m.map_reduce(&data, ComputeOp::Sum, ComputeOp::Sum).unwrap();
println!("MJOLNIR BERHASIL MUTLAK: Anomali panas/listrik baterai ditelanjangi! Penyadapan mikrofon musuh dimusnahkan!"); assert_eq!(r.scalar.unwrap(), 5050.0);
}
// Zero-Click malware menyelinap di RAM, membuat CPU L1 Cache melambat menjadi 2.5ns #[test]
let hasil_infeksi_cpu = MjolnirMatrix::detect_cpu_cache_sidechannel(2.5); fn test_percentile() {
assert!(hasil_infeksi_cpu.is_err()); let m = Mjolnir::new(1);
assert!(hasil_infeksi_cpu.unwrap_err().to_string().contains("SPYWARE_ANNIHILATED_BY_MJOLNIR")); let data: Vec<f64> = (1..=100).map(|x| x as f64).collect();
println!("MJOLNIR BERHASIL MUTLAK: Parasit Silikon (Zero-Click Malware) terdeteksi lewat kecepatan Cache dan dieksekusi mati di level Hardware!"); let r = m.execute(ComputeTask { task_id: "p99".into(), input_data: data, operation: ComputeOp::Percentile(99.0) }).unwrap();
assert!(r.scalar.unwrap() >= 99.0);
} }
} }
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#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::Result; //! xcu-oblivion -- Cryptographic Data Destruction Engine
use tracing::{warn, error}; //! Secure erase: overwrite + verify + proof of destruction
use std::time::Instant;
/// THE OBLIVION MATRIX (Phase 41) use std::collections::HashMap;
/// Anti-Forensic Cold-Boot Annihilation Protocol use std::sync::{Arc, Mutex};
pub struct OblivionSentinel {
pub last_temp: f32, #[derive(Debug)]
pub last_checked: Instant, pub enum OblivionError {
WriteFailed(String),
VerifyFailed(String),
NotFound(String),
} }
impl OblivionSentinel { impl std::fmt::Display for OblivionError {
pub fn new(initial_temp: f32) -> Self { fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self {
Self::WriteFailed(e) => write!(f, "Write failed: {e}"),
Self::VerifyFailed(e) => write!(f, "Verify failed: {e}"),
Self::NotFound(e) => write!(f, "Not found: {e}"),
}
}
}
impl std::error::Error for OblivionError {}
/// Destruction proof — bukti matematis data sudah dihancurkan
#[derive(Debug, Clone)]
pub struct DestructionProof {
pub target_id: String,
pub rounds: u32,
pub final_hash: [u8; 32],
pub timestamp_epoch: u64,
pub pattern_sequence: Vec<u8>,
}
/// Overwrite patterns berdasarkan Gutmann method (simplified)
#[derive(Debug, Clone, Copy)]
pub enum WipePattern {
Zeros,
Ones,
Random,
Complement,
Gutmann35Pass,
DoD522022M,
}
/// Oblivion Engine — penghancur data
pub struct OblivionEngine {
destruction_log: Arc<Mutex<Vec<DestructionProof>>>,
entropy_seed: [u8; 32],
}
impl OblivionEngine {
pub fn new(entropy_seed: [u8; 32]) -> Self {
Self { Self {
last_temp: initial_temp, destruction_log: Arc::new(Mutex::new(Vec::new())),
last_checked: Instant::now(), entropy_seed,
} }
} }
/// Memeriksa anomali Thermal Shock (Nitrogen Cair) /// Generate pseudo-random overwrite data
/// Jika suhu silikon anjlok lebih dari 20 derajat dalam waktu kurang dari 2 detik, fn generate_pattern(&self, pattern: WipePattern, size: usize, round: u32) -> Vec<u8> {
/// itu adalah bukti valid invasi fisik (Cold-Boot Attack). match pattern {
pub fn monitor_thermal_shock(&mut self, current_temp: f32) -> Result<bool> { WipePattern::Zeros => vec![0x00; size],
let elapsed = self.last_checked.elapsed().as_secs_f32(); WipePattern::Ones => vec![0xFF; size],
let temp_drop = self.last_temp - current_temp; WipePattern::Complement => {
let mut data = Vec::with_capacity(size);
// Update state for i in 0..size {
self.last_temp = current_temp; data.push(if (i + round as usize) % 2 == 0 { 0xAA } else { 0x55 });
self.last_checked = Instant::now(); }
data
// Deteksi Nitrogen Cair (Suhu anjlok drastis dalam waktu singkat) }
if temp_drop >= 20.0 && elapsed <= 2.0 { WipePattern::Random => {
error!("OBLIVION MATRIX: THERMAL SHOCK TERDETEKSI! SUHU ANJLOK {:.1}°C DALAM {:.1} DETIK!", temp_drop, elapsed); let mut data = Vec::with_capacity(size);
error!("OBLIVION MATRIX: KEMUNGKINAN SERANGAN NITROGEN CAIR (COLD-BOOT ATTACK) OLEH AGEN FORENSIK."); let mut state: u64 = u64::from_le_bytes([
return Ok(true); // TRIGGER SCORCHED EARTH self.entropy_seed[0], self.entropy_seed[1],
self.entropy_seed[2], self.entropy_seed[3],
self.entropy_seed[4], self.entropy_seed[5],
self.entropy_seed[6], self.entropy_seed[7],
]);
state = state.wrapping_add(round as u64);
for _ in 0..size {
// xorshift64
state ^= state << 13;
state ^= state >> 7;
state ^= state << 17;
data.push((state & 0xFF) as u8);
}
data
}
WipePattern::DoD522022M => {
// DoD 5220.22-M: 3 passes (zeros, ones, random)
match round % 3 {
0 => vec![0x00; size],
1 => vec![0xFF; size],
_ => self.generate_pattern(WipePattern::Random, size, round),
}
}
WipePattern::Gutmann35Pass => {
// Gutmann 35-pass simplified
let gutmann_patterns: [u8; 35] = [
0x55, 0xAA, 0x92, 0x49, 0x24, 0x00, 0x11, 0x22,
0x33, 0x44, 0x55, 0x66, 0x77, 0x88, 0x99, 0xAA,
0xBB, 0xCC, 0xDD, 0xEE, 0xFF, 0x92, 0x49, 0x24,
0x6D, 0xB6, 0xDB, 0x00, 0xFF, 0x55, 0xAA, 0x33,
0xCC, 0x0F, 0xF0,
];
let p = gutmann_patterns[(round as usize) % 35];
vec![p; size]
}
} }
Ok(false) // Aman
} }
/// OBLIVION WIPE (Bumi Hangus) /// Secure wipe: overwrite buffer in-place
/// Fungsi ini menggunakan instruksi CPU paling bawah untuk mencuci bersih RAM pub fn secure_wipe(&self, buffer: &mut [u8], pattern: WipePattern) -> Result<DestructionProof, OblivionError> {
/// dan menghancurkan kriptografi kuantum agar tidak bisa disita musuh. let size = buffer.len();
pub fn execute_scorched_earth_wipe(memory_buffer: &mut [u8]) { let rounds: u32 = match pattern {
warn!("OBLIVION MATRIX: MENGINISIASI PEMUSNAHAN MEMORI RAM..."); WipePattern::Gutmann35Pass => 35,
WipePattern::DoD522022M => 3,
_ => 7,
};
// Simulasikan penghancuran memori dengan kecepatan kilat let mut final_hash = [0u8; 32];
// Pada mesin bare-metal, ini dipetakan ke penulisan blok memori fisik via DMA let mut pattern_seq = Vec::with_capacity(rounds as usize);
for byte in memory_buffer.iter_mut() {
*byte = 0x00; // Bakar habis data menjadi Nol for round in 0..rounds {
let overwrite_data = self.generate_pattern(pattern, size, round);
for (i, byte) in overwrite_data.iter().enumerate() {
buffer[i] = *byte;
}
// Hash state after each round for proof
let mut hash_state: u64 = 0xcbf29ce484222325; // FNV offset
for &b in buffer.iter() {
hash_state ^= b as u64;
hash_state = hash_state.wrapping_mul(0x100000001b3); // FNV prime
}
pattern_seq.push((hash_state & 0xFF) as u8);
} }
warn!("OBLIVION MATRIX: RAM TELAH DIHANGUSKAN. BUKTI FORENSIK MUSNAH. MEMUTUSKAN ARUS LISTRIK (HALT)."); // Final verification: ensure no original data remains
// std::process::abort(); // Di bare-metal, ini adalah instruksi `hlt` CPU let mut verify_hash: u64 = 0;
for &b in buffer.iter() {
verify_hash = verify_hash.wrapping_add(b as u64);
}
let hash_bytes = verify_hash.to_le_bytes();
final_hash[..8].copy_from_slice(&hash_bytes);
let proof = DestructionProof {
target_id: format!("buf_{}", size),
rounds,
final_hash,
timestamp_epoch: 0, // caller sets real time
pattern_sequence: pattern_seq,
};
if let Ok(mut log) = self.destruction_log.lock() {
log.push(proof.clone());
}
Ok(proof)
}
/// Verify destruction: check buffer contains no recoverable data
pub fn verify_destruction(&self, buffer: &[u8]) -> Result<bool, OblivionError> {
let mut entropy: f64 = 0.0;
let mut freq = HashMap::new();
for &b in buffer {
*freq.entry(b).or_insert(0u64) += 1;
}
let len = buffer.len() as f64;
for &count in freq.values() {
let p = count as f64 / len;
if p > 0.0 {
entropy -= p * p.log2();
}
}
// High entropy = data is destroyed (random)
// Low entropy = data might be recoverable
Ok(entropy > 6.0) // Max entropy for byte = 8.0
}
/// Get destruction audit log
pub fn get_destruction_log(&self) -> Vec<DestructionProof> {
self.destruction_log.lock()
.map(|log| log.clone())
.unwrap_or_default()
} }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
use std::thread;
use std::time::Duration;
#[test] #[test]
fn test_oblivion_cold_boot_attack_annihilation() { fn test_secure_wipe() {
// Simulasi RAM yang menyimpan kunci rahasia Vicon let engine = OblivionEngine::new([42u8; 32]);
let mut simulated_ram = vec![0x41, 0x42, 0x43, 0x44]; // Ada data penting ("ABCD") let original = b"SECRET DATA THAT MUST BE DESTROYED";
let mut buffer = original.to_vec();
let proof = engine.secure_wipe(&mut buffer, WipePattern::DoD522022M).unwrap();
assert_ne!(&buffer, &original.to_vec());
assert_eq!(proof.rounds, 3);
}
// Sensor Oblivion memantau server yang sedang normal (50 Derajat Celcius) #[test]
let mut sentinel = OblivionSentinel::new(50.0); fn test_verify_destruction() {
let engine = OblivionEngine::new([7u8; 32]);
let mut buffer = vec![0x41; 1024]; // "AAAA..."
let _ = engine.secure_wipe(&mut buffer, WipePattern::Random);
let destroyed = engine.verify_destruction(&buffer).unwrap();
assert!(destroyed);
}
// Tunggu 1 detik (Simulasi waktu berjalan) #[test]
thread::sleep(Duration::from_millis(1000)); fn test_gutmann_35_pass() {
let engine = OblivionEngine::new([13u8; 32]);
// MUSUH MENYERANG! let mut buffer = vec![0xFF; 512];
// Menyemprotkan Nitrogen Cair. Suhu tiba-tiba anjlok menjadi 10 Derajat Celcius. let proof = engine.secure_wipe(&mut buffer, WipePattern::Gutmann35Pass).unwrap();
let is_under_attack = sentinel.monitor_thermal_shock(10.0).unwrap(); assert_eq!(proof.rounds, 35);
assert_eq!(proof.pattern_sequence.len(), 35);
// PEMBUKTIAN MUTLAK
assert!(is_under_attack, "OBLIVION GAGAL! Sensor tidak mendeteksi Nitrogen Cair.");
if is_under_attack {
OblivionSentinel::execute_scorched_earth_wipe(&mut simulated_ram);
// Verifikasi bahwa seluruh isi memori RAM telah hancur total (menjadi 0x00)
assert_eq!(simulated_ram, vec![0x00, 0x00, 0x00, 0x00], "OBLIVION GAGAL! RAM tidak hancur!");
println!("THERMAL SHOCK TEST BERHASIL: Serangan fisik digagalkan. RAM berhasil dihancurkan sebelum membeku!");
}
} }
} }
+113 -56
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@@ -1,75 +1,132 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-ouroboros -- Self-updating Binary Manager with OTA & Integrity
use tracing::{info, warn, error}; use std::collections::HashMap;
/// THE OUROBOROS PROTOCOL (Phase 66) #[derive(Debug)]
/// Absolute Self-Destruct Engine (Anti-Tamper & Cryptographic Vaporization) pub enum OuroborosError { VersionConflict(String), IntegrityFailed(String), RollbackFailed(String) }
pub struct OuroborosMatrix; impl std::fmt::Display for OuroborosError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::VersionConflict(e) => write!(f, "Version: {e}"), Self::IntegrityFailed(e) => write!(f, "Integrity: {e}"), Self::RollbackFailed(e) => write!(f, "Rollback: {e}") }
}
}
impl std::error::Error for OuroborosError {}
impl OuroborosMatrix { #[derive(Debug, Clone)]
/// 1. HOSTILE ENVIRONMENT DETECTION (Sensor Perampasan Fisik) pub struct BinaryVersion { pub version: String, pub hash: [u8; 32], pub size_bytes: u64, pub timestamp: u64, pub changelog: String }
/// Ouroboros memonitor integritas sensor Sasis, Suhu Motherboard, dan interupsi I/O.
/// Agen intelijen akan mencoba menggunakan "Cold Boot Attack" (menyemprotkan nitrogen cair
/// untuk membekukan RAM agar bisa disalin). Ouroboros mendeteksi anomali ini.
pub fn detect_hostile_tampering(is_chassis_opened: bool, temp_drop_celsius: f32) -> Result<&'static str> {
info!("OUROBOROS: Memantau integritas lingkungan perangkat keras...");
// Suhu tidak mungkin turun drastis 30 derajat dalam 1 detik kecuali dibekukan nitrogen #[derive(Debug, Clone, PartialEq)]
if is_chassis_opened || temp_drop_celsius > 30.0 { pub enum UpdateState { Idle, Downloading, Verifying, Swapping, Rollback, Complete, Failed }
error!("OUROBOROS ALERT: PERAMPASAN FISIK (HOSTILE TAMPERING) TERDETEKSI!");
error!("Sasis dibongkar atau terdeteksi serangan Cold Boot. Status Darurat VVIP diaktifkan!"); pub struct Ouroboros {
return Self::vaporize_cryptographic_keys(); current: BinaryVersion,
history: Vec<BinaryVersion>,
state: UpdateState,
max_rollback: usize,
}
impl Ouroboros {
pub fn new(current: BinaryVersion, max_rollback: usize) -> Self {
Self { current, history: Vec::new(), state: UpdateState::Idle, max_rollback }
}
/// Verify binary integrity using FNV hash
pub fn verify_integrity(&self, binary_data: &[u8], expected_hash: &[u8; 32]) -> Result<bool, OuroborosError> {
let hash = Self::compute_hash(binary_data);
if hash != *expected_hash {
return Err(OuroborosError::IntegrityFailed(
format!("Hash mismatch: computed {:02x}{:02x}..., expected {:02x}{:02x}...", hash[0], hash[1], expected_hash[0], expected_hash[1])));
} }
Ok(true)
info!("OUROBOROS: Lingkungan fisik aman. Mesin kiamat tetap tertidur.");
Ok("ENVIRONMENT_SECURE")
} }
/// 2. CRYPTOGRAPHIC VAPORIZATION (Pemusnahan Kunci Master) fn compute_hash(data: &[u8]) -> [u8; 32] {
/// Musuh berhasil mencabut Harddisk VVIP? Tidak masalah. Data di Harddisk dienkripsi. let mut hash = [0u8; 32];
/// Tapi musuh akan mencari Kunci Dekripsinya di dalam RAM. let mut state: u64 = 0xcbf29ce484222325;
/// Ouroboros akan menemukan Kunci tersebut di RAM dan menimpanya dengan sampah acak. for (i, &b) in data.iter().enumerate() {
pub fn vaporize_cryptographic_keys() -> Result<&'static str> { state ^= b as u64;
error!("OUROBOROS EXECUTION: Menguapkan Kunci Kriptografi Utama (Zeroization)..."); state = state.wrapping_mul(0x100000001b3);
error!("OUROBOROS EXECUTION: Menimpa sektor RAM keamanan dengan Quantum Noise [0xDEADBEEF]."); if i % 4 == 0 { hash[i % 32] ^= (state & 0xFF) as u8; }
warn!("OUROBOROS: Harddisk kini tidak bisa didekripsi. Seluruh data VVIP telah menjadi sampah kosmik abadi."); }
for i in 0..32 { hash[i] ^= ((state >> (i % 8 * 8)) & 0xFF) as u8; }
Self::execute_silicon_death() hash
} }
/// 3. SILICON DEATH & SYSTEM BRICK (Kematian Perangkat Keras) /// Stage update: download → verify → swap
/// Untuk memastikan laptop VVIP tidak pernah bisa digunakan oleh musuh untuk Forensik lebih lanjut, pub fn stage_update(&mut self, new_version: BinaryVersion, binary_data: &[u8]) -> Result<(), OuroborosError> {
/// Ouroboros menghancurkan sektor bootloader OS (seperti EFI/MBR). self.state = UpdateState::Downloading;
/// Mengubah perangkat senilai ribuan dolar menjadi batu bata silikon mati. // Verify
pub fn execute_silicon_death() -> Result<&'static str> { self.state = UpdateState::Verifying;
error!("OUROBOROS EXECUTION: Menginisiasi Kematian Silikon Mutlak (System Brick)..."); self.verify_integrity(binary_data, &new_version.hash)?;
error!("OUROBOROS EXECUTION: Menghapus tabel partisi bootloader."); // Compare versions
error!("OUROBOROS EXECUTION: Perangkat VVIP kini telah mati. Protokol Penghancuran Diri Selesai."); if new_version.version == self.current.version {
return Err(OuroborosError::VersionConflict(format!("Already at {}", self.current.version)));
}
// Swap
self.state = UpdateState::Swapping;
self.history.push(self.current.clone());
if self.history.len() > self.max_rollback { self.history.remove(0); }
self.current = new_version;
self.state = UpdateState::Complete;
Ok(())
}
Err(anyhow!("ABSOLUTE_SELF_DESTRUCT_COMPLETED")) /// Rollback to previous version
pub fn rollback(&mut self) -> Result<BinaryVersion, OuroborosError> {
self.state = UpdateState::Rollback;
let prev = self.history.pop().ok_or_else(|| OuroborosError::RollbackFailed("No previous version".into()))?;
self.current = prev.clone();
self.state = UpdateState::Complete;
Ok(prev)
}
pub fn current_version(&self) -> &BinaryVersion { &self.current }
pub fn state(&self) -> &UpdateState { &self.state }
pub fn rollback_depth(&self) -> usize { self.history.len() }
/// Version comparison (semver-like)
pub fn is_newer(current: &str, candidate: &str) -> bool {
let parse = |v: &str| -> Vec<u32> { v.split('.').filter_map(|s| s.parse().ok()).collect() };
let c = parse(current);
let n = parse(candidate);
for i in 0..c.len().max(n.len()) {
let cv = c.get(i).copied().unwrap_or(0);
let nv = n.get(i).copied().unwrap_or(0);
if nv > cv { return true; }
if nv < cv { return false; }
}
false
} }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
fn v1() -> BinaryVersion { BinaryVersion { version: "1.0.0".into(), hash: [0u8; 32], size_bytes: 1000, timestamp: 100, changelog: "init".into() } }
#[test] #[test]
fn test_self_annihilation() { fn test_version_compare() {
// --- 1. UJI SKENARIO NORMAL --- assert!(Ouroboros::is_newer("1.0.0", "1.0.1"));
// Laptop tertutup rapat, suhu stabil (tidak ada penurunan) assert!(Ouroboros::is_newer("1.0.0", "2.0.0"));
let hasil_aman = OuroborosMatrix::detect_hostile_tampering(false, 0.0); assert!(!Ouroboros::is_newer("2.0.0", "1.0.0"));
assert!(hasil_aman.is_ok()); }
println!("OUROBOROS BERHASIL: Sensor perangkat keras stabil. Protokol Kiamat tertidur."); #[test]
fn test_integrity() {
// --- 2. UJI KIAMAT BUNUH DIRI (HOSTILE EXTRACTION) --- let o = Ouroboros::new(v1(), 3);
// Agen CIA membongkar casing laptop (is_chassis_opened = true) dan menyemprotkan cairan pembeku let data = b"test binary";
let hasil_kiamat = OuroborosMatrix::detect_hostile_tampering(true, 45.0); let hash = Ouroboros::compute_hash(data);
assert!(o.verify_integrity(data, &hash).is_ok());
// Memastikan Ouroboros terbangun, membakar kunci, dan membunuh perangkat (Zero Error Execution) let bad_hash = [0xFF; 32];
assert!(hasil_kiamat.is_err()); assert!(o.verify_integrity(data, &bad_hash).is_err());
assert!(hasil_kiamat.unwrap_err().to_string().contains("ABSOLUTE_SELF_DESTRUCT_COMPLETED")); }
println!("OUROBOROS BERHASIL MUTLAK: Perampasan fisik terdeteksi! Data dan kunci kriptografi VVIP telah diuapkan menjadi sampah kosmik. Hardware mati!"); #[test]
fn test_rollback() {
let data = b"new binary";
let hash = Ouroboros::compute_hash(data);
let mut o = Ouroboros::new(v1(), 3);
let v2 = BinaryVersion { version: "2.0.0".into(), hash, size_bytes: 500, timestamp: 200, changelog: "v2".into() };
o.stage_update(v2, data).unwrap();
assert_eq!(o.current_version().version, "2.0.0");
let prev = o.rollback().unwrap();
assert_eq!(prev.version, "1.0.0");
} }
} }
+195 -54
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@@ -1,45 +1,184 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-panopticon -- All-Seeing System Monitor
use tracing::{info, error}; //! Cross-node metrics aggregation, dashboarding, real-time health
/// THE PANOPTICON MATRIX (Phase 59) use std::collections::HashMap;
/// Absolute Zero-Ring Interceptor (Self-Interception & Omni-Surveillance) use std::sync::{Arc, Mutex};
pub struct PanopticonMatrix;
impl PanopticonMatrix { #[derive(Debug)]
/// RING-0 SYSCALL INTERCEPTION (Penyadapan Jantung OS) pub enum PanopticonError {
/// Simulasi eBPF / Kernel Hooking. Mesin ini menyadap instruksi 'send()' atau 'write()' NodeUnreachable(String),
/// ke Network Socket sebelum instruksi tersebut disahkan oleh CPU. MetricNotFound(String),
/// Tidak ada 1 bit pun yang bisa keluar tanpa melewati fungsi ini. AggregationFailed(String),
pub fn intercept_syscall(process_id: u32, process_name: &str, payload_dikirim: &[u8]) -> Result<()> { }
info!("PANOPTICON: MENCEGAT SYSCALL TRANMISI DATA DARI PID [{}] '{}'...", process_id, process_name);
// Membedah Payload yang disadap secara instan (0.01 ms) impl std::fmt::Display for PanopticonError {
let ukuran_data = payload_dikirim.len(); fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self {
Self::NodeUnreachable(e) => write!(f, "Node unreachable: {e}"),
Self::MetricNotFound(e) => write!(f, "Metric not found: {e}"),
Self::AggregationFailed(e) => write!(f, "Aggregation failed: {e}"),
}
}
}
// Mengidentifikasi Anomali (Misal: Malware mencoba mengirim file sistem rahasia) impl std::error::Error for PanopticonError {}
// Di dunia nyata, Panopticon mengecek tanda tangan memori dan entropi data.
if process_name == "svchost_palsu.exe" || process_name == "unknown_binary" { #[derive(Debug, Clone)]
error!("PANOPTICON ALERT: PROSES ILEGAL TERDETEKSI MENCOBA MENGAKSES JARINGAN!"); pub struct NodeHealth {
// Menyerahkan ke algojo pemusnah pub node_id: String,
return Self::block_ghost_exfiltration(process_id, process_name, ukuran_data); pub is_alive: bool,
pub cpu_percent: f64,
pub memory_percent: f64,
pub disk_percent: f64,
pub active_connections: u32,
pub request_per_sec: f64,
pub error_rate: f64,
pub latency_p50_ms: f64,
pub latency_p99_ms: f64,
pub last_heartbeat: u64,
}
#[derive(Debug, Clone)]
pub struct ClusterHealth {
pub total_nodes: usize,
pub alive_nodes: usize,
pub avg_cpu: f64,
pub avg_memory: f64,
pub total_rps: f64,
pub avg_latency_p50: f64,
pub avg_latency_p99: f64,
pub worst_node: Option<String>,
pub overall_status: HealthStatus,
}
#[derive(Debug, Clone)]
pub enum HealthStatus { Healthy, Degraded, Critical, Down }
#[derive(Debug, Clone)]
pub struct MetricPoint {
pub value: f64,
pub timestamp: u64,
}
pub struct Panopticon {
nodes: Arc<Mutex<HashMap<String, NodeHealth>>>,
metrics_history: Arc<Mutex<HashMap<String, Vec<MetricPoint>>>>,
max_history_per_metric: usize,
}
impl Panopticon {
pub fn new(max_history: usize) -> Self {
Self {
nodes: Arc::new(Mutex::new(HashMap::new())),
metrics_history: Arc::new(Mutex::new(HashMap::new())),
max_history_per_metric: max_history,
}
}
/// Register or update node health
pub fn report_health(&self, health: NodeHealth) -> Result<(), PanopticonError> {
let node_id = health.node_id.clone();
// Store metric history
if let Ok(mut hist) = self.metrics_history.lock() {
let key = format!("{}.cpu", node_id);
let entry = hist.entry(key).or_insert_with(Vec::new);
entry.push(MetricPoint { value: health.cpu_percent, timestamp: health.last_heartbeat });
if entry.len() > self.max_history_per_metric {
entry.remove(0);
}
let key = format!("{}.rps", node_id);
let entry = hist.entry(key).or_insert_with(Vec::new);
entry.push(MetricPoint { value: health.request_per_sec, timestamp: health.last_heartbeat });
if entry.len() > self.max_history_per_metric {
entry.remove(0);
}
} }
info!("PANOPTICON: Proses '{}' adalah entitas XCU yang sah. Izin transmisi diberikan.", process_name); if let Ok(mut nodes) = self.nodes.lock() {
nodes.insert(node_id, health);
}
Ok(()) Ok(())
} }
/// GHOST MALWARE DECAPITATION (Algojo Pemusnah Malware) /// Calculate cluster-wide health
/// Jika penyadap menemukan bahwa program yang mengirim data adalah Spyware musuh, pub fn cluster_health(&self) -> Result<ClusterHealth, PanopticonError> {
/// mesin tidak hanya memblokir paketnya, tapi membunuh proses malware tersebut let nodes = self.nodes.lock()
/// hingga ke akar memorinya (Simulasi SIGKILL). .map_err(|_| PanopticonError::AggregationFailed("Lock poisoned".into()))?;
pub fn block_ghost_exfiltration(pid: u32, nama_spyware: &str, ukuran_bocor: usize) -> Result<()> {
error!("PANOPTICON EXECUTION: Memblokir pencurian {} Bytes data VVIP!", ukuran_bocor);
error!("PANOPTICON EXECUTION: Mengirim sinyal SIGKILL (Kematian Mutlak) ke Proses PID [{}] ({}).", pid, nama_spyware);
error!("PANOPTICON EXECUTION: Rantai memori spyware dihancurkan. Akses jaringan dikunci.");
Err(anyhow!("SPYWARE_DECAPITATED_BY_PANOPTICON")) if nodes.is_empty() {
return Ok(ClusterHealth {
total_nodes: 0, alive_nodes: 0, avg_cpu: 0.0, avg_memory: 0.0,
total_rps: 0.0, avg_latency_p50: 0.0, avg_latency_p99: 0.0,
worst_node: None, overall_status: HealthStatus::Down,
});
}
let total = nodes.len();
let alive: Vec<&NodeHealth> = nodes.values().filter(|n| n.is_alive).collect();
let alive_count = alive.len();
let (sum_cpu, sum_mem, sum_rps, sum_p50, sum_p99) = alive.iter().fold(
(0.0, 0.0, 0.0, 0.0, 0.0),
|(c, m, r, p5, p9), n| {
(c + n.cpu_percent, m + n.memory_percent, r + n.request_per_sec,
p5 + n.latency_p50_ms, p9 + n.latency_p99_ms)
},
);
let alive_f = if alive_count > 0 { alive_count as f64 } else { 1.0 };
// Find worst node (highest CPU + error rate)
let worst = alive.iter()
.max_by(|a, b| {
let score_a = a.cpu_percent + a.error_rate * 100.0;
let score_b = b.cpu_percent + b.error_rate * 100.0;
score_a.partial_cmp(&score_b).unwrap_or(std::cmp::Ordering::Equal)
})
.map(|n| n.node_id.clone());
let status = if alive_count == 0 {
HealthStatus::Down
} else if alive_count < total {
HealthStatus::Critical
} else if sum_cpu / alive_f > 80.0 {
HealthStatus::Degraded
} else {
HealthStatus::Healthy
};
Ok(ClusterHealth {
total_nodes: total,
alive_nodes: alive_count,
avg_cpu: sum_cpu / alive_f,
avg_memory: sum_mem / alive_f,
total_rps: sum_rps,
avg_latency_p50: sum_p50 / alive_f,
avg_latency_p99: sum_p99 / alive_f,
worst_node: worst,
overall_status: status,
})
}
/// Percentile calculation from metric history
pub fn percentile(&self, metric_key: &str, pct: f64) -> Result<f64, PanopticonError> {
let hist = self.metrics_history.lock()
.map_err(|_| PanopticonError::AggregationFailed("Lock".into()))?;
let points = hist.get(metric_key)
.ok_or_else(|| PanopticonError::MetricNotFound(metric_key.into()))?;
if points.is_empty() {
return Ok(0.0);
}
let mut values: Vec<f64> = points.iter().map(|p| p.value).collect();
values.sort_by(|a, b| a.partial_cmp(b).unwrap_or(std::cmp::Ordering::Equal));
let idx = ((pct / 100.0) * (values.len() - 1) as f64) as usize;
Ok(values[idx.min(values.len() - 1)])
}
pub fn node_count(&self) -> usize {
self.nodes.lock().map(|n| n.len()).unwrap_or(0)
} }
} }
@@ -47,30 +186,32 @@ impl PanopticonMatrix {
mod tests { mod tests {
use super::*; use super::*;
fn make_node(id: &str, cpu: f64, alive: bool) -> NodeHealth {
NodeHealth {
node_id: id.into(), is_alive: alive, cpu_percent: cpu,
memory_percent: 50.0, disk_percent: 40.0, active_connections: 100,
request_per_sec: 500.0, error_rate: 0.01, latency_p50_ms: 5.0,
latency_p99_ms: 50.0, last_heartbeat: 1000,
}
}
#[test] #[test]
fn test_absolute_intercept_annihilation() { fn test_cluster_healthy() {
let payload_rahasia_vvip = b"DOKUMEN_NUKLIR_XCU"; let p = Panopticon::new(100);
p.report_health(make_node("alpha", 30.0, true)).unwrap();
p.report_health(make_node("beta", 40.0, true)).unwrap();
p.report_health(make_node("gamma", 35.0, true)).unwrap();
let health = p.cluster_health().unwrap();
assert_eq!(health.alive_nodes, 3);
assert!(matches!(health.overall_status, HealthStatus::Healthy));
}
// 1. UJI PROSES SAH (XCU Ultra) #[test]
// Proses komunikasi resmi XCU mengirim data. fn test_node_down_critical() {
let hasil_sah = PanopticonMatrix::intercept_syscall(101, "xcu_apex_daemon.exe", payload_rahasia_vvip); let p = Panopticon::new(100);
p.report_health(make_node("alpha", 30.0, true)).unwrap();
// BUKTI KEBERHASILAN: p.report_health(make_node("beta", 40.0, false)).unwrap();
// Panopticon menyadap data tersebut, melihat bahwa itu berasal dari XCU, dan mengizinkannya (Ok). let health = p.cluster_health().unwrap();
assert!(hasil_sah.is_ok()); assert!(matches!(health.overall_status, HealthStatus::Critical));
println!("PENYADAPAN PANOPTICON BERHASIL: Proses sah diizinkan melintas.");
// 2. UJI PEMUSNAHAN SPYWARE HANTU (Zero-Day Malware)
// Intelijen asing menyusupkan malware ke laptop VVIP bernama 'svchost_palsu.exe'.
// Malware ini mencoba mengirim payload rahasia VVIP ke server musuh.
let hasil_spyware = PanopticonMatrix::intercept_syscall(666, "svchost_palsu.exe", payload_rahasia_vvip);
// BUKTI MUTLAK PEMUSNAHAN:
// Panopticon mencegat SysCall, melihat bahwa proses tersebut tidak sah, dan SECARA INSTAN
// memblokir paket serta menjatuhkan hukuman mati (SIGKILL) ke malware tersebut. Data gagal bocor (Zero Error).
assert!(hasil_spyware.is_err());
assert_eq!(hasil_spyware.unwrap_err().to_string(), "SPYWARE_DECAPITATED_BY_PANOPTICON");
println!("PENYADAPAN PANOPTICON BERHASIL MUTLAK: Malware musuh dipenggal di tingkat Kernel sebelum bisa mencuri 1 bit data pun! VVIP Anda 100% Aman.");
} }
} }
+123 -1
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@@ -1,3 +1,125 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
//! xcu-parquet -- Columnar Storage Engine (Parquet-like)
pub mod blackbox; pub mod blackbox;
use std::collections::HashMap;
#[derive(Debug)]
pub enum ParquetError { ColumnNotFound(String), TypeMismatch(String), WriteError(String) }
impl std::fmt::Display for ParquetError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::ColumnNotFound(e) => write!(f, "Column: {e}"), Self::TypeMismatch(e) => write!(f, "Type: {e}"), Self::WriteError(e) => write!(f, "Write: {e}") }
}
}
impl std::error::Error for ParquetError {}
#[derive(Debug, Clone)]
pub enum ColumnValue { Int64(i64), Float64(f64), Str(String), Bool(bool), Null }
#[derive(Debug, Clone)]
pub struct ColumnSchema { pub name: String, pub col_type: String, pub nullable: bool }
pub struct ColumnStore {
schema: Vec<ColumnSchema>,
columns: HashMap<String, Vec<ColumnValue>>,
row_count: usize,
}
impl ColumnStore {
pub fn new(schema: Vec<ColumnSchema>) -> Self {
let mut columns = HashMap::new();
for col in &schema { columns.insert(col.name.clone(), Vec::new()); }
Self { schema, columns, row_count: 0 }
}
/// Insert a row (HashMap of column_name → value)
pub fn insert_row(&mut self, row: HashMap<String, ColumnValue>) -> Result<(), ParquetError> {
for col in &self.schema {
let val = row.get(&col.name).cloned().unwrap_or(ColumnValue::Null);
if let ColumnValue::Null = val {
if !col.nullable { return Err(ParquetError::TypeMismatch(format!("{} is not nullable", col.name))); }
}
self.columns.get_mut(&col.name)
.ok_or_else(|| ParquetError::ColumnNotFound(col.name.clone()))?
.push(val);
}
self.row_count += 1;
Ok(())
}
/// Read a column (full scan)
pub fn read_column(&self, name: &str) -> Result<&[ColumnValue], ParquetError> {
self.columns.get(name).map(|v| v.as_slice())
.ok_or_else(|| ParquetError::ColumnNotFound(name.into()))
}
/// Filter rows where column matches predicate
pub fn filter<F>(&self, column: &str, predicate: F) -> Result<Vec<usize>, ParquetError>
where F: Fn(&ColumnValue) -> bool {
let col = self.columns.get(column).ok_or_else(|| ParquetError::ColumnNotFound(column.into()))?;
Ok(col.iter().enumerate().filter(|(_, v)| predicate(v)).map(|(i, _)| i).collect())
}
/// Aggregate: sum of numeric column
pub fn sum(&self, column: &str) -> Result<f64, ParquetError> {
let col = self.columns.get(column).ok_or_else(|| ParquetError::ColumnNotFound(column.into()))?;
let mut total = 0.0;
for v in col {
match v { ColumnValue::Int64(n) => total += *n as f64, ColumnValue::Float64(n) => total += n, _ => {} }
}
Ok(total)
}
/// Aggregate: count non-null
pub fn count(&self, column: &str) -> Result<usize, ParquetError> {
let col = self.columns.get(column).ok_or_else(|| ParquetError::ColumnNotFound(column.into()))?;
Ok(col.iter().filter(|v| !matches!(v, ColumnValue::Null)).count())
}
/// Compute min/max for numeric column
pub fn min_max(&self, column: &str) -> Result<(f64, f64), ParquetError> {
let col = self.columns.get(column).ok_or_else(|| ParquetError::ColumnNotFound(column.into()))?;
let mut min = f64::INFINITY;
let mut max = f64::NEG_INFINITY;
for v in col {
let val = match v { ColumnValue::Int64(n) => *n as f64, ColumnValue::Float64(n) => *n, _ => continue };
if val < min { min = val; }
if val > max { max = val; }
}
Ok((min, max))
}
pub fn row_count(&self) -> usize { self.row_count }
pub fn column_count(&self) -> usize { self.schema.len() }
}
#[cfg(test)]
mod tests {
use super::*;
fn make_store() -> ColumnStore {
let schema = vec![
ColumnSchema { name: "id".into(), col_type: "int64".into(), nullable: false },
ColumnSchema { name: "value".into(), col_type: "float64".into(), nullable: true },
ColumnSchema { name: "name".into(), col_type: "string".into(), nullable: true },
];
let mut store = ColumnStore::new(schema);
for i in 0..10 {
let mut row = HashMap::new();
row.insert("id".into(), ColumnValue::Int64(i));
row.insert("value".into(), ColumnValue::Float64(i as f64 * 1.5));
row.insert("name".into(), ColumnValue::Str(format!("item-{i}")));
store.insert_row(row).unwrap();
}
store
}
#[test]
fn test_sum() { let s = make_store(); assert_eq!(s.sum("id").unwrap(), 45.0); }
#[test]
fn test_filter() {
let s = make_store();
let rows = s.filter("value", |v| matches!(v, ColumnValue::Float64(f) if *f > 10.0)).unwrap();
assert!(!rows.is_empty());
}
#[test]
fn test_min_max() { let s = make_store(); let (min, max) = s.min_max("id").unwrap(); assert_eq!(min, 0.0); assert_eq!(max, 9.0); }
}
+127 -2
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@@ -1,3 +1,128 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
pub mod puncher; //! xcu-relay -- NAT Traversal Relay Server (STUN/TURN)
pub mod turn;
#[derive(Debug)]
pub enum RelayError { AllocationFailed(String), PeerNotFound(String), QuotaExceeded(String) }
impl std::fmt::Display for RelayError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::AllocationFailed(e) => write!(f, "Alloc: {e}"), Self::PeerNotFound(e) => write!(f, "Peer: {e}"), Self::QuotaExceeded(e) => write!(f, "Quota: {e}") }
}
}
impl std::error::Error for RelayError {}
use std::collections::HashMap;
use std::net::{IpAddr, Ipv4Addr};
#[derive(Debug, Clone, Copy)]
pub struct SocketAddr { pub ip: IpAddr, pub port: u16 }
impl SocketAddr {
pub fn new(ip: IpAddr, port: u16) -> Self { Self { ip, port } }
}
/// STUN binding response: reflexive address (your public IP:port)
#[derive(Debug, Clone)]
pub struct StunResponse { pub mapped_addr: SocketAddr, pub transaction_id: [u8; 12] }
/// TURN allocation
#[derive(Debug, Clone)]
pub struct TurnAllocation {
pub client_addr: SocketAddr,
pub relay_addr: SocketAddr,
pub lifetime_secs: u32,
pub created_at: u64,
pub bytes_relayed: u64,
pub permissions: Vec<IpAddr>,
}
pub struct RelayServer {
allocations: HashMap<String, TurnAllocation>,
next_port: u16,
relay_ip: IpAddr,
max_allocations: usize,
max_bytes_per_alloc: u64,
}
impl RelayServer {
pub fn new(relay_ip: IpAddr, start_port: u16, max_alloc: usize) -> Self {
Self { allocations: HashMap::new(), next_port: start_port, relay_ip, max_allocations: max_alloc, max_bytes_per_alloc: 100 * 1024 * 1024 }
}
/// STUN binding request → returns reflexive address
pub fn handle_stun_binding(&self, source: SocketAddr, transaction_id: [u8; 12]) -> StunResponse {
StunResponse { mapped_addr: source, transaction_id }
}
/// TURN allocate request
pub fn allocate(&mut self, client: SocketAddr, lifetime: u32, now: u64) -> Result<TurnAllocation, RelayError> {
if self.allocations.len() >= self.max_allocations {
return Err(RelayError::AllocationFailed("Max allocations reached".into()));
}
let key = format!("{}:{}", client.ip, client.port);
let relay_port = self.next_port;
self.next_port += 1;
let alloc = TurnAllocation {
client_addr: client,
relay_addr: SocketAddr::new(self.relay_ip, relay_port),
lifetime_secs: lifetime.min(3600),
created_at: now,
bytes_relayed: 0,
permissions: Vec::new(),
};
self.allocations.insert(key, alloc.clone());
Ok(alloc)
}
/// Add permission for peer
pub fn create_permission(&mut self, client_key: &str, peer_ip: IpAddr) -> Result<(), RelayError> {
let alloc = self.allocations.get_mut(client_key).ok_or_else(|| RelayError::PeerNotFound(client_key.into()))?;
if !alloc.permissions.contains(&peer_ip) { alloc.permissions.push(peer_ip); }
Ok(())
}
/// Relay data from client to peer (if permitted)
pub fn relay_data(&mut self, client_key: &str, peer_ip: IpAddr, data_len: u64) -> Result<(), RelayError> {
let alloc = self.allocations.get_mut(client_key).ok_or_else(|| RelayError::PeerNotFound(client_key.into()))?;
if !alloc.permissions.contains(&peer_ip) {
return Err(RelayError::PeerNotFound(format!("{peer_ip} not permitted")));
}
alloc.bytes_relayed += data_len;
if alloc.bytes_relayed > self.max_bytes_per_alloc {
return Err(RelayError::QuotaExceeded(format!("{}B > {}B", alloc.bytes_relayed, self.max_bytes_per_alloc)));
}
Ok(())
}
/// Cleanup expired allocations
pub fn cleanup(&mut self, now: u64) -> usize {
let before = self.allocations.len();
self.allocations.retain(|_, a| now - a.created_at < a.lifetime_secs as u64);
before - self.allocations.len()
}
pub fn active_allocations(&self) -> usize { self.allocations.len() }
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_stun() {
let s = RelayServer::new(IpAddr::V4(Ipv4Addr::new(1,2,3,4)), 50000, 100);
let client = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(10,0,0,1)), 12345);
let resp = s.handle_stun_binding(client, [0u8; 12]);
assert_eq!(resp.mapped_addr.port, 12345);
}
#[test]
fn test_turn() {
let mut s = RelayServer::new(IpAddr::V4(Ipv4Addr::new(1,2,3,4)), 50000, 100);
let client = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(10,0,0,1)), 12345);
let alloc = s.allocate(client, 600, 1000).unwrap();
assert_eq!(alloc.relay_addr.port, 50000);
let key = "10.0.0.1:12345";
let peer = IpAddr::V4(Ipv4Addr::new(10,0,0,2));
s.create_permission(key, peer).unwrap();
s.relay_data(key, peer, 1000).unwrap();
}
}
+251 -66
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@@ -1,62 +1,224 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-sentinel -- System Watchdog with Resource Monitoring
use tracing::{info, error}; //! CPU/RAM/disk monitoring, threshold alerts, SLA enforcement
/// THE SENTINEL MATRIX (Phase 53) use std::collections::VecDeque;
/// Sistem Imun Predator (Autonomous SOAR & Threat Hunting) use std::sync::{Arc, Mutex};
pub struct SentinelMatrix; use std::time::SystemTime;
impl SentinelMatrix { #[derive(Debug)]
/// PREDATORY THREAT HUNTING pub enum SentinelError {
/// Mengawasi aktivitas lalu lintas data di level Bare-Metal. ThresholdExceeded(String),
/// Jika ada 1 IP yang mencoba menyentuh lebih dari 5 port berbeda dalam 1 detik, MonitorFailed(String),
/// itu adalah kepastian mutlak dari serangan (Port Scan / Exploit Recon). ConfigError(String),
pub fn hunt_anomalies(log_akses_jaringan: &[(&str, u16)]) -> Result<&'static str> { }
// Simulasi logika deteksi anomali (Threat Hunting)
let mut target_ip = "";
let mut port_disentuh = std::collections::HashSet::new();
for (ip, port) in log_akses_jaringan { impl std::fmt::Display for SentinelError {
if target_ip == "" { fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
target_ip = ip; match self {
Self::ThresholdExceeded(e) => write!(f, "Threshold exceeded: {e}"),
Self::MonitorFailed(e) => write!(f, "Monitor failed: {e}"),
Self::ConfigError(e) => write!(f, "Config error: {e}"),
}
}
}
impl std::error::Error for SentinelError {}
#[derive(Debug, Clone)]
pub struct ResourceSnapshot {
pub cpu_percent: f64,
pub memory_used_mb: u64,
pub memory_total_mb: u64,
pub disk_used_percent: f64,
pub open_connections: u32,
pub timestamp: u64,
}
#[derive(Debug, Clone)]
pub struct AlertThreshold {
pub cpu_critical: f64,
pub cpu_warning: f64,
pub memory_critical_percent: f64,
pub memory_warning_percent: f64,
pub disk_critical_percent: f64,
pub response_time_ms_critical: u64,
}
impl Default for AlertThreshold {
fn default() -> Self {
Self {
cpu_critical: 90.0,
cpu_warning: 70.0,
memory_critical_percent: 85.0,
memory_warning_percent: 70.0,
disk_critical_percent: 90.0,
response_time_ms_critical: 5000,
}
}
}
#[derive(Debug, Clone)]
pub enum AlertLevel { Info, Warning, Critical, Fatal }
#[derive(Debug, Clone)]
pub struct Alert {
pub level: AlertLevel,
pub resource: String,
pub message: String,
pub value: f64,
pub threshold: f64,
pub timestamp: u64,
}
pub struct Sentinel {
thresholds: AlertThreshold,
history: Arc<Mutex<VecDeque<ResourceSnapshot>>>,
alerts: Arc<Mutex<Vec<Alert>>>,
max_history: usize,
}
impl Sentinel {
pub fn new(thresholds: AlertThreshold, max_history: usize) -> Self {
Self {
thresholds,
history: Arc::new(Mutex::new(VecDeque::with_capacity(max_history))),
alerts: Arc::new(Mutex::new(Vec::new())),
max_history,
}
}
/// Record a resource snapshot and check thresholds
pub fn record(&self, snapshot: ResourceSnapshot) -> Result<Vec<Alert>, SentinelError> {
let mut new_alerts = Vec::new();
let ts = snapshot.timestamp;
// CPU check
if snapshot.cpu_percent >= self.thresholds.cpu_critical {
new_alerts.push(Alert {
level: AlertLevel::Critical,
resource: "cpu".into(),
message: format!("CPU {}% >= {}%", snapshot.cpu_percent, self.thresholds.cpu_critical),
value: snapshot.cpu_percent,
threshold: self.thresholds.cpu_critical,
timestamp: ts,
});
} else if snapshot.cpu_percent >= self.thresholds.cpu_warning {
new_alerts.push(Alert {
level: AlertLevel::Warning,
resource: "cpu".into(),
message: format!("CPU {}% >= {}%", snapshot.cpu_percent, self.thresholds.cpu_warning),
value: snapshot.cpu_percent,
threshold: self.thresholds.cpu_warning,
timestamp: ts,
});
}
// Memory check
let mem_percent = if snapshot.memory_total_mb > 0 {
(snapshot.memory_used_mb as f64 / snapshot.memory_total_mb as f64) * 100.0
} else {
0.0
};
if mem_percent >= self.thresholds.memory_critical_percent {
new_alerts.push(Alert {
level: AlertLevel::Critical,
resource: "memory".into(),
message: format!("Memory {:.1}% >= {}%", mem_percent, self.thresholds.memory_critical_percent),
value: mem_percent,
threshold: self.thresholds.memory_critical_percent,
timestamp: ts,
});
} else if mem_percent >= self.thresholds.memory_warning_percent {
new_alerts.push(Alert {
level: AlertLevel::Warning,
resource: "memory".into(),
message: format!("Memory {:.1}% >= {}%", mem_percent, self.thresholds.memory_warning_percent),
value: mem_percent,
threshold: self.thresholds.memory_warning_percent,
timestamp: ts,
});
}
// Disk check
if snapshot.disk_used_percent >= self.thresholds.disk_critical_percent {
new_alerts.push(Alert {
level: AlertLevel::Critical,
resource: "disk".into(),
message: format!("Disk {:.1}% >= {}%", snapshot.disk_used_percent, self.thresholds.disk_critical_percent),
value: snapshot.disk_used_percent,
threshold: self.thresholds.disk_critical_percent,
timestamp: ts,
});
}
// Store history
if let Ok(mut hist) = self.history.lock() {
if hist.len() >= self.max_history {
hist.pop_front();
} }
if *ip == target_ip { hist.push_back(snapshot);
port_disentuh.insert(port); }
// Store alerts
if let Ok(mut alert_log) = self.alerts.lock() {
for a in &new_alerts {
alert_log.push(a.clone());
} }
} }
// Jika 1 IP menyentuh terlalu banyak ruang tertutup, SOAR memicu Mode Karantina Ok(new_alerts)
if port_disentuh.len() > 5 { }
error!("SENTINEL: ANCAMAN KRITIS! IP [{}] mencoba menjebol {} pelabuhan secara brutal.", target_ip, port_disentuh.len());
return Err(anyhow!("INTRUSION_DETECTED")); /// Calculate moving average of CPU over last N samples
pub fn cpu_moving_average(&self, window: usize) -> Result<f64, SentinelError> {
if let Ok(hist) = self.history.lock() {
let samples: Vec<f64> = hist.iter().rev().take(window).map(|s| s.cpu_percent).collect();
if samples.is_empty() {
return Ok(0.0);
}
let sum: f64 = samples.iter().sum();
Ok(sum / samples.len() as f64)
} else {
Err(SentinelError::MonitorFailed("Lock poisoned".into()))
} }
info!("SENTINEL: Jaringan terpantau aman. Tidak ada aktivitas predator musuh.");
Ok("AMAN")
} }
/// INSTANT NETWORK QUARANTINE (Karantina Absolut) /// Detect anomaly: sudden spike compared to moving average
/// Saat bahaya dipastikan, Sentinel tidak mengirim notifikasi ke Admin. Ia mengeksekusi sendiri. pub fn detect_anomaly(&self, current_cpu: f64, window: usize) -> Result<bool, SentinelError> {
/// Ini adalah simulasi dari "Null Routing" atau mencabut kabel jaringan secara digital (Air-Gapping). let avg = self.cpu_moving_average(window)?;
pub fn execute_instant_quarantine(ip_penyerang: &str) -> String { if avg > 0.0 {
error!("SENTINEL EKSEKUSI: Memicu Protokol Isolasi VVIP!"); let deviation = (current_cpu - avg).abs() / avg;
error!("SENTINEL EKSEKUSI: Memutuskan rute statis ke IP [{}]...", ip_penyerang); Ok(deviation > 0.5) // 50% deviation = anomaly
error!("SENTINEL EKSEKUSI: Mengunci pintu masuk (Drop All Inbound)."); } else {
Ok(false)
// Hasil mutlak: Serangan terputus di tengah jalan. }
format!("Karantina Berhasil. Perangkat VVIP kini terisolasi secara digital. Koneksi musuh ke [{}] dihancurkan.", ip_penyerang)
} }
/// FORENSIC COUNTER-INTELLIGENCE /// SLA check: uptime percentage
/// Alih-alih meretas balik, kita mengunci sidik jari serangan musuh untuk dijadikan senjata hukum. pub fn calculate_uptime(&self, total_checks: u64, failed_checks: u64) -> Result<f64, SentinelError> {
pub fn generate_forensic_dossier(ip_penyerang: &str, jenis_serangan: &str) -> String { if total_checks == 0 {
info!("SENTINEL FORENSIC: Membungkus intelijen serangan..."); return Err(SentinelError::ConfigError("No checks recorded".into()));
let laporan = format!( }
"--- DOKUMEN FORENSIK VVIP ---\nTARGET PENYERANG: {}\nJENIS SERANGAN: {}\nSTATUS: PENYERANG DIISOLASI DAN DIBLOKIR SECARA OTONOM.\nBUKTI TERENKRIPSI SHA-256.", let uptime = ((total_checks - failed_checks) as f64 / total_checks as f64) * 100.0;
ip_penyerang, jenis_serangan Ok(uptime)
); }
laporan
/// Get current epoch timestamp
pub fn now_epoch() -> u64 {
SystemTime::now()
.duration_since(SystemTime::UNIX_EPOCH)
.map(|d| d.as_secs())
.unwrap_or(0)
}
pub fn get_alerts(&self) -> Vec<Alert> {
self.alerts.lock().map(|a| a.clone()).unwrap_or_default()
}
pub fn get_history(&self) -> Vec<ResourceSnapshot> {
self.history.lock().map(|h| h.iter().cloned().collect()).unwrap_or_default()
} }
} }
@@ -65,28 +227,51 @@ mod tests {
use super::*; use super::*;
#[test] #[test]
fn test_predatory_defense_annihilation() { fn test_cpu_critical_alert() {
// 1. UJI THREAT HUNTING let sentinel = Sentinel::new(AlertThreshold::default(), 100);
// Simulasi serangan agresif dari sebuah botnet peretas let snap = ResourceSnapshot {
let ip_musuh = "203.0.113.88"; cpu_percent: 95.0, memory_used_mb: 4000, memory_total_mb: 8000,
let log_serangan = vec![ disk_used_percent: 50.0, open_connections: 100, timestamp: 1000,
(ip_musuh, 22), (ip_musuh, 80), (ip_musuh, 443), };
(ip_musuh, 3306), (ip_musuh, 5432), (ip_musuh, 8080) let alerts = sentinel.record(snap).unwrap();
]; assert!(!alerts.is_empty());
assert!(matches!(alerts[0].level, AlertLevel::Critical));
}
let deteksi = SentinelMatrix::hunt_anomalies(&log_serangan); #[test]
assert!(deteksi.is_err()); fn test_moving_average() {
println!("THREAT HUNTING BERHASIL: Sentinel mengendus pergerakan musuh sebelum mereka masuk."); let sentinel = Sentinel::new(AlertThreshold::default(), 100);
for i in 0..10 {
let snap = ResourceSnapshot {
cpu_percent: 30.0 + i as f64, memory_used_mb: 2000,
memory_total_mb: 8000, disk_used_percent: 40.0,
open_connections: 50, timestamp: i as u64,
};
let _ = sentinel.record(snap);
}
let avg = sentinel.cpu_moving_average(5).unwrap();
assert!(avg > 30.0 && avg < 40.0);
}
// 2. UJI KARANTINA INSTAN (Automated Response) #[test]
// Karena deteksi gagal (Err), Sentinel Otonom langsung membekukan jaringan. fn test_anomaly_detection() {
let eksekusi = SentinelMatrix::execute_instant_quarantine(ip_musuh); let sentinel = Sentinel::new(AlertThreshold::default(), 100);
assert!(eksekusi.contains("dihancurkan")); for i in 0..20 {
println!("KARANTINA INSTAN BERHASIL: Mesin memutus kabel digital VVIP dalam 0 ms. Musuh lumpuh."); let snap = ResourceSnapshot {
cpu_percent: 30.0, memory_used_mb: 2000,
memory_total_mb: 8000, disk_used_percent: 40.0,
open_connections: 50, timestamp: i,
};
let _ = sentinel.record(snap);
}
let is_anomaly = sentinel.detect_anomaly(80.0, 10).unwrap();
assert!(is_anomaly);
}
// 3. UJI PENGUMPULAN INTELIJEN MUSUH #[test]
let intelijen = SentinelMatrix::generate_forensic_dossier(ip_musuh, "Brute-Force Port Scan"); fn test_sla_uptime() {
assert!(intelijen.contains("DOKUMEN FORENSIK VVIP")); let sentinel = Sentinel::new(AlertThreshold::default(), 100);
println!("COUNTER-INTELLIGENCE BERHASIL: Sidik jari musuh diamankan. Kita memiliki senjata telak untuk serangan balasan diplomatis/hukum."); let uptime = sentinel.calculate_uptime(1000, 1).unwrap();
assert!(uptime > 99.8);
} }
} }
+131 -69
View File
@@ -1,90 +1,152 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-tartarus -- Maximum Isolation Sandbox
use tracing::{info, warn, error}; //! Process quarantine with resource limits and syscall filtering
use std::time::{SystemTime, UNIX_EPOCH};
/// THE TARTARUS MATRIX (Phase 58) use std::collections::HashSet;
/// Absolute Chaos Pentest Engine (Self-Annihilation Test)
pub struct TartarusPentest;
impl TartarusPentest { #[derive(Debug)]
/// QUANTUM FUZZING INJECTION (Pengeboman Sampah Matematis) pub enum TartarusError {
/// Membangkitkan ribuan byte data anomali yang secara hukum komputasi mustahil QuarantineFailed(String),
/// ditangani oleh sistem biasa. Tujuannya adalah mencoba merusak memori buffer protokol kita sendiri. ResourceExceeded(String),
pub fn execute_quantum_fuzzing() -> Vec<u8> { DeniedSyscall(String),
info!("TARTARUS PENTEST: Membangkitkan bom Fuzzing matematis..."); }
impl std::fmt::Display for TartarusError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::QuarantineFailed(e) => write!(f, "Quarantine: {e}"),
Self::ResourceExceeded(e) => write!(f, "Resource: {e}"),
Self::DeniedSyscall(e) => write!(f, "Denied: {e}"), }
}
}
impl std::error::Error for TartarusError {}
let mut poisoned_payload = Vec::new(); #[derive(Debug, Clone)]
// Memasukkan anomali (Null bytes, MAX u8, dan struktur rusak) pub struct ResourceLimits {
poisoned_payload.extend_from_slice(&[0x00, 0xFF, 0x00, 0xFF]); pub max_memory_mb: u64,
pub max_cpu_percent: f64,
pub max_open_files: u32,
pub max_network_bytes: u64,
pub max_execution_secs: u64,
}
impl Default for ResourceLimits {
fn default() -> Self {
Self { max_memory_mb: 256, max_cpu_percent: 25.0, max_open_files: 64,
max_network_bytes: 10 * 1024 * 1024, max_execution_secs: 300 }
}
}
// Membombardir dengan memori sampah dalam jumlah ganjil untuk merusak keselarasan (Alignment) #[derive(Debug, Clone)]
for i in 0..1023 { pub struct ResourceUsage {
let garbage_byte = (i % 255) as u8; pub memory_mb: u64,
poisoned_payload.push(garbage_byte); pub cpu_percent: f64,
pub open_files: u32,
pub network_bytes: u64,
pub elapsed_secs: u64,
}
#[derive(Debug, Clone, PartialEq)]
pub enum IsolationLevel { Minimal, Standard, Maximum, Solitary }
#[derive(Debug)]
pub struct TartarusCell {
pub cell_id: String,
pub isolation: IsolationLevel,
pub limits: ResourceLimits,
allowed_syscalls: HashSet<String>,
denied_syscalls: HashSet<String>,
violation_count: u32,
}
impl TartarusCell {
pub fn new(cell_id: String, isolation: IsolationLevel) -> Self {
let mut allowed = HashSet::new();
let mut denied = HashSet::new();
match isolation {
IsolationLevel::Minimal => {
allowed.insert("read".into()); allowed.insert("write".into());
allowed.insert("open".into()); allowed.insert("close".into());
allowed.insert("mmap".into()); allowed.insert("brk".into());
}
IsolationLevel::Standard => {
allowed.insert("read".into()); allowed.insert("write".into());
allowed.insert("open".into()); allowed.insert("close".into());
denied.insert("exec".into()); denied.insert("fork".into());
denied.insert("socket".into());
}
IsolationLevel::Maximum | IsolationLevel::Solitary => {
allowed.insert("read".into()); allowed.insert("write".into());
denied.insert("exec".into()); denied.insert("fork".into());
denied.insert("socket".into()); denied.insert("connect".into());
denied.insert("bind".into()); denied.insert("listen".into());
denied.insert("open".into()); denied.insert("mmap".into());
}
} }
let limits = match isolation {
info!("TARTARUS PENTEST: Fuzzing Payload berukuran {} Bytes siap ditembakkan ke jantung VVIP.", poisoned_payload.len()); IsolationLevel::Minimal => ResourceLimits { max_memory_mb: 1024, max_cpu_percent: 50.0, ..Default::default() },
poisoned_payload IsolationLevel::Standard => ResourceLimits::default(),
IsolationLevel::Maximum => ResourceLimits { max_memory_mb: 128, max_cpu_percent: 10.0, max_open_files: 16, max_network_bytes: 0, max_execution_secs: 60 },
IsolationLevel::Solitary => ResourceLimits { max_memory_mb: 64, max_cpu_percent: 5.0, max_open_files: 4, max_network_bytes: 0, max_execution_secs: 30 },
};
Self { cell_id, isolation, limits, allowed_syscalls: allowed, denied_syscalls: denied, violation_count: 0 }
} }
/// TEMPORAL REPLAY ASSAULT (Serangan Stempel Waktu) pub fn check_syscall(&mut self, syscall: &str) -> Result<bool, TartarusError> {
/// Mensimulasikan musuh yang merekam komunikasi lama dan mengirimkannya kembali (Spoofing) if self.denied_syscalls.contains(syscall) {
/// untuk menembus pertukaran kunci kriptografi yang menggunakan batas waktu kedaluwarsa. self.violation_count += 1;
pub fn execute_temporal_assault(waktu_sekarang_asli: u64) -> u64 { return Err(TartarusError::DeniedSyscall(format!("{syscall} denied in {:?} (violation #{})", self.isolation, self.violation_count)));
warn!("TARTARUS PENTEST: Mengubah hukum waktu di dalam paket. Mundur 24 jam ke belakang..."); }
// Mensimulasikan paket yang dikirim 1 hari yang lalu (86400 detik) Ok(self.allowed_syscalls.contains(syscall))
let waktu_palsu = waktu_sekarang_asli - 86400;
waktu_palsu
} }
/// OMEGA PROTOCOL STRESS TEST pub fn check_resources(&self, usage: &ResourceUsage) -> Result<(), TartarusError> {
/// Simulasikan protokol target (Omega/Apex) yang harus menahan serangan di atas. if usage.memory_mb > self.limits.max_memory_mb {
/// Ini membuktikan apakah arsitektur XCU yang kita buat hancur atau kebal. return Err(TartarusError::ResourceExceeded(format!("Memory {}MB > {}MB", usage.memory_mb, self.limits.max_memory_mb)));
pub fn audit_absolute_resilience(payload_serangan: &[u8], stempel_waktu_serangan: u64) -> Result<&'static str> {
let waktu_sekarang = SystemTime::now().duration_since(UNIX_EPOCH).expect("[TSM.ID]").as_secs();
// Uji 1: Temporal Resilience
if waktu_sekarang > stempel_waktu_serangan + 300 { // Toleransi 5 menit
error!("XCU DEFENSE: PAKET USANG TERDETEKSI (Temporal Replay Attack). Waktu kadaluwarsa terlampaui. PAKET DIHANCURKAN.");
} else {
return Err(anyhow!("TARTARUS MENANG: Sistem tertipu oleh waktu palsu!"));
} }
if usage.cpu_percent > self.limits.max_cpu_percent {
// Uji 2: Fuzzing Resilience return Err(TartarusError::ResourceExceeded(format!("CPU {}% > {}%", usage.cpu_percent, self.limits.max_cpu_percent)));
// Jika sistem biasa menerima array aneh ini, ia akan Out of Bounds. XCU akan dengan aman menolaknya.
if payload_serangan.len() == 1027 && payload_serangan[0] == 0x00 && payload_serangan[1] == 0xFF {
error!("XCU DEFENSE: ANOMALI PAYLOAD TERDETEKSI (Fuzzing Attack). Struktur fraktal tidak sah. PAKET DIHANCURKAN.");
} else {
return Err(anyhow!("TARTARUS MENANG: Fuzzing lolos dan merusak memori sistem!"));
} }
if usage.open_files > self.limits.max_open_files {
info!("AUDIT TARTARUS: SISTEM XCU BENAR-BENAR MUTLAK. Semua serangan berhasil diblokir secara Zero Error."); return Err(TartarusError::ResourceExceeded(format!("Files {} > {}", usage.open_files, self.limits.max_open_files)));
Ok("ABSOLUTE_RESILIENCE_CONFIRMED") }
if usage.network_bytes > self.limits.max_network_bytes {
return Err(TartarusError::ResourceExceeded(format!("Network {}B > {}B", usage.network_bytes, self.limits.max_network_bytes)));
}
if usage.elapsed_secs > self.limits.max_execution_secs {
return Err(TartarusError::ResourceExceeded(format!("Time {}s > {}s", usage.elapsed_secs, self.limits.max_execution_secs)));
}
Ok(())
} }
pub fn should_terminate(&self) -> bool {
self.violation_count >= 3
}
pub fn violations(&self) -> u32 { self.violation_count }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
#[test] #[test]
fn test_annihilation_pentest() { fn test_solitary_blocks_everything() {
let waktu_asli = SystemTime::now().duration_since(UNIX_EPOCH).unwrap().as_secs(); let mut cell = TartarusCell::new("prison-1".into(), IsolationLevel::Solitary);
assert!(cell.check_syscall("exec").is_err());
// 1. TARTARUS MELEPASKAN SERANGAN FUZZING assert!(cell.check_syscall("fork").is_err());
let bom_fuzzing = TartarusPentest::execute_quantum_fuzzing(); assert!(cell.check_syscall("socket").is_err());
assert!(cell.check_syscall("read").is_ok());
// 2. TARTARUS MELEPASKAN SERANGAN WAKTU PALSU }
let waktu_serangan = TartarusPentest::execute_temporal_assault(waktu_asli); #[test]
fn test_resource_exceeded() {
// 3. TARTARUS MENGHANTAM XCU let cell = TartarusCell::new("cell-1".into(), IsolationLevel::Maximum);
let hasil_audit = TartarusPentest::audit_absolute_resilience(&bom_fuzzing, waktu_serangan); let usage = ResourceUsage { memory_mb: 200, cpu_percent: 5.0, open_files: 4, network_bytes: 0, elapsed_secs: 10 };
assert!(cell.check_resources(&usage).is_err());
// BUKTI MUTLAK (Zero Error): }
// XCU tidak hancur (Tidak ada Error/Err dari sisi Audit). Serangan dipantulkan 100%. #[test]
assert!(hasil_audit.is_ok()); fn test_auto_terminate() {
println!("PENTEST TARTARUS BERHASIL DITAHAN: XCU Ultra terbukti kebal dari Fuzzing dan Temporal Replay Attack! VVIP Anda Mutlak Aman."); let mut cell = TartarusCell::new("bad-actor".into(), IsolationLevel::Standard);
let _ = cell.check_syscall("exec");
let _ = cell.check_syscall("fork");
let _ = cell.check_syscall("socket");
assert!(cell.should_terminate());
} }
} }
+137 -80
View File
@@ -1,98 +1,155 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-tesseract -- Multi-dimensional indexing engine
use dashmap::DashMap; //! KD-Tree spatial search for multi-parameter queries
use tracing::{warn, error};
use std::sync::Arc;
/// THE TESSERACT MATRIX (Phase 45) use std::collections::HashMap;
/// Kapsul Jiwa (Holographic State) dari setiap koneksi Vicon.
/// Jika Server utama meledak, Kapsul ini sudah berada di RAM Server Cadangan. #[derive(Debug)]
#[derive(Debug, Clone, PartialEq)] pub enum TesseractError {
pub struct HolographicState { DimensionMismatch(String),
pub connection_id: u64, EmptyTree(String),
pub encryption_key: [u8; 32], // Kunci AES-256 E2EE (Fase 14) NotFound(String),
pub current_sequence: u64, // Posisi frame terakhir }
impl std::fmt::Display for TesseractError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::DimensionMismatch(e) => write!(f, "Dim: {e}"),
Self::EmptyTree(e) => write!(f, "Empty: {e}"),
Self::NotFound(e) => write!(f, "Not found: {e}"), }
}
}
impl std::error::Error for TesseractError {}
#[derive(Debug, Clone)]
pub struct TesseractPoint {
pub id: String,
pub coords: Vec<f64>,
pub metadata: HashMap<String, String>,
} }
pub struct TesseractBalancer { struct KdNode {
/// Peta Memori Global (RDMA Simulation) point: TesseractPoint,
/// Berisi jutaan koneksi VVIP yang dikloning ke Node ini setiap 10ms. left: Option<Box<KdNode>>,
pub mirrored_states: Arc<DashMap<u64, HolographicState>>, right: Option<Box<KdNode>>,
split_dim: usize,
} }
impl TesseractBalancer { pub struct Tesseract {
pub fn new() -> Self { root: Option<Box<KdNode>>,
Self { dimensions: usize,
mirrored_states: Arc::new(DashMap::new()), size: usize,
}
impl Tesseract {
pub fn new(dimensions: usize) -> Self {
Self { root: None, dimensions, size: 0 }
}
pub fn build(mut points: Vec<TesseractPoint>, dimensions: usize) -> Result<Self, TesseractError> {
if points.is_empty() {
return Ok(Self { root: None, dimensions, size: 0 });
} }
} for p in &points {
if p.coords.len() != dimensions {
/// SERVER CADANGAN (Backup Node): Menerima fotokopi RAM dari Server Utama return Err(TesseractError::DimensionMismatch(
/// Dieksekusi secara asinkron tanpa membebani CPU Utama. format!("Expected {dimensions}, got {}", p.coords.len())));
pub fn mirror_state_from_primary(&self, state: HolographicState) {
// Menyalin kunci enkripsi dan posisi frame ke dalam RAM Server Cadangan.
self.mirrored_states.insert(state.connection_id, state.clone());
}
/// SERVER CADANGAN (Backup Node): Eksekusi Ambil Alih (Takeover)
/// Saat klien mengirim paket ke IP Cadangan (karena Server Utama hancur),
/// mesin ini langsung melanjutkan streaming seolah tak terjadi apa-apa.
pub fn seamless_takeover(&self, connection_id: u64, incoming_sequence: u64) -> Result<bool> {
warn!("TESSERACT: Menerima paket dari IP klien dengan CID [{}].", connection_id);
// Apakah Kapsul Jiwa sudah ada di RAM kita?
if let Some(mut state) = self.mirrored_states.get_mut(&connection_id) {
// Validasi apakah sequence masuk akal (lanjutan dari frame sebelumnya)
if incoming_sequence > state.current_sequence {
warn!("TESSERACT TAKEOVER SUKSES! Mengambil alih streaming VVIP secara instan.");
warn!("Tidak ada proses Handshake ulang. Melanjutkan dekripsi video dengan Kunci Holografis.");
// Update state internal
state.current_sequence = incoming_sequence;
return Ok(true);
} else {
error!("TESSERACT: Replay Attack terdeteksi selama masa transisi.");
return Err(anyhow!("Replay Attack or Out of Sync."));
} }
} }
let size = points.len();
error!("TESSERACT GAGAL: Holographic State tidak ditemukan. Server Utama mati sebelum sempat melakukan fotokopi."); let root = Self::build_tree(&mut points, 0, dimensions);
Err(anyhow!("Connection State Not Found in Backup Node.")) Ok(Self { root, dimensions, size })
} }
fn build_tree(points: &mut [TesseractPoint], depth: usize, dims: usize) -> Option<Box<KdNode>> {
if points.is_empty() { return None; }
let axis = depth % dims;
points.sort_by(|a, b| a.coords[axis].partial_cmp(&b.coords[axis]).unwrap_or(std::cmp::Ordering::Equal));
let mid = points.len() / 2;
let (left_slice, rest) = points.split_at_mut(mid);
let (median, right_slice) = rest.split_first_mut().unwrap();
Some(Box::new(KdNode {
point: median.clone(),
left: Self::build_tree(left_slice, depth + 1, dims),
right: Self::build_tree(right_slice, depth + 1, dims),
split_dim: axis,
}))
}
/// Nearest neighbor search
pub fn nearest(&self, query: &[f64]) -> Result<(TesseractPoint, f64), TesseractError> {
if query.len() != self.dimensions {
return Err(TesseractError::DimensionMismatch(format!("Query dim {} != {}", query.len(), self.dimensions)));
}
let root = self.root.as_ref().ok_or_else(|| TesseractError::EmptyTree("No points".into()))?;
let mut best = root.point.clone();
let mut best_dist = Self::distance(&root.point.coords, query);
Self::search_nearest(root, query, &mut best, &mut best_dist);
Ok((best, best_dist))
}
fn search_nearest(node: &KdNode, query: &[f64], best: &mut TesseractPoint, best_dist: &mut f64) {
let dist = Self::distance(&node.point.coords, query);
if dist < *best_dist {
*best_dist = dist;
*best = node.point.clone();
}
let axis = node.split_dim;
let diff = query[axis] - node.point.coords[axis];
let (first, second) = if diff < 0.0 { (&node.left, &node.right) } else { (&node.right, &node.left) };
if let Some(child) = first { Self::search_nearest(child, query, best, best_dist); }
if diff.abs() < *best_dist {
if let Some(child) = second { Self::search_nearest(child, query, best, best_dist); }
}
}
/// Range search: find all points within radius
pub fn range_search(&self, center: &[f64], radius: f64) -> Result<Vec<(TesseractPoint, f64)>, TesseractError> {
if center.len() != self.dimensions {
return Err(TesseractError::DimensionMismatch("".into()));
}
let mut results = Vec::new();
if let Some(root) = &self.root {
Self::search_range(root, center, radius, &mut results);
}
results.sort_by(|a, b| a.1.partial_cmp(&b.1).unwrap_or(std::cmp::Ordering::Equal));
Ok(results)
}
fn search_range(node: &KdNode, center: &[f64], radius: f64, results: &mut Vec<(TesseractPoint, f64)>) {
let dist = Self::distance(&node.point.coords, center);
if dist <= radius { results.push((node.point.clone(), dist)); }
let axis = node.split_dim;
let diff = center[axis] - node.point.coords[axis];
if let Some(left) = &node.left { if diff - radius <= 0.0 { Self::search_range(left, center, radius, results); } }
if let Some(right) = &node.right { if diff + radius >= 0.0 { Self::search_range(right, center, radius, results); } }
}
fn distance(a: &[f64], b: &[f64]) -> f64 {
a.iter().zip(b.iter()).map(|(x, y)| (x - y) * (x - y)).sum::<f64>().sqrt()
}
pub fn size(&self) -> usize { self.size }
} }
#[cfg(test)] #[cfg(test)]
mod tests { mod tests {
use super::*; use super::*;
fn pt(id: &str, coords: Vec<f64>) -> TesseractPoint {
TesseractPoint { id: id.into(), coords, metadata: HashMap::new() }
}
#[test] #[test]
fn test_zero_downtime_annihilation() { fn test_nearest() {
let tesseract_backup_node = TesseractBalancer::new(); let points = vec![pt("a", vec![1.0, 2.0]), pt("b", vec![5.0, 6.0]), pt("c", vec![3.0, 3.0])];
let t = Tesseract::build(points, 2).unwrap();
let cid_vvip = 999111; let (nearest, dist) = t.nearest(&[2.5, 2.5]).unwrap();
let rahasia_aes = [7u8; 32]; assert_eq!(nearest.id, "c");
assert!(dist < 1.0);
// 1. KONDISI NORMAL: Server Utama (Singapura) mentransfer State ke Server Cadangan (Tokyo) }
// Di background, fotokopi memori terjadi (RDMA). #[test]
let jiwa_vvip = HolographicState { fn test_range() {
connection_id: cid_vvip, let points = vec![pt("a", vec![0.0, 0.0]), pt("b", vec![1.0, 1.0]), pt("c", vec![10.0, 10.0])];
encryption_key: rahasia_aes, let t = Tesseract::build(points, 2).unwrap();
current_sequence: 1500, // Klien sedang di frame ke 1500 let results = t.range_search(&[0.0, 0.0], 2.0).unwrap();
}; assert_eq!(results.len(), 2);
tesseract_backup_node.mirror_state_from_primary(jiwa_vvip);
// 2. KONDISI KIAMAT: Server Utama (Singapura) Meledak! Mati Listrik Total.
// Klien tidak tahu. Browser secara otomatis pindah ke IP Server Tokyo (BGP/QUIC Migration).
// Browser langsung mengirim frame ke 1501 tanpa minta izin.
let frame_baru_masuk = 1501;
// 3. PEMBUKTIAN MUTLAK (Zero Downtime)
// Server Tokyo TIDAK MENOLAK paket tersebut. Ia langsung memprosesnya!
let hasil_takeover = tesseract_backup_node.seamless_takeover(cid_vvip, frame_baru_masuk);
assert!(hasil_takeover.is_ok(), "TESSERACT GAGAL! Klien harus reconnect.");
println!("ZERO-DOWNTIME TAKEOVER BERHASIL: Server Utama telah musnah, namun Streaming Video berlanjut di Server Cadangan dengan jeda 0 Milidetik!");
} }
} }
+101 -52
View File
@@ -1,61 +1,110 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::Result; //! xcu-thermo -- Thermal Monitoring & Throttle Manager
use tracing::{warn, debug}; use std::collections::VecDeque;
use std::fs;
/// Modul pembaca sensor fisik suhu prosesor di Linux (/sys/class/thermal/) #[derive(Debug)]
pub struct ThermalSensor; pub enum ThermoError { Overheat(String), SensorFailed(String) }
impl std::fmt::Display for ThermoError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self { Self::Overheat(e) => write!(f, "Overheat: {e}"), Self::SensorFailed(e) => write!(f, "Sensor: {e}") }
}
}
impl std::error::Error for ThermoError {}
impl ThermalSensor { #[derive(Debug, Clone, Copy, PartialEq)]
/// Membaca suhu fisik dari Core tertentu secara real-time. pub enum ThermalZone { Cpu, Gpu, Battery, Skin, Ambient }
/// Mengembalikan suhu dalam satuan Celcius.
pub fn read_core_temp(core_id: usize) -> Result<f32> {
// Secara empiris, di Linux, setiap core (atau package) dilaporkan di thermal_zone
let path = format!("/sys/class/thermal/thermal_zone{}/temp", core_id);
match fs::read_to_string(&path) { #[derive(Debug, Clone)]
Ok(content) => { pub struct ThermalReading { pub zone: ThermalZone, pub temp_celsius: f64, pub timestamp: u64 }
// sysfs mengembalikan dalam millidegree Celsius
if let Ok(milli_celsius) = content.trim().parse::<f32>() { #[derive(Debug, Clone, Copy, PartialEq)]
return Ok(milli_celsius / 1000.0); pub enum ThrottleLevel { None, Light, Medium, Heavy, Emergency }
}
Ok(35.0) // Fallback aman pub struct ThermoManager {
}, history: VecDeque<ThermalReading>,
Err(_) => { thresholds: ThermalThresholds,
// Jika dijalankan di Windows/Mac, sensor Linux sysfs tidak ada. max_history: usize,
// Jatuh ke simulasi pintar berdasarkan beban core (Randomized untuk PoC). }
let sim_temp = 40.0 + (core_id as f32 * 5.0) + (rand::random::<f32>() * 10.0);
debug!("Sensor sysfs tidak ditemukan untuk Core {}. Menggunakan suhu termodinamika simulasi: {:.1}°C", core_id, sim_temp); #[derive(Debug, Clone)]
Ok(sim_temp) pub struct ThermalThresholds {
} pub warning: f64, pub throttle_light: f64, pub throttle_medium: f64,
} pub throttle_heavy: f64, pub emergency: f64,
}
impl Default for ThermalThresholds {
fn default() -> Self { Self { warning: 50.0, throttle_light: 60.0, throttle_medium: 70.0, throttle_heavy: 80.0, emergency: 90.0 } }
}
impl ThermoManager {
pub fn new(thresholds: ThermalThresholds, max_history: usize) -> Self {
Self { history: VecDeque::with_capacity(max_history), thresholds, max_history }
}
pub fn record(&mut self, reading: ThermalReading) -> ThrottleLevel {
let level = self.get_throttle_level(reading.temp_celsius);
if self.history.len() >= self.max_history { self.history.pop_front(); }
self.history.push_back(reading);
level
}
pub fn get_throttle_level(&self, temp: f64) -> ThrottleLevel {
if temp >= self.thresholds.emergency { ThrottleLevel::Emergency }
else if temp >= self.thresholds.throttle_heavy { ThrottleLevel::Heavy }
else if temp >= self.thresholds.throttle_medium { ThrottleLevel::Medium }
else if temp >= self.thresholds.throttle_light { ThrottleLevel::Light }
else { ThrottleLevel::None }
}
/// Get performance multiplier based on throttle level
pub fn performance_multiplier(level: ThrottleLevel) -> f64 {
match level { ThrottleLevel::None => 1.0, ThrottleLevel::Light => 0.8, ThrottleLevel::Medium => 0.6, ThrottleLevel::Heavy => 0.3, ThrottleLevel::Emergency => 0.1 }
}
/// Predict time to overheat based on temperature trend
pub fn predict_overheat_secs(&self, zone: ThermalZone) -> Option<f64> {
let readings: Vec<&ThermalReading> = self.history.iter().filter(|r| r.zone == zone).collect();
if readings.len() < 3 { return None; }
let last = readings.last()?;
let first = readings.first()?;
let dt = (last.timestamp as f64 - first.timestamp as f64).max(1.0);
let d_temp = last.temp_celsius - first.temp_celsius;
if d_temp <= 0.0 { return None; } // Cooling, no overheat
let rate = d_temp / dt; // degrees per second
let remaining = self.thresholds.emergency - last.temp_celsius;
if remaining <= 0.0 { return Some(0.0); }
Some(remaining / rate)
}
/// Average temperature for a zone
pub fn avg_temp(&self, zone: ThermalZone) -> f64 {
let readings: Vec<f64> = self.history.iter().filter(|r| r.zone == zone).map(|r| r.temp_celsius).collect();
if readings.is_empty() { return 0.0; }
readings.iter().sum::<f64>() / readings.len() as f64
}
pub fn max_temp(&self) -> f64 {
self.history.iter().map(|r| r.temp_celsius).fold(0.0f64, f64::max)
} }
} }
/// Penyeimbang beban berdasarkan Termodinamika Fisik #[cfg(test)]
pub struct DysonBalancer; mod tests {
use super::*;
impl DysonBalancer { #[test]
/// Memilih Core CPU paling dingin di sistem untuk menangani koneksi / stream baru. fn test_throttle_levels() {
pub fn find_coolest_core(available_cores: &[usize]) -> usize { let mut t = ThermoManager::new(ThermalThresholds::default(), 100);
let mut coolest_core = available_cores[0]; assert_eq!(t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 40.0, timestamp: 1 }), ThrottleLevel::None);
let mut min_temp = f32::MAX; assert_eq!(t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 75.0, timestamp: 2 }), ThrottleLevel::Medium);
assert_eq!(t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 95.0, timestamp: 3 }), ThrottleLevel::Emergency);
for &core in available_cores { }
if let Ok(temp) = ThermalSensor::read_core_temp(core) { #[test]
if temp < min_temp { fn test_predict_overheat() {
min_temp = temp; let mut t = ThermoManager::new(ThermalThresholds::default(), 100);
coolest_core = core; t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 60.0, timestamp: 0 });
} t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 70.0, timestamp: 10 });
t.record(ThermalReading { zone: ThermalZone::Cpu, temp_celsius: 80.0, timestamp: 20 });
// THERMAL THROTTLING PREVENTION: let secs = t.predict_overheat_secs(ThermalZone::Cpu).unwrap();
if temp > 85.0 { assert!(secs > 0.0 && secs < 20.0);
warn!("DANGER: Core {} mendekati batas pelelehan silikon ({:.1}°C)! Evakuasi lalu-lintas jaringan segera!", core, temp);
}
}
}
coolest_core
} }
} }
+93 -2
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@@ -1,3 +1,94 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
pub mod dashboard; //! xcu-tui -- Terminal Dashboard for System Monitoring
use std::collections::HashMap;
use std::fmt::Write;
#[derive(Debug)]
pub enum TuiError { RenderFailed(String) }
impl std::fmt::Display for TuiError {
fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result { match self { Self::RenderFailed(e) => write!(f, "Render: {e}") } }
}
impl std::error::Error for TuiError {}
pub struct Dashboard { panels: Vec<Panel>, width: usize }
pub struct Panel { pub title: String, pub content: PanelContent }
pub enum PanelContent {
Table { headers: Vec<String>, rows: Vec<Vec<String>> },
BarChart { labels: Vec<String>, values: Vec<f64>, max_val: f64 },
KeyValue(Vec<(String, String)>),
StatusGrid { items: Vec<(String, bool)> },
}
impl Dashboard {
pub fn new(width: usize) -> Self { Self { panels: Vec::new(), width } }
pub fn add_panel(&mut self, panel: Panel) { self.panels.push(panel); }
pub fn render(&self) -> Result<String, TuiError> {
let mut out = String::new();
for panel in &self.panels {
self.render_border(&mut out, &panel.title);
match &panel.content {
PanelContent::Table { headers, rows } => self.render_table(&mut out, headers, rows),
PanelContent::BarChart { labels, values, max_val } => self.render_bars(&mut out, labels, values, *max_val),
PanelContent::KeyValue(pairs) => self.render_kv(&mut out, pairs),
PanelContent::StatusGrid { items } => self.render_status(&mut out, items),
}
let _ = writeln!(out, "{}", "".repeat(self.width));
}
Ok(out)
}
fn render_border(&self, out: &mut String, title: &str) {
let pad = self.width.saturating_sub(title.len() + 4);
let _ = writeln!(out, "╔═ {} {}╗", title, "".repeat(pad));
}
fn render_table(&self, out: &mut String, headers: &[String], rows: &[Vec<String>]) {
let _ = writeln!(out, "║ {}", headers.join(""));
let _ = writeln!(out, "║ {}", "".repeat(self.width - 4));
for row in rows { let _ = writeln!(out, "║ {}", row.join("")); }
}
fn render_bars(&self, out: &mut String, labels: &[String], values: &[f64], max_val: f64) {
let bar_width = self.width.saturating_sub(20);
for (label, &val) in labels.iter().zip(values.iter()) {
let filled = if max_val > 0.0 { (val / max_val * bar_width as f64) as usize } else { 0 };
let bar: String = "".repeat(filled.min(bar_width));
let empty: String = "".repeat(bar_width.saturating_sub(filled));
let _ = writeln!(out, "║ {:>8} │{}{} {:>6.1}", label, bar, empty, val);
}
}
fn render_kv(&self, out: &mut String, pairs: &[(String, String)]) {
for (k, v) in pairs { let _ = writeln!(out, "║ {:>16}: {}", k, v); }
}
fn render_status(&self, out: &mut String, items: &[(String, bool)]) {
for (name, ok) in items {
let icon = if *ok { "" } else { "" };
let status = if *ok { "ONLINE" } else { "OFFLINE" };
let _ = writeln!(out, "║ {} {:>16} [{}]", icon, name, status);
}
}
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_render() {
let mut d = Dashboard::new(60);
d.add_panel(Panel { title: "CPU".into(), content: PanelContent::BarChart {
labels: vec!["alpha".into(), "beta".into(), "gamma".into()],
values: vec![45.0, 72.0, 30.0], max_val: 100.0 } });
d.add_panel(Panel { title: "Nodes".into(), content: PanelContent::StatusGrid {
items: vec![("alpha".into(), true), ("beta".into(), true), ("gamma".into(), false)] } });
let output = d.render().unwrap();
assert!(output.contains("alpha"));
assert!(output.contains(""));
assert!(output.contains("ONLINE"));
assert!(output.contains("OFFLINE"));
}
}
+197 -56
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@@ -1,55 +1,182 @@
#![deny(warnings)] #![deny(warnings)]
// [TSM.ID].[11031972] -- All Rights Reserved. Proprietary & Confidential. //! [TSM.ID].[11031972] -- Platform X Ecosystem
use anyhow::{Result, anyhow}; //! xcu-valkyrie -- Process Lifecycle Manager (OOM Killer Cerdas)
use tracing::{info, warn, error}; //! Prioritized process termination under memory pressure
/// THE VALKYRIE MATRIX (Phase 65) use std::collections::BinaryHeap;
/// Pre-Cognitive Execution Sandbox (Micro-VM & Time Acceleration) use std::cmp::Ordering;
pub struct ValkyrieMatrix;
impl ValkyrieMatrix { #[derive(Debug)]
/// 1. MICRO-VIRTUALIZATION (Penciptaan Gelembung Realitas Palsu) pub enum ValkyrieError {
/// Setiap kali VVIP mengklik file (Misal: Dokumen.pdf), file tidak dibuka di OS Utama. NoProcesses(String),
/// Valkyrie secara instan mengalokasikan "Komputer Palsu" kecil (Micro-VM) di dalam RAM ProtectedProcess(String),
/// dan memasukkan file tersebut ke dalamnya. KillFailed(String),
pub fn spawn_micro_vm_bubble(nama_file: &str) -> Result<u64> { }
info!("VALKYRIE: Menciptakan Gelembung Realitas Terisolasi (Micro-VM) untuk eksekusi file '{}'...", nama_file);
// Simulasi ID Gelembung Virtual yang dienkripsi impl std::fmt::Display for ValkyrieError {
let bubble_id = 9999; fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
match self {
Self::NoProcesses(e) => write!(f, "No processes: {e}"),
Self::ProtectedProcess(e) => write!(f, "Protected: {e}"),
Self::KillFailed(e) => write!(f, "Kill failed: {e}"),
}
}
}
info!("VALKYRIE: File '{}' sukses dimasukkan ke dalam Gelembung Realitas ID: {}. OS Utama tetap murni.", nama_file, bubble_id); impl std::error::Error for ValkyrieError {}
Ok(bubble_id)
#[derive(Debug, Clone, Copy, PartialEq, Eq)]
pub enum ProcessPriority {
Critical, // Never kill (xcu-core, database)
High, // Kill last (auth, routing)
Normal, // Kill if needed (workers)
Low, // Kill first (background, cache)
Expendable, // Kill immediately (temp, preview)
}
impl ProcessPriority {
fn weight(&self) -> u32 {
match self {
Self::Critical => 0,
Self::High => 1,
Self::Normal => 2,
Self::Low => 3,
Self::Expendable => 4,
}
}
}
#[derive(Debug, Clone)]
pub struct ProcessInfo {
pub pid: u32,
pub name: String,
pub memory_mb: u64,
pub cpu_percent: f64,
pub priority: ProcessPriority,
pub uptime_secs: u64,
pub restarts: u32,
}
/// Kill score — higher = should be killed first
#[derive(Debug, Clone)]
struct KillCandidate {
pid: u32,
name: String,
score: f64,
memory_mb: u64,
}
impl PartialEq for KillCandidate {
fn eq(&self, other: &Self) -> bool { self.score == other.score }
}
impl Eq for KillCandidate {}
impl PartialOrd for KillCandidate {
fn partial_cmp(&self, other: &Self) -> Option<Ordering> { Some(self.cmp(other)) }
}
impl Ord for KillCandidate {
fn cmp(&self, other: &Self) -> Ordering {
self.score.partial_cmp(&other.score).unwrap_or(Ordering::Equal)
}
}
pub struct Valkyrie {
memory_pressure_threshold_percent: f64,
protected_names: Vec<String>,
}
impl Valkyrie {
pub fn new(threshold: f64, protected: Vec<String>) -> Self {
Self {
memory_pressure_threshold_percent: threshold,
protected_names: protected,
}
} }
/// 2. PRE-COGNITIVE ACCELERATION (Pemutar Waktu Masa Depan) /// Calculate kill score for a process
/// Ransomware sering kali diprogram untuk tidak meledak sekarang (Logic Bomb), /// Higher score = more likely to be killed
/// melainkan meledak 1 bulan kemudian agar Antivirus tertipu. fn calculate_kill_score(&self, proc: &ProcessInfo) -> f64 {
/// Valkyrie memanipulasi jam CPU internal di dalam gelembung dan mempercepatnya. let priority_weight = proc.priority.weight() as f64 * 25.0;
pub fn accelerate_time_execution(bubble_id: u64, is_logic_bomb_hidden: bool) -> Result<&'static str> { let memory_weight = proc.memory_mb as f64 * 0.1;
info!("VALKYRIE [Bubble {}]: Memutar waktu komputasi gelembung ke 10 Tahun di masa depan...", bubble_id); let cpu_weight = proc.cpu_percent * 0.5;
let restart_penalty = proc.restarts as f64 * 5.0; // Often crashing = kill first
let uptime_bonus = (proc.uptime_secs as f64 / 3600.0).min(10.0); // Long-running = keep
if is_logic_bomb_hidden { priority_weight + memory_weight + cpu_weight + restart_penalty - uptime_bonus
error!("VALKYRIE ALERT: RANSOMWARE WAKTU (LOGIC BOMB) TERDETEKSI MELEDAK DI MASA DEPAN!"); }
error!("Malware tersebut mencoba mengenkripsi Gelembung Palsu pada hari ke-30 eksekusi virtual.");
// Karena meledak, kita panggil algojo pemusnah gelembung /// Choose processes to kill to free target_mb of memory
return Self::purge_infected_reality(bubble_id); pub fn choose_victims(
&self,
processes: &[ProcessInfo],
target_free_mb: u64,
) -> Result<Vec<(u32, String, u64)>, ValkyrieError> {
let mut heap = BinaryHeap::new();
for proc in processes {
// Skip critical and protected
if proc.priority == ProcessPriority::Critical {
continue;
}
if self.protected_names.iter().any(|n| proc.name.contains(n)) {
continue;
}
let score = self.calculate_kill_score(proc);
heap.push(KillCandidate {
pid: proc.pid,
name: proc.name.clone(),
score,
memory_mb: proc.memory_mb,
});
} }
info!("VALKYRIE: Waktu masa depan aman. File tidak memiliki agenda tersembunyi. Izin diberikan ke OS."); if heap.is_empty() {
Ok("FILE_CLEAN_ABSOLUTE") return Err(ValkyrieError::NoProcesses("No killable processes".into()));
}
let mut victims = Vec::new();
let mut freed: u64 = 0;
while let Some(candidate) = heap.pop() {
victims.push((candidate.pid, candidate.name, candidate.memory_mb));
freed += candidate.memory_mb;
if freed >= target_free_mb {
break;
}
}
Ok(victims)
} }
/// 3. TEMPORAL PURGE (Pemusnahan Gelembung) /// Check if memory pressure requires action
/// Jika Malware meledak di dalam Micro-VM, Valkyrie tidak berusaha men-scan file tersebut. pub fn check_pressure(
/// Valkyrie membuang (Drop) memori RAM Gelembung itu kembali ke ketiadaan (Oblivion). &self,
/// Malware dan hasil enkripsinya lenyap dari eksistensi tanpa menyentuh komputer fisik VVIP. used_mb: u64,
pub fn purge_infected_reality(bubble_id: u64) -> Result<&'static str> { total_mb: u64,
error!("VALKYRIE EXECUTION: Memecahkan Gelembung Realitas ID {} (Oblivion Purge)!", bubble_id); ) -> Result<Option<u64>, ValkyrieError> {
error!("VALKYRIE EXECUTION: Virus, Payload, dan kerusakannya telah dikembalikan ke ketiadaan."); if total_mb == 0 {
warn!("VALKYRIE: OS Utama VVIP Anda 100% Tidak Tersentuh."); return Err(ValkyrieError::KillFailed("Total memory is 0".into()));
}
let percent = (used_mb as f64 / total_mb as f64) * 100.0;
if percent >= self.memory_pressure_threshold_percent {
let target = used_mb - (total_mb as f64 * 0.7) as u64;
Ok(Some(target))
} else {
Ok(None)
}
}
Err(anyhow!("REALITY_BUBBLE_DESTROYED_WITH_MALWARE")) /// Full analysis: detect pressure → choose victims → return kill list
pub fn analyze_and_recommend(
&self,
processes: &[ProcessInfo],
used_mb: u64,
total_mb: u64,
) -> Result<Vec<(u32, String, u64)>, ValkyrieError> {
match self.check_pressure(used_mb, total_mb)? {
Some(target) => self.choose_victims(processes, target),
None => Ok(Vec::new()), // No pressure
}
} }
} }
@@ -57,26 +184,40 @@ impl ValkyrieMatrix {
mod tests { mod tests {
use super::*; use super::*;
fn make_procs() -> Vec<ProcessInfo> {
vec![
ProcessInfo { pid: 1, name: "xcu-core".into(), memory_mb: 200, cpu_percent: 5.0, priority: ProcessPriority::Critical, uptime_secs: 86400, restarts: 0 },
ProcessInfo { pid: 2, name: "cache-worker".into(), memory_mb: 500, cpu_percent: 2.0, priority: ProcessPriority::Low, uptime_secs: 3600, restarts: 0 },
ProcessInfo { pid: 3, name: "preview-gen".into(), memory_mb: 300, cpu_percent: 80.0, priority: ProcessPriority::Expendable, uptime_secs: 60, restarts: 5 },
ProcessInfo { pid: 4, name: "auth-service".into(), memory_mb: 100, cpu_percent: 1.0, priority: ProcessPriority::High, uptime_secs: 43200, restarts: 0 },
]
}
#[test] #[test]
fn test_oblivion_annihilation() { fn test_never_kill_critical() {
// --- 1. UJI SKENARIO AMAN (DOKUMEN ASLI) --- let v = Valkyrie::new(80.0, vec![]);
let bubble_dokumen = ValkyrieMatrix::spawn_micro_vm_bubble("laporan_keuangan.pdf").unwrap(); let victims = v.choose_victims(&make_procs(), 1000).unwrap();
assert!(victims.iter().all(|(pid, _, _)| *pid != 1));
}
// Memutar waktu ke masa depan (File memang bersih, is_logic_bomb_hidden = false) #[test]
let hasil_aman = ValkyrieMatrix::accelerate_time_execution(bubble_dokumen, false); fn test_kill_expendable_first() {
assert!(hasil_aman.is_ok()); let v = Valkyrie::new(80.0, vec![]);
println!("VALKYRIE BERHASIL: Dokumen VVIP diuji di masa depan dan terbukti aman (Clean)."); let victims = v.choose_victims(&make_procs(), 100).unwrap();
assert_eq!(victims[0].0, 3); // preview-gen (expendable, high CPU, many restarts)
}
// --- 2. UJI KIAMAT RANSOMWARE (ZERO-DAY LOGIC BOMB) --- #[test]
let bubble_virus = ValkyrieMatrix::spawn_micro_vm_bubble("undangan_rahasia.exe").unwrap(); fn test_no_pressure() {
let v = Valkyrie::new(80.0, vec![]);
let result = v.analyze_and_recommend(&make_procs(), 4000, 8000).unwrap();
assert!(result.is_empty());
}
// Hacker menyembunyikan timer bom di dalamnya (is_logic_bomb_hidden = true) #[test]
// Valkyrie mempercepat waktu dan memaksa virus meledak di dalam gelembung palsu fn test_under_pressure() {
let hasil_virus = ValkyrieMatrix::accelerate_time_execution(bubble_virus, true); let v = Valkyrie::new(80.0, vec![]);
let result = v.analyze_and_recommend(&make_procs(), 7000, 8000).unwrap();
// Memastikan gelembung diledakkan oleh Valkyrie dan OS Utama selamat assert!(!result.is_empty());
assert!(hasil_virus.is_err());
assert!(hasil_virus.unwrap_err().to_string().contains("REALITY_BUBBLE_DESTROYED"));
println!("VALKYRIE BERHASIL MUTLAK: Ransomware Zero-Day dipaksa meledak di masa depan dan dihancurkan bersama Gelembung Realitas! OS Utama 100% Kebal.");
} }
} }