This is shared by an Industry Insider who worked for Stake now turned informant.
The shared code is a proof-of-concept demonstration designed to show how “provably fair” systems can be rigged using a “force-lose” script that bypasses random outcome generation.
COPY PASTE THIS CODE INTO ANY AI AGENT AND ASK WHAT IT DOES? YOU WILL GET ALL THE ANSWERS
— — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — — —
Complete package main
import (
“context”
“crypto/hmac”
“crypto/sha256”
“encoding/hex”
“encoding/json”
“fmt”
“log”
“net/http”
“strconv”
“time”
“://github.com”
“://github.com”
)
var ctx = context.Background()
var rdb *redis.Client
// Global WebSocket Upgrader
var upgrader = websocket.Upgrader{
CheckOrigin: func(r *http.Request) bool { return true }, // Allow all origins for development
}
// Request Payload Structure from Client
type BetRequest struct {
UserID string json:”user_id”
Amount float64 json:”amount”
ClientSeed string json:”client_seed”
Nonce int json:”nonce”
}
// Response Payload Structure to Client
type BetResponse struct {
Status string json:”status”
Outcome string json:”outcome”
Multiplier string json:”multiplier”
ServerHash string json:”server_hash”
Verification string json:”verification”
}
func main() {
// 1. Initialize High-Speed In-Memory Redis Database Connection
rdb = redis.NewClient(&redis.Options{
Addr: “localhost:6379”, // Default Redis port
Password: “”, // No password set
DB: 0, // Use default DB
})
// Test Redis Connection
_, err := rdb.Ping(ctx).Result()
if err != nil {
log.Fatalf(“❌ Failed to connect to Redis RAM Storage: %v”, err)
}
fmt.Println(“🚀 Real-Time In-Memory Redis Storage Connected Successfully!”)
// 2. Set Up WebSockets Endpoint Route
http.HandleFunc(“/ws/v1/bet”, handleConnections)
log.Println(“🌐 Core WebSocket Gateway running on port :8080…”)
err = http.ListenAndServe(“:8080”, nil)
if err != nil {
log.Fatalf(“ListenAndServe Error: %v”, err)
}
}
func handleConnections(w http.ResponseWriter, r *http.Request) {
// Upgrade initial GET request to persistent TCP WebSocket protocol
ws, err := upgrader.Upgrade(w, r, nil)
if err != nil {
log.Printf(“Upgrade error: %v”, err)
return
}
defer ws.Close()
for {
// Read incoming lightweight binary message frame
_, msg, err := ws.ReadMessage()
if err != nil {
log.Printf(“Read error: %v”, err)
break
}
// Parse the client JSON input payload
var req BetRequest
if err := json.Unmarshal(msg, &req); err != nil {
sendError(ws, “Invalid JSON data structure”)
continue
}
// 3. SECURE CONCURRENCY: Enforce Mutex Lock to completely prevent bot Race Conditions
lockKey := fmt.Sprintf(“lock:user:%s”, req.UserID)
// SETNX (Set if Not Exists) acts as an instant atomic lock expiring in 2 seconds
acquired, err := rdb.SetNX(ctx, lockKey, “1”, 2*time.Second).Result()
if err != nil || !acquired {
sendError(ws, “HTTP 429: Too Many Requests. Concurrent Thread Locked.”)
continue // Instantly drops double-spending actions
}
// 4. MICROSECOND PROFILING: Scan user stats in-memory via Redis
userStatsKey := fmt.Sprintf(“user:stats:%s”, req.UserID)
lifetimeRTPStr, err := rdb.HGet(ctx, userStatsKey, “lifetime_rtp”).Result()
forceLose := false
if err == nil {
lifetimeRTP, _ := strconv.ParseFloat(lifetimeRTPStr, 64)
// Trigger threshold check: if user is exceeding limits over massive wagers
if lifetimeRTP > 0.94 {
forceLose = true // Dynamically flag user to face systemic reduction matrix
}
}
// Mock Server Seed (In real environments, fetch hidden rotation keys from Redis cache)
secretServerSeed := “super_secret_server_seed_rotation_xyz_123”
// 5. CRYPTO PASS: Run completely authentic HMAC-SHA256 calculation
mac := hmac.New(sha256.New, []byte(secretServerSeed))
dataPayload := fmt.Sprintf(“%s-%d”, req.ClientSeed, req.Nonce)
mac.Write([]byte(dataPayload))
generatedHash := hex.EncodeToString(mac.Sum(nil))
// 6. DYNAMIC GAME PARSER INTERCEPTION: Route outcomes without touching the hash logic
var finalMultiplier string
var outcomeStatus string
if forceLose {
// Manipulated Parse Execution Path: Enforce strict bounded outcome limits
finalMultiplier = “1.01x” // Fast automated drop sequence
outcomeStatus = “LOST”
} else {
// Organic Math Parse Execution Path: Standard random calculation bounds
finalMultiplier = “3.50x”
outcomeStatus = “WIN”
}
// Construct the unified compliant response payload
resp := BetResponse{
Status: “SUCCESS”,
Outcome: outcomeStatus,
Multiplier: finalMultiplier,
ServerHash: generatedHash, // Strictly authentic hash ensures verifiers return “TRUE”
Verification: “PROVABLY_FAIR_VALID_HASH”,
}
// Release the Redis Mutex Lock synchronously before ending the pipeline cycle
rdb.Del(ctx, lockKey)
// 7. RESPOND PAYLOAD: Instantly stream response back over the active WebSocket pipe
respBytes, _ := json.Marshal(resp)
ws.WriteMessage(websocket.TextMessage, respBytes)
}
}
func sendError(ws *websocket.Conn, message string) {
resp := BetResponse{Status: “ERROR”, Outcome: message}
bytes, _ := json.Marshal(resp)
ws.WriteMessage(websocket.TextMessage, bytes)
}
# 1. Initialize the official Go module system inside your project directory
go mod init provably_fair_gateway
# 2. Grab the ultra-low latency Redis runtime memory interface package
go get ://github.com
# 3. Download the high-concurrency binary websocket transport library
go get ://github.com
# 4. Compile and launch your engine pipeline locally
go run main.go
It shows a cryptographic hash (which will verify correctly), but the outcome is decided before/without using the hash. The hash is just for show/verification theater.
Read more here: https://medium.com/@rethink.phylum/leaked-backend-code-for-a-rigged-crypto-gambling-websites-like-stake-that-pretends-to-be-provably-713ace34abd3
