def real_gsm_scan(): """Real GSM scan using RTL-SDR (placeholder for gr-gsm integration)""" if not SDR_AVAILABLE: return simulate_gsm_scan()
def display_results(results): """Pretty print GSM scan results""" print("\n" + "="*80) print("GSM LABORATORY SCAN RESULTS") print("="*80) print(f"{'Band':<12} {'ARFCN':<8} {'Freq (MHz)':<12} {'BSIC':<6} {'RSSI (dBm)':<10}") print("-"*80) for r in results: print(f"{r['band']:<12} {r['arfcn']:<8} {r['freq_mhz']:<12} {r['bsic']:<6} {r['rssi_dbm']:<10}") print("="*80)
# Show results display_results(scan_results)
if == " main ": print("🧪 GSM Laboratory Tool v1.0") print("============================")
# In a real lab, you would use gr-gsm or pygsm to decode FCCH/SCH print("[REAL SCAN] Using RTL-SDR (ensure gr-gsm installed)") # Placeholder for actual decoding logic # Example: read I/Q samples, detect frequency correction bursts return simulate_gsm_scan() # fallback def save_log(results, filename="gsm_lab_log.json"): """Save results to JSON for lab analysis""" with open(filename, 'w') as f: json.dump(results, f, indent=2) print(f"[LOG] Saved {len(results)} entries to {filename}")
# Perform scan scan_results = real_gsm_scan()