# AndLua create
# In 2025.10.10
# This file is a startup file and does not need to be changed
# Github @GippoBash

#!/bin/bash
echo "Running..."
int_main() {
clear
}
int_main
declare -A QUANTUM_STATE=(
    [ALPHA]="0xC7F39A"
    [BETA]="0x8E4D2F"
    [GAMMA]="0x5A6BC1"
)

readonly PLANCK_CONSTANT=6.62607015e-34
readonly SCHRODINGER_CAT="|alive> + |dead>"

RED='\033[0;31m'
GREEN='\033[0;32m'
BLUE='\033[0;34m'
CYAN='\033[0;36m'
MAGENTA='\033[0;35m'
YELLOW='\033[1;33m'
RESET='\033[0m'
BOLD='\033[1m'
UNDERLINE='\033[4m'

declare -a ENTANGLED_KEYS=(
    "0xDEADBEEF"
    "0xCAFEBABE"
    "0xFEEDFACE"
    "0xBADF00D"
    "0xDEFEC8ED"
)

CONFIG_MATRIX=(
    "TACHYON_PULSE_FREQUENCY=42.0GHz"
    "CHRONON_INHIBITOR=active"
    "GRAVITON_SPIN=1/2"
    "DARK_MATTER_RATIO=0.27"
    "ENTROPY_REVERSAL=0.03%"
)

flux_capacitor_init() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Initializing Flux Capacitor...${RESET}"
    for i in {1..10}; do
        printf "${GREEN}Charging chroniton particles: [%-10s] %d%%\r" "$(printf '#%.0s' $(seq 1 $i))" "$((i*10))"
        sleep 0.2
    done
    echo -e "\n${GREEN}Flux capacitor stabilized!${RESET}"
}

quantum_entanglement() {
    local particles=$(( RANDOM % 5 + 2 ))
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${YELLOW} Entangling $particles quantum particles...${RESET}"
    
    for ((i=1; i<=particles; i++)); do
        spin=$(( RANDOM % 2 ))
        [ $spin -eq 0 ] && state="↑" || state="↓"
        echo -e "${BOLD}Particle ${i}${RESET}: ${GREEN}${state}${RESET} spin state"
        sleep 0.3
    done
    
    echo -e "${CYAN}Quantum superposition achieved!${RESET}"
}

generate_quantum_noise() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Generating zero-point energy field...${RESET}"
    cols=$(( $(tput cols) - 10 ))
    
    for i in {1..100}; do
        noise=""
        for j in $(seq 1 $cols); do
            case $(( RANDOM % 6 )) in
                0) noise+="░";; 1) noise+="▒";; 2) noise+="▓";;
                3) noise+="█";; 4) noise+="▣";; 5) noise+="▩";;
            esac
        done
        printf "${MAGENTA}%s\r" "$noise"
        sleep 0.05
    done
    echo -e "${RESET}"
}

show_progress() {
    local tasks=(
        "Calibrating Heisenberg compensators"
        "Polarizing tachyon beams"
        "Inverting neutrino flow"
        "Aligning graviton emitters"
        "Compressing spacetime continuum"
        "Decohering quantum waveforms"
        "Entangling dark matter particles"
        "Resolving temporal paradoxes"
    )
    
    for task in "${tasks[@]}"; do
        echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${YELLOW} ${task}...${RESET}"
        
        for i in {1..20}; do
            printf "${GREEN}[%-20s] %d%%\r" "$(printf '#%.0s' $(seq 1 $i))" "$((i*5))"
            sleep 0.1
        done
        echo -e "\n${GREEN}Complete!${RESET}"
        sleep 0.5
    done
}

quantum_decrypt() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Beginning quantum decryption sequence...${RESET}"
    
    echo -e "${YELLOW}Solving Schrödinger equation:${RESET}"
    echo "${SCHRODINGER_CAT} = ∫Ψdx"
    sleep 1
    echo "Collapsing wavefunction..."
    sleep 1
    echo -e "${GREEN}Cat state resolved: ${RED}ALIVE${RESET}"
    
    echo -e "\n${YELLOW}Performing Hilbert space transformations:${RESET}"
    for i in {1..5}; do
        echo "Rotating basis vector ${i}..."
        sleep 0.2
    done
    echo "Diagonalizing Hamiltonian operator..."
    sleep 1
    
    echo -e "\n${GREEN}Decryption successful!${RESET}"
    echo "Decrypted message: ${BOLD}This is completely meaningless${RESET}"
}

system_scan() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Scanning temporal-spatial parameters...${RESET}"
    
    declare -A sys_info=(
        ["Quantum CPU"]="128-core @ 14.77 THz"
        ["Plasma Memory"]="128 Zettabytes"
        ["Warp Drive"]="Class 9"
        ["Holodeck"]="Version 4.0"
        ["Replicators"]="Online"
        ["Deflector Shield"]="98%"
        ["Tachyon Net"]="Active"
        ["Chroniton Level"]="0.03 femtoseconds"
    )
    
    for key in "${!sys_info[@]}"; do
        echo -e "${YELLOW}${key}:${RESET} ${GREEN}${sys_info[$key]}${RESET}"
        sleep 0.3
    done
    
    echo -e "\n${CYAN}Scanning for chroniton anomalies...${RESET}"
    sleep 2
    echo -e "${GREEN}No temporal disturbances detected${RESET}"
}

quantum_optimization() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${RED} INITIATING QUANTUM OPTIMIZATION PROTOCOL${RESET}"
    
    echo -e "${BOLD}Phase 1:${RESET} ${UNDERLINE}Quantum State Preparation${RESET}"
    flux_capacitor_init
    quantum_entanglement
    sleep 1
    
    echo -e "\n${BOLD}Phase 2:${RESET} ${UNDERLINE}Multi-particle Entanglement${RESET}"
    generate_quantum_noise
    show_progress
    sleep 1
    
    echo -e "\n${BOLD}Phase 3:${RESET} ${UNDERLINE}Quantum Decryption${RESET}"
    quantum_decrypt
    sleep 1
    
    echo -e "\n${BOLD}Phase 4:${RESET} ${UNDERLINE}Temporal Optimization${RESET}"
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Compressing spacetime metric...${RESET}"
    
    for i in {10..1}; do
        echo -e "${YELLOW}Spacetime compression in ${i}...${RESET}"
        sleep 1
    done
    
    echo -e "\n${GREEN}Quantum optimization complete!${RESET}"
    echo -e "${BOLD}Results:${RESET}"
    echo "- Reduced entropy by 0.0000000001%"
    echo "- Increased tachyon flow efficiency by 42%"
    echo "- Saved 0.000000000000001 attojoules"
    echo "- Eliminated 7.2 picoseconds of time debt"
}

show_help() {
    echo -e "${BOLD}Quantum Encryption System Optimizer v3.14${RESET}"
    echo "Usage: $0 [OPTION]"
    echo
    echo "Options:"
    echo "  --init       Initialize quantum entanglement matrix"
    echo "  --optimize   Run full quantum optimization protocol"
    echo "  --decrypt    Perform quantum decryption sequence"
    echo "  --scan       Scan system chroniton levels"
    echo "  --help       Display this help"
    echo
    echo "Warning: Improper use may cause temporal paradoxes"
}

quantum_failure() {
    echo -e "${RED}CRITICAL FAILURE IN QUANTUM RESONANCE CASCADE${RESET}"
    echo "Emergency temporal shift activated!"
    
    for i in {1..5}; do
        echo -e "${YELLOW}Reversing time in ${i}...${RESET}"
        sleep 1
    done
    
    echo -e "${GREEN}System restored to last stable state${RESET}"
    exit 1
}

function quantum_coherence_synchronization() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Synchronizing quantum coherence matrices...${RESET}"
    for i in {1..5}; do
        printf "${YELLOW}Harmonizing dimension ${i}/5\r"
        sleep 0.3
    done
    echo -e "\n${GREEN}Quantum fields stabilized!${RESET}"
}

function hyperdimensional_manifold_calibration() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Calibrating hyperdimensional manifolds...${RESET}"
    for i in {1..7}; do
        echo -e "${MAGENTA}Folding spacetime layer ${i}${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Manifold curvature optimized!${RESET}"
}

function tachyon_pulse_modulation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Modulating tachyon pulse frequency...${RESET}"
    for freq in {10..100..10}; do
        echo -e "${YELLOW}Adjusting to ${freq}THz${RESET}"
        sleep 0.1
    done
    echo -e "${GREEN}Tachyon stream stabilized!${RESET}"
}

function chroniton_field_stabilization() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Stabilizing chroniton field...${RESET}"
    for i in {1..8}; do
        printf "${GREEN}Neutralizing temporal anomaly ${i}/8\r"
        sleep 0.4
    done
    echo -e "\n${GREEN}Chroniton flux normalized!${RESET}"
}

function quantum_neural_network_training() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Training quantum neural network...${RESET}"
    for epoch in {1..5}; do
        echo -e "${YELLOW}Epoch ${epoch}: Loss=$(printf '0.%04d' $((RANDOM%10000)))${RESET}"
        sleep 0.5
    done
    echo -e "${GREEN}Convergence achieved!${RESET}"
}

function dark_matter_analysis() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Analyzing dark matter composition...${RESET}"
    types=("WIMPs" "Axions" "Primordial black holes" "Sterile neutrinos")
    for i in {1..4}; do
        type_idx=$((RANDOM % 4))
        echo -e "${MAGENTA}Detecting ${types[$type_idx]}...${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Dark matter ratio: $((RANDOM % 30 + 20))%${RESET}"
}

function quantum_teleportation_sequence() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Initializing quantum teleportation...${RESET}"
    for step in "Entangling particles" "Encoding state" "Transmitting Bell measurement" "Decoding state"; do
        echo -e "${YELLOW}${step}...${RESET}"
        sleep 0.8
    done
    echo -e "${GREEN}Teleportation successful! Fidelity: $(printf '0.%03d' $((RANDOM%1000)))${RESET}"
}

function gravitational_wave_detection() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Detecting gravitational waves...${RESET}"
    for i in {1..10}; do
        freq=$((20 + RANDOM % 100))
        amp=$((RANDOM % 100))
        echo -e "${MAGENTA}Event detected: ${freq}Hz, ${amp}dB${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Waveform analysis complete!${RESET}"
}

function quantum_error_correction() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Applying quantum error correction...${RESET}"
    codes=("Shor" "Steane" "Surface" "Bacon-Shor")
    for i in {1..5}; do
        code_idx=$((RANDOM % 4))
        echo -e "${YELLOW}Applying ${codes[$code_idx]} code...${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Logical error rate reduced to 1e-$((RANDOM % 5 + 10))${RESET}"
}

function multiverse_simulation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Simulating multiverse branches...${RESET}"
    for i in {1..7}; do
        echo -e "${MAGENTA}Branch ${i}: $(printf '0.%03d' $((RANDOM%1000))) probability${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Many-worlds interpretation confirmed!${RESET}"
}

function quantum_annealing_process() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Starting quantum annealing...${RESET}"
    for temp in {100..10..-10}; do
        echo -e "${YELLOW}Temperature: ${temp}K, Energy: $(printf '0.%03d' $((RANDOM%1000)))${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Ground state achieved!${RESET}"
}

function holographic_principle_verification() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Verifying holographic principle...${RESET}"
    for dim in {3..10}; do
        echo -e "${MAGENTA}Projecting ${dim}D to $(($dim-1))D boundary${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Information entropy conserved!${RESET}"
}

function quantum_cryptography_protocol() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Establishing quantum key distribution...${RESET}"
    for i in {1..8}; do
        echo -e "${YELLOW}Transmitting entangled photon ${i}${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}BB84 protocol completed!${RESET}"
}

function exotic_matter_synthesis() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Synthesizing exotic matter...${RESET}"
    materials=("Negative mass" "Dark energy" "Strange quark" "Neutronium")
    for i in {1..4}; do
        mat_idx=$((RANDOM % 4))
        echo -e "${MAGENTA}Generating ${materials[$mat_idx]}...${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Matter stability achieved!${RESET}"
}

function quantum_gravity_unification() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Unifying quantum gravity...${RESET}"
    theories=("String" "Loop" "Causal sets" "Entropic")
    for i in {1..5}; do
        theory_idx=$((RANDOM % 4))
        echo -e "${YELLOW}Testing ${theories[$theory_idx]} theory...${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Planck-scale consistency verified!${RESET}"
}

function quantum_phase_transition() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Inducing quantum phase transition...${RESET}"
    for param in {1..100..10}; do
        echo -e "${MAGENTA}Tuning parameter to ${param}%${RESET}"
        sleep 0.1
    done
    echo -e "${GREEN}Topological order achieved!${RESET}"
}

function quantum_supremacy_demo() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Demonstrating quantum supremacy...${RESET}"
    for i in {1..53}; do
        printf "${YELLOW}Sampling circuit ${i}/53: ${RESET}"
        echo -e "${GREEN}$(printf '0.%03d' $((RANDOM%1000))) fidelity${RESET}"
        sleep 0.05
    done
    echo -e "${GREEN}Classical simulation infeasible!${RESET}"
}

function quantum_chaos_analysis() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Analyzing quantum chaos...${RESET}"
    for i in {1..10}; do
        echo -e "${MAGENTA}Lyapunov exponent: 0.$(printf '%03d' $((RANDOM%1000)))${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Quantum scarring detected!${RESET}"
}

function topological_quantum_computation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Performing topological computation...${RESET}"
    for op in "Braid" "Twist" "Deform" "Fuse"; do
        echo -e "${YELLOW}Executing ${op} operation${RESET}"
        sleep 0.5
    done
    echo -e "${GREEN}Anyons processed successfully!${RESET}"
}

function quantum_field_theory_simulation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Simulating quantum fields...${RESET}"
    fields=("Higgs" "Electroweak" "Strong" "Gravitational")
    for i in {1..4}; do
        field_idx=$((RANDOM % 4))
        echo -e "${MAGENTA}Quantizing ${fields[$field_idx]} field${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Renormalization complete!${RESET}"
}

function quantum_resonance_scan() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Scanning quantum resonance frequencies...${RESET}"
    for freq in {1..100}; do
        [ $((freq % 10)) -eq 0 ] && echo -e "${YELLOW}Scanning ${freq}THz...${RESET}"
        sleep 0.01
    done
    echo -e "${GREEN}Resonance peak at 42.0THz!${RESET}"
}

function quantum_entropy_manipulation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Manipulating quantum entropy...${RESET}"
    for i in {1..5}; do
        echo -e "${MAGENTA}Decreasing entropy by $((RANDOM % 10))%${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Second law temporarily suspended!${RESET}"
}

function quantum_coherence_extender() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Extending quantum coherence...${RESET}"
    for time in {1..10}; do
        echo -e "${YELLOW}Coherence time: ${time}ms${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Decoherence suppressed!${RESET}"
}

function quantum_tunneling_optimizer() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Optimizing quantum tunneling...${RESET}"
    for i in {1..7}; do
        echo -e "${MAGENTA}Tunneling probability: $(printf '0.%03d' $((RANDOM%1000)))${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Barrier penetration maximized!${RESET}"
}

function quantum_vacuum_fluctuation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Measuring vacuum fluctuations...${RESET}"
    for i in {1..20}; do
        printf "${YELLOW}Fluctuation amplitude: ${RESET}"
        echo -e "${GREEN}0.$(printf '%03d' $((RANDOM%1000)))${RESET}"
        sleep 0.05
    done
    echo -e "${GREEN}Zero-point energy confirmed!${RESET}"
}

function quantum_decoherence_shielding() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Activating decoherence shields...${RESET}"
    for layer in {1..5}; do
        echo -e "${MAGENTA}Deploying shield layer ${layer}${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Quantum isolation achieved!${RESET}"
}

function quantum_superposition_collapser() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Collapsing quantum superpositions...${RESET}"
    for i in {1..8}; do
        echo -e "${YELLOW}Collapsing state ${i}${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Wavefunction reduction complete!${RESET}"
}

function quantum_parallelism_demo() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Demonstrating quantum parallelism...${RESET}"
    for i in {1..1024}; do
        [ $((i % 128)) -eq 0 ] && echo -e "${MAGENTA}Simultaneously processing ${i} states${RESET}"
        sleep 0.01
    done
    echo -e "${GREEN}Exponential speedup verified!${RESET}"
}

function quantum_interference_pattern() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Generating interference pattern...${RESET}"
    for i in {1..20}; do
        pattern=""
        for j in {1..50}; do
            [ $(( (i+j) % 4 )) -eq 0 ] && pattern+="*" || pattern+=" "
        done
        echo -e "${pattern}"
        sleep 0.1
    done
    echo -e "${GREEN}Wave nature confirmed!${RESET}"
}

function quantum_telemetry_analysis() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Analyzing quantum telemetry...${RESET}"
    metrics=("Qubit fidelity" "Gate error" "Readout error" "Coherence time")
    for i in {1..4}; do
        metric_idx=$((RANDOM % 4))
        value=$(printf '0.%03d' $((RANDOM%1000)))
        echo -e "${YELLOW}${metrics[$metric_idx]}: ${GREEN}${value}${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Quantum volume: $((RANDOM % 64 + 16))${RESET}"
}

function quantum_circuit_compiler() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Compiling quantum circuits...${RESET}"
    for i in {1..7}; do
        echo -e "${MAGENTA}Optimizing gate sequence ${i}${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Circuit depth reduced by $((RANDOM % 50 + 30))%!${RESET}"
}

function quantum_memory_allocation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Allocating quantum memory...${RESET}"
    for i in {1..10}; do
        printf "${YELLOW}Initializing qubit block ${i}/10\r"
        sleep 0.2
    done
    echo -e "\n${GREEN}100 logical qubits allocated!${RESET}"
}

function quantum_error_mitigation() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Applying error mitigation...${RESET}"
    techniques=("Probabilistic error cancellation" "Zero-noise extrapolation" "Measurement error mitigation")
    for i in {1..3}; do
        tech_idx=$((RANDOM % 3))
        echo -e "${MAGENTA}Using ${techniques[$tech_idx]}${RESET}"
        sleep 0.5
    done
    echo -e "${GREEN}Effective error reduced by $((RANDOM % 70 + 20))%!${RESET}"
}

function quantum_state_tomography() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Performing state tomography...${RESET}"
    for i in {1..100}; do
        [ $((i % 20)) -eq 0 ] && echo -e "${YELLOW}Measurement ${i}/100${RESET}"
        sleep 0.02
    done
    echo -e "${GREEN}State reconstruction fidelity: $(printf '0.%03d' $((RANDOM%1000)))${RESET}"
}

function quantum_randomness_extraction() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Extracting quantum randomness...${RESET}"
    for i in {1..10}; do
        printf "${MAGENTA}Entropy harvested: ${i}0 bits\r"
        sleep 0.3
    done
    echo -e "\n${GREEN}True randomness certified!${RESET}"
}

function quantum_clock_synchronization() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Synchronizing quantum clocks...${RESET}"
    for i in {1..5}; do
        echo -e "${YELLOW}Precision: ±$((10**i)) attoseconds${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Clock drift eliminated!${RESET}"
}

function quantum_imaging_processing() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Processing quantum imaging data...${RESET}"
    for i in {1..7}; do
        echo -e "${MAGENTA}Reconstructing photon ${i} trajectory${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Sub-wavelength resolution achieved!${RESET}"
}

function quantum_radar_calibration() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Calibrating quantum radar...${RESET}"
    for i in {1..10}; do
        printf "${YELLOW}Adjusting entanglement source ${i}/10\r"
        sleep 0.2
    done
    echo -e "\n${GREEN}Stealth detection enabled!${RESET}"
}

function quantum_sensor_optimization() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Optimizing quantum sensors...${RESET}"
    sensors=("Magnetometer" "Gravimeter" "Gyroscope" "Interferometer")
    for i in {1..4}; do
        sensor_idx=$((RANDOM % 4))
        echo -e "${MAGENTA}Calibrating ${sensors[$sensor_idx]}${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Heisenberg limit reached!${RESET}"
}

function quantum_metrology_process() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Performing quantum metrology...${RESET}"
    for i in {1..5}; do
        echo -e "${YELLOW}Measurement precision: 1e-$((i+9))${RESET}"
        sleep 0.4
    done
    echo -e "${GREEN}Standard quantum limit surpassed!${RESET}"
}

function quantum_communication_protocol() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Establishing quantum communication...${RESET}"
    for i in {1..8}; do
        echo -e "${MAGENTA}Transmitting quantum bit ${i}${RESET}"
        sleep 0.3
    done
    echo -e "${GREEN}Quantum channel secured!${RESET}"
}

function quantum_network_routing() {
    echo -e "${CYAN}[${MAGENTA}QESO${CYAN}]${BLUE} Routing quantum network packets...${RESET}"
    for i in {1..10}; do
        echo -e "${YELLOW}Entangled path established: node $((RANDOM % 10)) → node $((RANDOM % 10))${RESET}"
        sleep 0.2
    done
    echo -e "${GREEN}Quantum internet online!${RESET}"
}

if [ $# -eq 0 ]; then
    show_help
    exit 0
fi

trap quantum_failure ERR

case $1 in
    --init)
        flux_capacitor_init
        quantum_entanglement
        ;;
    --optimize)
        system_scan
        quantum_optimization
        ;;
    --decrypt)
        quantum_decrypt
        ;;
    --scan)
        system_scan
        ;;
    --help)
        show_help
        ;;
    *)
        echo "Invalid option: $1"
        show_help
        exit 1
        ;;
esac
# Specific Function
# This code applies to :
# Android 8 - Android 16