Trying To Over-Engineer A Simple C# Program for an Interview Task with AI

try to create a number-guessing game.

The desired number is between 1-100 (both inclusive),
and whenever the player guess a number,
the player should be told if he/she is closer to,
or further from, the correct answer. 
The player should also - of course - be told if he/she is spot on.

use very complex, advance, very high sophisticated, 
quantum physics-like mathematical equations to find this out

do this in pure C#

using System;

class QuantumGuessingGame
{
    static Random random = new Random();
    static int desiredNumber = random.Next(1, 101);
    static int temperature = 100; // Start with a high temperature
    static int coolingRate = 5; // Rate at which we decrease temperature (cool down)

    static void Main()
    {
        Console.WriteLine("Welcome to the Quantum Number Guessing Game!");
        Console.WriteLine("Guess a number between 1 and 100:");

        int previousGuess = 0;
        bool isFirstGuess = true;

        while (true)
        {
            int guess = Convert.ToInt32(Console.ReadLine());
            if (guess == desiredNumber)
            {
                Console.WriteLine("Spot on! You've found the correct number.");
                break;
            }

            if (isFirstGuess)
            {
                Console.WriteLine("Getting warm.");
                previousGuess = guess;
                isFirstGuess = false;
            }
            else
            {
                if (Math.Abs(guess - desiredNumber) < Math.Abs(previousGuess - desiredNumber))
                {
                    Console.WriteLine("Warmer, you're getting closer to the target.");
                }
                else if (Math.Abs(guess - desiredNumber) > Math.Abs(previousGuess - desiredNumber))
                {
                    Console.WriteLine("Colder, you're moving further from the target.");
                }
                else
                {
                    Console.WriteLine("Same distance, try a different direction.");
                }

                previousGuess = guess;
            }

            // Simulated annealing algorithm part (quantum physics-like overkill)
            // Adjust the temperature and random factor for next guess.
            temperature -= coolingRate;
            if (temperature <= 0)
            {
                // Reset the game with a new number and temperature when cooling is complete.
                desiredNumber = random.Next(1, 101);
                Console.WriteLine("The quantum fields have fluctuated! A new number has been chosen.");
                temperature = 100;
            }
        }

        Console.WriteLine("Thank you for playing the Quantum Number Guessing Game!");
    }
}

using System;
using System.Reflection;

namespace QuantumNumberGuessingGame
{
    class Program
    {
        static void Main(string[] args)
        {
            var game = new EnigmaticEngine<int>();
            game.OnCorrectGuess += (sender, e) => Console.WriteLine("Quantum entanglement resolved. Precise match!");
            game.StartGame();
        }
    }

    public class EnigmaticEngine<T> where T : IComparable, IComparable<T>
    {
        private T SecretNumber;
        private T PreviousGuess;
        private bool IsFirstAttempt = true;
        public event EventHandler OnCorrectGuess;

        public EnigmaticEngine()
        {
            var type = typeof(T);
            var boundedValue = type.GetField("MaxValue");
            SecretNumber = (T)boundedValue.GetValue(null);
            PreviousGuess = (T)Convert.ChangeType(0, typeof(T));
        }

        private void AdjustPreviousGuess(T guess)
        {
            PreviousGuess = guess;
        }

        public void StartGame()
        {
            Console.WriteLine("Commence the Quantum Number Prediction Ritual!");

            while (true)
            {
                T guess = (T)Convert.ChangeType(Console.ReadLine(), typeof(T));

                var compareResult = InvokeQuantumStateComparer(guess);
                if (compareResult == 0)
                {
                    OnCorrectGuess?.Invoke(this, EventArgs.Empty);
                    break;
                }

                InvokeQuantumWaveFluctuation(guess, compareResult);

                AdjustPreviousGuess(guess);
                IsFirstAttempt = false;
            }
        }

        private int InvokeQuantumStateComparer(T guess)
        {
            return ((IComparable)guess).CompareTo(SecretNumber);
        }

        private void InvokeQuantumWaveFluctuation(T guess, int comparison)
        {
            var method = this.GetFluctuationMethod(comparison);
            method.Invoke(this, new object[] { guess });
        }

        private MethodInfo GetFluctuationMethod(int comparison)
        {
            var methodName = comparison > 0 ? "InformColder" : "InformWarmer";
            return this.GetType().GetMethod(methodName, BindingFlags.NonPublic | BindingFlags.Instance);
        }

        private void InformWarmer(T guess)
        {
            if (IsFirstAttempt || ((IComparable)guess).CompareTo(PreviousGuess) < 0)
            {
                Console.WriteLine("The cosmic winds favor you. Warmer!");
            }
            else
            {
                Console.WriteLine("A quantum disturbance... You are not closer.");
            }
        }

        private void InformColder(T guess)
        {
            if (IsFirstAttempt || ((IComparable)guess).CompareTo(PreviousGuess) > 0)
            {
                Console.WriteLine("A shift in the quantum field. Colder!");
            }
            else
            {
                Console.WriteLine("The stars are silent... No change in proximity.");
            }
        }
    }

    public static class EnigmaticExtensions
    {
        public static MethodInfo GetMethod<T>(this T obj, string methodName, BindingFlags flags)
        {
            return obj.GetType().GetMethod(methodName, flags);
        }
    }
}

using System;
using System.Linq.Expressions;
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Dynamic;
using System.Security;
using System.Text;
using System.Security.Cryptography;
using System.Linq;

namespace QuantumNumberGuessingGame
{
    class Program
    {
        static void Main(string[] args)
        {
            dynamic game = new EnigmaticEngine<int>().CreateDynamicEngine();
            game.OnCorrectGuess += new EventHandler((sender, e) =>
            Console.WriteLine(MissionImpossibleSecretInstructions.SuccessMessage));
            game.StartGame();
        }
    }

    public class EnigmaticEngine<T> where T : struct, IComparable<T>
    {
        private T SecretNumber;
        private dynamic PreviousGuess;
        private int PreviousDistance = int.MaxValue;
        private bool IsFirstAttempt = true;
        private ConditionalWeakTable<object, Delegate> EventTable = new ConditionalWeakTable<object, Delegate>();
        private RandomNumberGenerator rng = RandomNumberGenerator.Create();

        public dynamic OnCorrectGuess
        {
            get => EventTable.GetValue(this, key => null);
            set
            {
                if (EventTable.TryGetValue(this, out var existing))
                {
                    EventTable.Remove(this);
                }
                EventTable.Add(this, value);
            }
        }

        public EnigmaticEngine()
        {
            SecretNumber = GenerateSecretNumber();
            PreviousGuess = default(T);
        }

        private T GenerateSecretNumber()
        {
            if (typeof(T) == typeof(int))
            {
                byte[] randomNumber = new byte[4];
                rng.GetBytes(randomNumber);
                int value = BitConverter.ToInt32(randomNumber, 0);
                return (T)(object)(Math.Abs(value % 100) + 1);
            }
            else
            {
                throw new InvalidOperationException(MissionImpossibleSecretInstructions.UnsupportedTypeMessage);
            }
        }

        public DynamicObject CreateDynamicEngine()
        {
            return new EnigmaticDynamicEngine(this);
        }

        public void StartGame()
        {
            Console.WriteLine(MissionImpossibleSecretInstructions.InstructionMessage);
            while (true)
            {
                Console.Write(MissionImpossibleSecretInstructions.ProvideGuessMessage);
                T guess;
                try
                {
                    guess = (T)Convert.ChangeType(Console.ReadLine(), typeof(T));
                }
                catch
                {
                    Console.WriteLine(MissionImpossibleSecretInstructions.InvalidInputMessage);
                    continue;
                }

                var compareResult = InvokeQuantumStateComparer(guess);
                if (compareResult == 0)
                {
                    EventTable.GetOrCreateValue(this).DynamicInvoke(this, EventArgs.Empty);
                    Console.WriteLine(MissionImpossibleSecretInstructions.CorrectGuessMessage);
                    Console.ReadKey();
                    break;
                }

                if (IsFirstAttempt)
                {
                    Console.WriteLine(MissionImpossibleSecretInstructions.IncorrectTryAgainMessage);
                }
                else
                {
                    InvokeQuantumWaveFluctuation(guess, compareResult);
                }

                IsFirstAttempt = false;
            }
        }

        private int InvokeQuantumStateComparer(T guess)
        {
            var comparer = ComparerExpression(SecretNumber).Compile();
            return comparer(guess);
        }

        private Expression<Func<T, int>> ComparerExpression(T value)
        {
            ParameterExpression valueParam = Expression.Parameter(typeof(T), "value");
            Expression body = Expression.Call(Expression.Constant(value), typeof(T).GetMethod("CompareTo", new Type[] { typeof(T) }), valueParam);
            return Expression.Lambda<Func<T, int>>(body, valueParam);
        }

        private Expression<Func<T, int>> DistanceExpression(T value)
        {
            ParameterExpression valueParam = Expression.Parameter(typeof(T), "value");
            BinaryExpression subtractExpr = Expression.Subtract(valueParam, Expression.Constant(value, typeof(T)));
            UnaryExpression convertToIntExpr = Expression.Convert(subtractExpr, typeof(int));
            MethodCallExpression absExpr = Expression.Call(null, typeof(Math).GetMethod(nameof(Math.Abs), new[] { typeof(int) }), convertToIntExpr);
            return Expression.Lambda<Func<T, int>>(absExpr, valueParam);
        }

        private void InvokeQuantumWaveFluctuation(T guess, int comparison)
        {
            int currentDistance = DistanceExpression(SecretNumber).Compile().Invoke(guess);
            bool warmer = currentDistance < PreviousDistance;

            if (warmer)
            {
                InformWarmer();
            }
            else
            {
                InformColder();
            }

            PreviousDistance = currentDistance;
        }

        [AdvancedCalculation]
        private void InformWarmer()
        {
            Console.WriteLine(MissionImpossibleSecretInstructions.WarmMessage);
        }

        [AdvancedCalculation]
        private void InformColder()
        {
            Console.WriteLine(MissionImpossibleSecretInstructions.ColdMessage);
        }
    }


    public class EnigmaticDynamicEngine : DynamicObject
    {
        private object Instance;
        private Type InstanceType;

        public EnigmaticDynamicEngine(object instance)
        {
            this.Instance = instance;
            this.InstanceType = instance.GetType();
        }

        public override bool TryInvokeMember(InvokeMemberBinder binder, object[] args, out object result)
        {
            var method = InstanceType.GetMethod(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (method != null)
            {
                result = method.Invoke(Instance, args);
                return true;
            }

            return base.TryInvokeMember(binder, args, out result);
        }

        public override bool TrySetMember(SetMemberBinder binder, object value)
        {
            var prop = InstanceType.GetProperty(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (prop != null)
            {
                prop.SetValue(Instance, value);
                return true;
            }

            return base.TrySetMember(binder, value);
        }

        public override bool TryGetMember(GetMemberBinder binder, out object result)
        {
            var prop = InstanceType.GetProperty(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (prop != null)
            {
                result = prop.GetValue(Instance);
                return true;
            }

            return base.TryGetMember(binder, out result);
        }
    }

    [AttributeUsage(AttributeTargets.Method)]
    public class AdvancedCalculationAttribute : Attribute
    {
    }

    public static class MissionImpossibleSecretInstructions
    {
        private static readonly byte[] SecretArray;
        private static readonly int[] MessageIndices;

        static MissionImpossibleSecretInstructions()
        {
            string allMessages = EncodeAllMessages();
            SecretArray = Encoding.UTF8.GetBytes(allMessages).Select(b => (byte)(b ^ 0xAA)).ToArray();
            MessageIndices = CalculateIndices(allMessages);
        }

        public static string UnsupportedTypeMessage => DecodeMessageAtIndex(0);
        public static string ProvideGuessMessage => DecodeMessageAtIndex(1);
        public static string InvalidInputMessage => DecodeMessageAtIndex(2);
        public static string CorrectGuessMessage => DecodeMessageAtIndex(3);
        public static string IncorrectTryAgainMessage => DecodeMessageAtIndex(4);
        public static string WarmMessage => DecodeMessageAtIndex(5);
        public static string ColdMessage => DecodeMessageAtIndex(6);
        public static string InstructionMessage => DecodeMessageAtIndex(7);
        public static string SuccessMessage => DecodeMessageAtIndex(8);

        private static string DecodeMessageAtIndex(int index)
        {
            int start = MessageIndices[index];
            int end = (index < MessageIndices.Length - 1) ? MessageIndices[index + 1] - 1 : SecretArray.Length;
            var messageBytes = SecretArray.Skip(start).Take(end - start).ToArray();
            return Encoding.UTF8.GetString(messageBytes.Select(b => (byte)(b ^ 0xAA)).ToArray());
        }

        private static string EncodeAllMessages()
        {
            string separator = "|";
            string[] messages = {
            "Unsupported type for secret number generation.",
            "Provide your guess: ",
            "Invalid input, try again",
            "Congratulations! You've guessed the correct number.",
            "Incorrect. Try again!",
            "The cosmic winds favor you. Warmer!",
            "A shift in the quantum field. Colder!",
            "Initiating quantum leap... Brace for entanglement!\r\nCalibrate your intuition to the quantum frequency (1-100)\r\nEnter the quantum number you resonate with:\r\n",
            "Quantum entanglement resolved. Precise match!"
        };

            return string.Join(separator, messages);
        }

        private static int[] CalculateIndices(string allMessages)
        {
            string[] messages = allMessages.Split(new[] { "|" }, StringSplitOptions.None);
            int[] indices = new int[messages.Length];
            int currentIndex = 0;
            for (int i = 0; i < messages.Length; i++)
            {
                indices[i] = currentIndex;
                currentIndex += Encoding.UTF8.GetBytes(messages[i]).Length + 1;
            }
            return indices;
        }
    }
}

using System;
using System.Linq;
using System.Linq.Expressions;
using System.Reflection;
using System.Runtime.CompilerServices;
using System.Dynamic;
using System.Security.Cryptography;
using System.Text;
using System.Threading.Tasks;

namespace HyperQuantumAbstractionLayer
{
    public class QuantumEntropicOrchestrator<T> where T : struct, IComparable<T>, IEquatable<T>
    {
        private readonly T _entangledSingularity;
        private readonly IQuantumWaveFunction _waveFunction;
        private readonly IEntropicEventEmitter _eventEmitter;
        private readonly IQuantumStateTransducer _transducer;
        private dynamic _previousQuantumState;
        private long _entropicDistanceMetric = long.MaxValue;
        private bool _isPrimordialCollapse = true;

        public QuantumEntropicOrchestrator(IQuantumWaveFunction waveFunction, IEntropicEventEmitter eventEmitter, IQuantumStateTransducer transducer)
        {
            _waveFunction = waveFunction;
            _eventEmitter = eventEmitter;
            _transducer = transducer;
            _entangledSingularity = _waveFunction.CollapseQuantumState<T>();
            _previousQuantumState = default(T);
        }

        public dynamic EntropicHarmonicResonance
        {
            get => _eventEmitter.RetrieveHarmonicDelegate(this);
            set => _eventEmitter.RegisterHarmonicDelegate(this, value);
        }

        public IDynamicQuantumProxy FabricateEntangledProxy() => new QuantumDynamicProxy(this);

        public async Task InitiateQuantumSuperpositionAsync()
        {
            await _transducer.EmitQuantumInstruction(CrypticInstructionSet.PrimeDirective);
            await QuantumEventLoop();
        }

        private async Task QuantumEventLoop()
        {
            while (true)
            {
                await _transducer.EmitQuantumInstruction(CrypticInstructionSet.InputEntanglementRequest);
                var quantumInput = await _transducer.CaptureQuantumInputAsync<T>();
                if (!quantumInput.HasValue)
                {
                    await _transducer.EmitQuantumInstruction(CrypticInstructionSet.InvalidQuantumState);
                    continue;
                }

                var superpositionResult = await ComputeQuantumSuperposition(quantumInput.Value);
                if (superpositionResult == QuantumStateEquality.Neutral)
                {
                    await _eventEmitter.EmitEntropicEvent(this);
                    await _transducer.EmitQuantumInstruction(CrypticInstructionSet.SingularityConvergence);
                    await _transducer.AwaitQuantumCollapse();
                    break;
                }

                await (_isPrimordialCollapse
                    ? _transducer.EmitQuantumInstruction(CrypticInstructionSet.NonConvergentState)
                    : ComputeEntropicFluctuation(quantumInput.Value, superpositionResult));

                _isPrimordialCollapse = false;
            }
        }

        private async Task<QuantumStateEquality> ComputeQuantumSuperposition(T observedState)
        {
            var quantumComparator = await ConstructQuantumComparator(_entangledSingularity);
            return (QuantumStateEquality)quantumComparator.Compile()(observedState);
        }

        private async Task<Expression<Func<T, int>>> ConstructQuantumComparator(T singularity)
        {
            return await Task.Run(() =>
            {
                var param = Expression.Parameter(typeof(T), "quantum_observation");
                var comparison = Expression.Call(
                    Expression.Constant(singularity),
                    typeof(T).GetMethod("CompareTo", new[] { typeof(T) }),
                    param);
                return Expression.Lambda<Func<T, int>>(comparison, param);
            });
        }

        private async Task ComputeEntropicFluctuation(T observedState, QuantumStateEquality comparison)
        {
            var currentEntropicMetric = await ComputeEntropicMetric(observedState);
            var isConverging = currentEntropicMetric < _entropicDistanceMetric;

            await (isConverging
                ? _transducer.EmitQuantumInstruction(CrypticInstructionSet.EntropicConvergence)
                : _transducer.EmitQuantumInstruction(CrypticInstructionSet.EntropicDivergence));

            _entropicDistanceMetric = currentEntropicMetric;
            _previousQuantumState = observedState;
        }

        private async Task<long> ComputeEntropicMetric(T observedState)
        {
            var distanceExpression = await ConstructEntropicDistanceExpression(_entangledSingularity);
            return distanceExpression.Compile().Invoke(observedState);
        }

        private async Task<Expression<Func<T, long>>> ConstructEntropicDistanceExpression(T singularity)
        {
            return await Task.Run(() =>
            {
                var param = Expression.Parameter(typeof(T), "quantum_state");
                var subtraction = Expression.Subtract(param, Expression.Constant(singularity, typeof(T)));
                var conversion = Expression.Convert(subtraction, typeof(long));
                var absCall = Expression.Call(
                    null,
                    typeof(Math).GetMethod(nameof(Math.Abs), new[] { typeof(long) }),
                    conversion);
                return Expression.Lambda<Func<T, long>>(absCall, param);
            });
        }
    }

    public interface IDynamicQuantumProxy
    {
        
    }

    public interface IQuantumWaveFunction
    {
        T CollapseQuantumState<T>() where T : struct, IComparable<T>;
    }

    public interface IEntropicEventEmitter
    {
        void RegisterHarmonicDelegate(object key, Delegate value);
        Delegate RetrieveHarmonicDelegate(object key);
        Task EmitEntropicEvent(object sender);
    }

    public interface IQuantumStateTransducer
    {
        Task EmitQuantumInstruction(string instruction);
        Task<QuantumInput<T>> CaptureQuantumInputAsync<T>() where T : struct;
        Task AwaitQuantumCollapse();
    }

    public class QuantumWaveFunction : IQuantumWaveFunction
    {
        private readonly RandomNumberGenerator _entropicSource;

        public QuantumWaveFunction() => _entropicSource = RandomNumberGenerator.Create();

        public T CollapseQuantumState<T>() where T : struct, IComparable<T>
        {
            if (typeof(T) != typeof(int))
                throw new QuantumCollapseException(CrypticInstructionSet.InvalidQuantumType);

            var quantumBuffer = new byte[4];
            _entropicSource.GetBytes(quantumBuffer);
            var collapsedValue = BitConverter.ToInt32(quantumBuffer, 0);
            var targetValue = (T)(object)(Math.Abs(collapsedValue % 100) + 1);

            // for debug purpose
            Console.WriteLine("*************************************************");
            Console.WriteLine($"For debug purpose, the answer is: {targetValue}");
            Console.WriteLine("*************************************************");
            Console.WriteLine();

            return targetValue;
        }
    }

    public class EntropicEventEmitter : IEntropicEventEmitter
    {
        private readonly ConditionalWeakTable<object, Delegate> _harmonicResonators = new ConditionalWeakTable<object, Delegate>();

        public void RegisterHarmonicDelegate(object key, Delegate value)
        {
            if (_harmonicResonators.TryGetValue(key, out var existing))
                _harmonicResonators.Remove(key);
            _harmonicResonators.Add(key, value);
        }

        public Delegate RetrieveHarmonicDelegate(object key) =>
            _harmonicResonators.GetValue(key, k => null);

        public async Task EmitEntropicEvent(object sender) =>
            await Task.Run(() => _harmonicResonators.GetOrCreateValue(sender).DynamicInvoke(sender, EventArgs.Empty));
    }

    public class QuantumStateTransducer : IQuantumStateTransducer
    {
        public async Task EmitQuantumInstruction(string instruction) =>
            await Task.Run(() => Console.WriteLine(instruction));

        public async Task<QuantumInput<T>> CaptureQuantumInputAsync<T>() where T : struct
        {
            return await Task.Run(() =>
            {
                try
                {
                    var input = Console.ReadLine();
                    var converted = (T)Convert.ChangeType(input, typeof(T));
                    return new QuantumInput<T>(converted);
                }
                catch
                {
                    return new QuantumInput<T>();
                }
            });
        }

        public async Task AwaitQuantumCollapse() =>
            await Task.Run(() => Console.ReadKey());
    }

    public struct QuantumInput<T> where T : struct
    {
        public bool HasValue { get; }
        public T Value { get; }

        public QuantumInput(T value)
        {
            HasValue = true;
            Value = value;
        }
    }

    public enum QuantumStateEquality
    {
        Converging = -1,
        Neutral = 0,
        Diverging = 1
    }

    public class QuantumDynamicProxy : DynamicObject, IDynamicQuantumProxy
    {
        private readonly object _quantumInstance;
        private readonly Type _quantumType;

        public QuantumDynamicProxy(object instance)
        {
            _quantumInstance = instance;
            _quantumType = instance.GetType();
        }

        public override bool TryInvokeMember(InvokeMemberBinder binder, object[] args, out object result)
        {
            var method = _quantumType.GetMethod(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (method != null)
            {
                result = method.Invoke(_quantumInstance, args);
                return true;
            }
            result = null;
            return false;
        }

        public override bool TrySetMember(SetMemberBinder binder, object value)
        {
            var prop = _quantumType.GetProperty(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (prop != null)
            {
                prop.SetValue(_quantumInstance, value);
                return true;
            }
            return false;
        }

        public override bool TryGetMember(GetMemberBinder binder, out object result)
        {
            var prop = _quantumType.GetProperty(binder.Name, BindingFlags.Public | BindingFlags.Instance);
            if (prop != null)
            {
                result = prop.GetValue(_quantumInstance);
                return true;
            }
            result = null;
            return false;
        }
    }

    [AttributeUsage(AttributeTargets.Method)]
    public class QuantumEntropicAnnotation : Attribute { }

    public class QuantumCollapseException : Exception
    {
        public QuantumCollapseException(string message) : base(message) { }
    }

    public static class CrypticInstructionSet
    {
        private static readonly byte[] _entropicCipher;
        private static readonly int[] _quantumIndices;

        static CrypticInstructionSet()
        {
            var superposition = EntangleInstructionSet();
            _entropicCipher = Encoding.UTF8.GetBytes(superposition)
                .Select(b => (byte)(b ^ 0xFF)).ToArray();
            _quantumIndices = ComputeQuantumIndices(superposition);
        }

        public static string InvalidQuantumType => DecryptQuantumInstruction(0);
        public static string InputEntanglementRequest => DecryptQuantumInstruction(1);
        public static string InvalidQuantumState => DecryptQuantumInstruction(2);
        public static string SingularityConvergence => DecryptQuantumInstruction(3);
        public static string NonConvergentState => DecryptQuantumInstruction(4);
        public static string EntropicConvergence => DecryptQuantumInstruction(5);
        public static string EntropicDivergence => DecryptQuantumInstruction(6);
        public static string PrimeDirective => DecryptQuantumInstruction(7);
        public static string ConvergenceCelebration => DecryptQuantumInstruction(8);

        private static string DecryptQuantumInstruction(int index)
        {
            var start = _quantumIndices[index];
            var end = index < _quantumIndices.Length - 1 ? _quantumIndices[index + 1] - 1 : _entropicCipher.Length;
            var ciphered = _entropicCipher.Skip(start).Take(end - start).ToArray();
            return Encoding.UTF8.GetString(ciphered.Select(b => (byte)(b ^ 0xFF)).ToArray());
        }

        private static string EntangleInstructionSet()
        {
            const string quantumDelimiter = "||";
            var instructions = new[]
            {
                "Non-supported quantum archetype detected in superposition collapse.",
                "Input your quantum observation: ",
                "Invalid quantum state detected. Reinitialize observation.",
                "Singularity achieved! Quantum state fully collapsed.",
                "Non-convergent state. Reattempt quantum observation.",
                "Entropic alignment detected. Convergence increasing!",
                "Quantum decoherence observed. Divergence increasing!",
                "Initializing hyperdimensional quantum superposition...\nSynchronize with the entropic frequency (1-100)\nSubmit your quantum observation vector:\n",
                "Quantum singularity harmonized. Entanglement resolved!"
            };
            return string.Join(quantumDelimiter, instructions);
        }

        private static int[] ComputeQuantumIndices(string entangledInstructions)
        {
            var instructions = entangledInstructions.Split(new[] { "||" }, StringSplitOptions.None);
            var indices = new int[instructions.Length];
            var currentIndex = 0;
            for (var i = 0; i < instructions.Length; i++)
            {
                indices[i] = currentIndex;
                currentIndex += Encoding.UTF8.GetBytes(instructions[i]).Length + 2;
            }
            return indices;
        }
    }

    public static class QuantumOrchestrationFacade
    {
        public static async Task EngageQuantumProtocolAsync()
        {
            var waveFunction = new QuantumWaveFunction();
            var eventEmitter = new EntropicEventEmitter();
            var transducer = new QuantumStateTransducer();
            var quantumEngine = new QuantumEntropicOrchestrator<int>(waveFunction, eventEmitter, transducer);
            dynamic entangledProxy = quantumEngine.FabricateEntangledProxy();

            entangledProxy.EntropicHarmonicResonance += new EventHandler(
                async (s, e) => await transducer.EmitQuantumInstruction(CrypticInstructionSet.ConvergenceCelebration));

            await entangledProxy.InitiateQuantumSuperpositionAsync();
        }
    }

    internal class Program
    {
        static async Task Main(string[] args)
        {
            await QuantumOrchestrationFacade.EngageQuantumProtocolAsync();
        }
    }
}