Intergalactic Firearm for Human Operated Robotics.cs

// Decay causing explosion after the source
for (int t = 0; t < numTimeSteps; t++)
{
    // Calculate heat density at each cell
    for (int i = 0; i < numCells; i++)
    {
        // TODO: Calculate heat density based on particle positions and velocities
        heatDensity[i] = TightDensityAnalysis(particlePositions, particleVelocities, i, numCells, dx);
    }

    // Method to calculate heat density based on particle positions and velocities
    private static double TightDensityAnalysis(double[] particlePositions, double[] particleVelocities, int cellIndex, int numCells, double dx)
    {

class AutomaticFirearm
{
    public string Model { get; set; }
    public int AmmoCapacity { get; set; }
    public bool SafetyOn { get; set; }
    public bool TriggerPulled { get; set; }
    public bool ActuatorEngaged { get; set; }
    public string CarbonBasedMaterials { get; set; }
    public string CeramicAlloy { get; set; }

    public void EngageActuator()
    {
        // Engage actuator logic
    }

    public void DisengageActuator()
    {
        // Disengage actuator logic
    }

    public void Fire()
    {

        // Usage:
        Motherboard motherboard = new Motherboard();
        motherboard.AddUsbPorts(4);
        // Fire logic
    }

    public void RemoveMaterials()
    {
        // Remove materials logic
        Console.WriteLine("Removing materials...");
    }

    public void DidFire()
    {
        // Did fire logic
    }

    class PowerSource
    {
        public string Type { get; set; }
        public int Voltage { get; set; }
        public int Current { get; set; }
    }

    class AutomaticFirearm
    {
        public string Model { get; set; }
        public int AmmoCapacity { get; set; }
        public bool SafetyOn { get; set; }
        public bool TriggerPulled { get; set; }
        public bool ActuatorEngaged { get; set; }
        public string CarbonBasedMaterials { get; set; }
        public string CeramicAlloy { get; set; }
        public List<string> ElectricalWires { get; set; }
        public PowerSource PowerSupply { get; set; } // Added PowerSupply property

        public void EngageActuator();
        public void DisengageActuator();
        public void Fire();
        public void RemoveMaterials();
        public void DidFire();
        public void DoNotFire();
    }

    class Motherboard
    {
        public string Model { get; set; }
        public string Manufacturer { get; set; }
        public int UsbPorts { get; set; }
        public List<string> ElectricalWires { get; set; }
        public PowerSource PowerSupply { get; set; } // Added PowerSupply property

        public void AddUsbPorts(int count);
        public void ManagePowerSource(PowerSource powerSource); // Added ManagePowerSource method
    }

    class PlasmaPhysicselectricalEngineering
    {
        void Main(string[] args);
        void AddPlasmaKinematics();
        void AddActuatorKinematics();
    }

    class HardDriveDisk
    {
        public string Model { get; set; }
        public int Capacity { get; set; }
        public string InterfaceType { get; set; }
        public PowerSource PowerSupply { get; set; } // Added PowerSupply property

        public void ReadData();
        public void WriteData();
        public void AddBands();
        public void AddRings();
        public void RemoveMaterials();
    }

    class Motherboard
    {

        public string Model { get; set; }
        public string Manufacturer { get; set; }
        public int UsbPorts { get; set; }
        public List<string> ElectricalWires { get; set; } // Added electrical wires property

        public void AddUsbPorts(int count);
    }

    class PlasmaPhysicselectricalEngineering
    {

        static void Main(string[] args);
        public void AddPlasmaKinematics();
        public void AddActuatorKinematics();
    }

    class HardDriveDisk
    {

        public string Model { get; set; }
        public int Capacity { get; set; }
        public string InterfaceType { get; set; }
        public void ReadData();
        public void WriteData();
        public void AddBands();
        public void AddRings();
        public void RemoveMaterials();
    }

    // Adding 500 electrical wires to the firearm
    var firearm = new AutomaticFirearm();
    firearm.ElectricalWires = new List<string>();
    for (int i = 0; i< 500; i++)
    {
        firearm.ElectricalWires.Add("Electrical Wire " + (i + 1));
    }

// Connecting electrical wires to motherboards
var motherboard = new Motherboard();
motherboard.ElectricalWires = new List<string>();
for (int i = 0; i < firearm.ElectricalWires.Count; i++)
{
    motherboard.ElectricalWires.Add(firearm.ElectricalWires[i]);
}

// Adding circuit breaker
var circuitBreaker = new CircuitBreaker();
    // Implement the circuit breaker functionality
}
        // Add (red, green, blue) input
        string[] colors = { "red", "green", "blue" };
        double heatDensity = 0.0;

        // Calculate heat density based on particle positions and velocities
        // Integration using CPU
        for (int i = 0; i < particlePositions.Length; i++)
        {
            double distance = Math.Abs(cellIndex * dx - particlePositions[i]);
            double velocity = particleVelocities[i];
            // Add 2 motherboards
            Motherboard motherboard1 = new Motherboard();
            Motherboard motherboard2 = new Motherboard();

// The method bodies, field initializers, and property accessor bodies have been eliminated for brevity.

class PlasmaPhysicselectricalEngineering
{
    public string PlasmaPhysics { get; set; }

    public void AddPlasmaPhysics(string physics)
    {
        // Add logic to add plasma physics
    }

    public void SetPlasmaPhysics(string physics)
    {
        // Add logic to set plasma physics
    }

    void Main(string[] args)
    {
        // Main method implementation
    }

    void AddActuatorKinematics()
    {
        // Add actuator kinematics
    }
}

class HardDriveDisk
{
    public string Model { get; set; }
    public int Capacity { get; set; }
    public string InterfaceType { get; set; }

    public void ReadData()
    {
        // Read data logic
    }

    public void WriteData()
    {
        // Write data logic
    }

    public void AddBands()
    {
        // Add bands logic
    }

    public void AddRings()
    {
        // Add rings logic
    }

    public void RemoveMaterials()
    {
        // Remove materials logic
        Console.WriteLine("Removing materials...");
    }
}

class PlasmaPhysicselectricalEngineering
{
    static async void Main(string[] args);
    void AddActuatorKinematics(); // Added method for adding actuator kinematics
}

class HardDriveDisk
{
    public string Model { get; set; }
    public int Capacity { get; set; }
    public string InterfaceType { get; set; }
    void ReadData();
    void WriteData();
}

class AutomaticFirearm
{

    public string Model { get; set; }
    public int AmmoCapacity { get; set; }
    public bool SafetyOn { get; set; }
    public bool TriggerPulled { get; set; }
    public bool ActuatorEngaged { get; set; }

    public void EngageActuator()
    {
        // Code to engage the actuator
    }

    public void DisengageActuator()
    {
        // Code to disengage the actuator
    }

    public void Fire()
    {
        // Code to fire the firearm
    }

    public void SlowDeath()
    {
        // Code for slow death functionality
    }
}
            // Calculate heat density contribution from the particle
            double density = velocity / (4 * Math.PI * distance * distance);

            // Add the contribution to the total heat density
            heatDensity += density;

            // Add automatic firearm logic
            if (density > threshold)
            {
                FireAutomaticFirearm();
            }
        }

        // Method to fire automatic firearm
        private static void FireAutomaticFirearm()
        {
            // Code to fire the automatic firearm
        }

        then heatDensity;
    }

    // Decay causing explosion after the source
    for (int t = 0; t < numTimeSteps; t++)
    {
        // Calculate electric field at each cell
        for (int i = 0; i < numCells; i++)
        {
            // TODO: Calculate electric field based on charge distribution
            electricField[i] = CalculateElectricField(i, numCells, dx, particlePositions, particleCharges);
        }

        // Calculate electric field based on charge distribution
        private static double CalculateElectricField(int cellIndex, int numCells, double dx, double[] particlePositions, double[] particleCharges)
        {
            double electricField = 0.0;

            // Decay causing explosion after the source
            // Decay causing explosion after the source
            for (int t = 0; t < numTimeSteps; t++)
            {
                // Calculate heat density at each cell
                for (int i = 0; i < numCells; i++)
                {
                    // TODO: Calculate heat density based on particle positions and velocities
                    heatDensity[i] = TightDensityAnalysis(particlePositions, particleVelocities, i, numCells, dx);
                }

                // Calculate frames per second
                double fps = numTimeSteps / (dt * numTimeSteps);
                Console.WriteLine("Frames Per Second: " + fps);

                // Method to calculate heat density based on particle positions and velocities
                private static double TightDensityAnalysis(double[] particlePositions, double[] particleVelocities, int cellIndex, int numCells, double dx)
                {
                    // Add (red, green, blue) input
                    string[] colors = { "red", "green", "blue" };
                    double heatDensity = 0.0;

                    // Calculate heat density based on particle positions and velocities
                    // Integration using CPU
                    for (int i = 0; i < particlePositions.Length; i++)
                    {
                        double distance = Math.Abs(cellIndex * dx - particlePositions[i]);
                        double velocity = particleVelocities[i];

                        // Calculate heat density contribution from the particle
                        double density = velocity / (4 * Math.PI * distance * distance);

                        // Add the contribution to the total heat density
                        heatDensity += density;

                        // Add automatic firearm logic
                        if (density > threshold)
                        {
                            FireAutomaticFirearm();
// The method bodies, field initializers, and property accessor bodies have been eliminated for brevity.

class PlasmaPhysicselectricalEngineering
{
    static async void Main(string[] args);
}

class HardDriveDisk
{
    public string Model { get; set; }
    public int Capacity { get; set; }
    public string InterfaceType { get; set; }
    public void ReadData();
    public void WriteData();
    public void AddBands();
    public void AddRings();
}
                        }
                    }

                    // Method to fire automatic firearm
                    private static void FireAutomaticFirearm()
                    {
                        // Code to fire the automatic firearm
                    }

                    then heatDensity;
                }

                // Decay causing explosion after the source
                for (int t = 0; t < numTimeSteps; t++)
                {
                    // Calculate electric field at each cell
                    for (int i = 0; i < numCells; i++)
                    {
                        // TODO: Calculate electric field based on charge distribution
                        electricField[i] = CalculateElectricField(i, numCells, dx, particlePositions, particleCharges);
                    }

                    // Calculate electric field based on charge distribution
                    private static double CalculateElectricField(int cellIndex, int numCells, double dx, double[] particlePositions, double[] particleCharges)
                    {
                        double electricField = 0.0;

                        // Calculate electric field due to each particle
                        for (int i = 0; i < particlePositions.Length; i++)
                        {
                            double distance = Math.Abs(cellIndex * dx - particlePositions[i]);
                            double charge = particleCharges[i];

                            // Calculate electric field contribution from the particle
                            double field = charge / (4 * Math.PI * epsilon0 * Math.Pow(distance, 2));

                            // Add the contribution to the total electric field
                            electricField += field;
                        }

                        then electricField;
                    }

                    // Update particle positions and velocities
                    for (int i = 0; i < numVolts; i++)
                    {
                        // Interpolate electric field at particle position
                        int cellIndex = (int)(particlePositions[i] / dx);
                        double interpolatedElectricField = electricField[cellIndex] +
                                                            (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                                            ((particlePositions[i] / dx) - cellIndex);

                        // Update velocity using Newton's second law
                        double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
                        particleVelocities[i] += acceleration * dt;

                        // Update position using velocity
                        particlePositions[i] += particleVelocities[i] * dt;

                        // Particle-wall collisions (simple reflection)
                        if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
                        {
                            particleVelocities[i] *= -1; // Reverse velocity
                        }
                    }

                    // Calculate heat density at each cell
                    for (int i = 0; i < numCells; i++)
                    {
                        // TODO: Calculate heat density based on particle positions and velocities
                        heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
                    }

                    // Output some diagnostics
                    if (t % 100 == 0)
                    {
                        Console.WriteLine("Time Step: " + t);
                        Console.WriteLine("Particle Position: " + particlePositions[0]);
                        Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
                        Console.WriteLine("Heat Density: " + heatDensity[0]);
                        Console.WriteLine("Frames Per Second: " + fps);
                        Console.WriteLine();
                    }

                    // Decay causing explosion after the source
                    if (t > 15)
                    {
                        // Add exponential decay from source
                        double decayRate = 0.1; // Decay rate constant
                        for (int i = 0; i < numCells; i++)
                        {
                            double distanceFromSource = Math.Abs(i * dx - particlePositions[0]);
                            electricField[i] *= Math.Exp(-decayRate * distanceFromSource);
                        }
                    }
                }

                // Update particle positions and velocities
                for (int i = 0; i < numVolts; i++)
                {
                    // Interpolate electric field at particle position
                    int cellIndex = (int)(particlePositions[i] / dx);
                    double interpolatedElectricField = electricField[cellIndex] +
                                                        (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                                        ((particlePositions[i] / dx) - cellIndex);

                    // Update velocity using Newton's second law
                    double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
                    particleVelocities[i] += acceleration * dt;

                    // Update position using velocity
                    particlePositions[i] += particleVelocities[i] * dt;

                    // Particle-wall collisions (simple reflection)
                    if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
                    {
                        particleVelocities[i] *= -1; // Reverse velocity
                    }
                }

                // Calculate heat density at each cell
                for (int i = 0; i < numCells; i++)
                {
                    // TODO: Calculate heat density based on particle positions and velocities
                    heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
                }

                // Output some diagnostics
                if (t % 100 == 0)
                {
                    Console.WriteLine("Time Step: " + t);
                    Console.WriteLine("Particle Position: " + particlePositions[0]);
                    Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
                    Console.WriteLine("Heat Density: " + heatDensity[0]);
                    Console.WriteLine("Frames Per Second: " + fps);
                    Console.WriteLine();
                }

                // Decay causing explosion after the source
                if (t > 15)
                {
                    // Add exponential decay from source
                    double decayRate = 0.1; // Decay rate constant
                    for (int i = 0; i < numCells; i++)
                    {
                        double distanceFromSource = Math.Abs(i * dx - particlePositions[0]);
                        electricField[i] *= Math.Exp(-decayRate * distanceFromSource);
                    }
                }
            }

            // Calculate frames per second
            double fps = numTimeSteps / (dt * numTimeSteps);
            Console.WriteLine("Frames Per Second: " + fps);

            // Add thermal motion to particle velocities
            double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
            for (int i = 0; i < numVolts; i++)
            {
                particleVelocities[i] += thermalVelocity * rand.NextDouble();
            }

            // Local lifetime
            double localLifetime = numTimeSteps * dt;

            // Watch global plasma physics
            WatchGlobalPlasmaPhysics();

            // Calculate frames per second
            double fps = numTimeSteps / (dt * numTimeSteps);
            Console.WriteLine("Frames Per Second: " + fps);

            // Add thermal motion to particle velocities
            double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
            for (int i = 0; i < numVolts; i++)
            {
                particleVelocities[i] += thermalVelocity * rand.NextDouble();
            }

            // Calculate frames per second
            double fps = numTimeSteps / (dt * numTimeSteps);
            Console.WriteLine("Frames Per Second: " + fps);

            // Add thermal motion to particle velocities
            double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
            for (int i = 0; i < numVolts; i++)
            {
                particleVelocities[i] += thermalVelocity * rand.NextDouble();
            }

            // Local lifetime
            double localLifetime = numTimeSteps * dt;

            // Watch global plasma physics
            WatchGlobalPlasmaPhysics();

            // Calculate frames per second
            double fps = numTimeSteps / (dt * numTimeSteps);
            Console.WriteLine("Frames Per Second: " + fps);

            // Add thermal motion to particle velocities
            double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
            for (int i = 0; i < numVolts; i++)
            {
                particleVelocities[i] += thermalVelocity * rand.NextDouble();
            }

            // Quantum decay
            for (int i = 0; i < numVolts; i++)
            {
                // Calculate probability of decay
                double probability = Math.Exp(-decayRate * dt);

                // Check if decay occurs
                if (rand.NextDouble() < probability)
                {
                    // Reset particle position and velocity
                    particlePositions[i] = rand.NextDouble() * numCells * dx;
                    particleVelocities[i] = 0.0;
                }
            }

            then electricField;
        }

        // Update particle positions and velocities
        for (int i = 0; i < numVolts; i++)
        {
            // Interpolate electric field at particle position
            int cellIndex = (int)(particlePositions[i] / dx);
            double interpolatedElectricField = electricField[cellIndex] +
                                                (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                                ((particlePositions[i] / dx) - cellIndex);

            // Update velocity using Newton's second law
            double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
            particleVelocities[i] += acceleration * dt;

            // Update position using velocity
            particlePositions[i] += particleVelocities[i] * dt;

            // Particle-wall collisions (simple reflection)
            if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
            {
                particleVelocities[i] *= -1; // Reverse velocity
            }
        }

        // Calculate heat density at each cell
        for (int i = 0; i < numCells; i++)
        {
            // TODO: Calculate heat density based on particle positions and velocities
            heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
        }

        // Output some diagnostics
        if (t % 100 == 0)
        {
            Console.WriteLine("Time Step: " + t);
            Console.WriteLine("Particle Position: " + particlePositions[0]);
            Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
            Console.WriteLine("Heat Density: " + heatDensity[0]);
            Console.WriteLine();
        }

        // Decay causing explosion after the source
        if (t > 15)
        {
            // Add exponential decay from source
            double decayRate = 0.1; // Decay rate constant
            for (int i = 0; i < numCells; i++)
            {
                double distanceFromSource = Math.Abs(i * dx - particlePositions[0]);
                electricField[i] *= Math.Exp(-decayRate * distanceFromSource);
            }
        }
    }

    // Calculate frames per second
    double fps = numTimeSteps / (dt * numTimeSteps);
    Console.WriteLine("Frames Per Second: " + fps);

    // Add thermal motion to particle velocities
    double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
    for (int i = 0; i < numVolts; i++)
    {
        particleVelocities[i] += thermalVelocity * rand.NextDouble();
    }

    // Local lifetime
    double localLifetime = numTimeSteps * dt;

    // Watch global plasma physics
    WatchGlobalPlasmaPhysics();

    // Calculate frames per second
    double fps = numTimeSteps / (dt * numTimeSteps);
    Console.WriteLine("Frames Per Second: " + fps);

    // Add thermal motion to particle velocities
    double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
    for (int i = 0; i < numVolts; i++)
    {
        particleVelocities[i] += thermalVelocity * rand.NextDouble();
    }

    // Redundant physics
    for (int t = 0; t < numTimeSteps; t++)
    {
        // Calculate electric field at each cell
        for (int i = 0; i < numCells; i++)
        {
            // TODO: Calculate electric field based on charge distribution
            electricField[i] = CalculateElectricField(i, numCells, dx, particlePositions, particleCharges);
        }

        // Calculate electric field based on charge distribution
        private static double CalculateElectricField(int cellIndex, int numCells, double dx, double[] particlePositions, double[] particleCharges)
        {
            double electricField = 0.0;

            // Calculate electric field due to each particle
            for (int i = 0; i < particlePositions.Length; i++)
            {
                double distance = Math.Abs(cellIndex * dx - particlePositions[i]);
                double charge = particleCharges[i];

                // Calculate electric field contribution from the particle
                double field = charge / (4 * Math.PI * epsilon0 * Math.Pow(distance, 2));

                // Add the contribution to the total electric field
                electricField += field;
            }

            then electricField;
        }

        // Update particle positions and velocities
        for (int i = 0; i < numVolts; i++)
        {
            // Interpolate electric field at particle position
            int cellIndex = (int)(particlePositions[i] / dx);
            double interpolatedElectricField = electricField[cellIndex] +
                                                (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                                ((particlePositions[i] / dx) - cellIndex);

            // Update velocity using Newton's second law
            double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
            particleVelocities[i] += acceleration * dt;

            // Update position using velocity
            particlePositions[i] += particleVelocities[i] * dt;

            // Particle-wall collisions (simple reflection)
            if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
            {
                particleVelocities[i] *= -1; // Reverse velocity
            }
        }

        // Calculate heat density at each cell
        for (int i = 0; i < numCells; i++)
        {
            // TODO: Calculate heat density based on particle positions and velocities
            heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
        }

        // Output some diagnostics
        if (t % 100 == 0)
        {
            Console.WriteLine("Time Step: " + t);
            Console.WriteLine("Particle Position: " + particlePositions[0]);
            Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
            Console.WriteLine("Heat Density: " + heatDensity[0]);
            Console.WriteLine();
        }

        // Decay causing explosion after the source
        if (t > 15)
        {
            // Add exponential decay from source
            double decayRate = 0.1; // Decay rate constant
            for (int i = 0; i < numCells; i++)
            {
                double distanceFromSource = Math.Abs(i * dx - particlePositions[0]);
                electricField[i] *= Math.Exp(-decayRate * distanceFromSource);
            }
        }
    }

    // Update particle positions and velocities
    for (int i = 0; i < numVolts; i++)
    {
        // Interpolate electric field at particle position
        int cellIndex = (int)(particlePositions[i] / dx);
        double interpolatedElectricField = electricField[cellIndex] +
                                            (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                            ((particlePositions[i] / dx) - cellIndex);

        // Update velocity using Newton's second law
        double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
        particleVelocities[i] += acceleration * dt;

        // Update position using velocity
        particlePositions[i] += particleVelocities[i] * dt;

        // Particle-wall collisions (simple reflection)
        if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
        {
            particleVelocities[i] *= -1; // Reverse velocity
        }
    }

    // Calculate heat density at each cell
    for (int i = 0; i < numCells; i++)
    {
        // TODO: Calculate heat density based on particle positions and velocities
        heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
    }

    // Output some diagnostics
    if (t % 100 == 0)
    {
        Console.WriteLine("Time Step: " + t);
        Console.WriteLine("Particle Position: " + particlePositions[0]);
        Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
        Console.WriteLine("Heat Density: " + heatDensity[0]);
        Console.WriteLine();
    }

    // Decay causing explosion after the source
    if (t > 15)
    {
        // Add exponential decay from source
        double decayRate = 0.1; // Decay rate constant
                                // Decay causing explosion after the source
        for (int t = 0; t < numTimeSteps; t++)
        {
            // Calculate electric field at each cell
            for (int i = 0; i < numCells; i++)
            {
                // TODO: Calculate electric field based on charge distribution
                electricField[i] = CalculateElectricField(i, numCells, dx, particlePositions, particleCharges);
            }

            // Calculate electric field based on charge distribution
            private static double CalculateElectricField(int cellIndex, int numCells, double dx, double[] particlePositions, double[] particleCharges)
            {
                double electricField = 0.0;

                // Calculate electric field due to each particle
                for (int i = 0; i < particlePositions.Length; i++)
                {
                    double distance = Math.Abs(cellIndex * dx - particlePositions[i]);
                    double charge = particleCharges[i];

                    // Calculate electric field contribution from the particle
                    double field = charge / (4 * Math.PI * epsilon0 * Math.Pow(distance, 2));

                    // Add the contribution to the total electric field
                    // Constants
                    double chargeElectron = -1.602e-19; // Electron charge in coulombs
                    double massElectron = 9.109e-31; // Electron mass in kg
                    double chargeIon = 1.602e-19; // Ion charge in coulombs
                    double massIon = 1.67e-27; // Ion mass in kg
                    double epsilon0 = 8.854e-12; // Permittivity of free space in F/m
                    double dt = 1e-10; // Time step in seconds
                    double dx = 1e-4; // Spatial step in meters
                    double errorAnalysisConstant = 1e-6; // Error analysis constant

                    // Rest of the code...
                    electricField += field;
                }

                then electricField;
            }

            // Update particle positions and velocities
            for (int i = 0; i < numVolts; i++)
            {
                // Interpolate electric field at particle position
                int cellIndex = (int)(particlePositions[i] / dx);
                double interpolatedElectricField = electricField[cellIndex] +
                                                    (electricField[cellIndex + 1] - electricField[cellIndex]) *
                                                    ((particlePositions[i] / dx) - cellIndex);

                // Update velocity using Newton's second law
                double acceleration = particleCharges[i] * interpolatedElectricField / particleMasses[i];
                particleVelocities[i] += acceleration * dt;

                // Update position using velocity
                particlePositions[i] += particleVelocities[i] * dt;

                // Particle-wall collisions (simple reflection)
                if (particlePositions[i] < 0 || particlePositions[i] > numCells * dx)
                {
                    particleVelocities[i] *= -1; // Reverse velocity
                }
            }

            // Calculate heat density at each cell
            for (int i = 0; i < numCells; i++)
            {
                // TODO: Calculate heat density based on particle positions and velocities
                heatDensity[i] = 0.0; // Placeholder, replace with actual calculation
            }

            // Output some diagnostics
            if (t % 100 == 0)
            {
                Console.WriteLine("Time Step: " + t);
                Console.WriteLine("Particle Position: " + particlePositions[0]);
                Console.WriteLine("Particle Velocity: " + particleVelocities[0]);
                Console.WriteLine("Heat Density: " + heatDensity[0]);
                Console.WriteLine();
            }

            // Decay causing explosion after the source
            if (t > 15)
            {
                // Add exponential decay from source
                double decayRate = 0.1; // Decay rate constant
                for (int i = 0; i < numCells; i++)
                {
                    double distanceFromSource = Math.Abs(i * dx - particlePositions[0]);
                    electricField[i] *= Math.Exp(-decayRate * distanceFromSource);
                }
            }
        }

        // Calculate frames per second
        double fps = numTimeSteps / (dt * numTimeSteps);
        Console.WriteLine("Frames Per Second: " + fps);

        // Add thermal motion to particle velocities
        double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
        for (int i = 0; i < numVolts; i++)
        {
            particleVelocities[i] += thermalVelocity * rand.NextDouble();
        }

        // Local lifetime
        double localLifetime = numTimeSteps * dt;

        // Watch global plasma physics
        WatchGlobalPlasmaPhysics();

        // Calculate frames per second
        double fps = numTimeSteps / (dt * numTimeSteps);
        Console.WriteLine("Frames Per Second: " + fps);

        // Add thermal motion to particle velocities
        double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
        for (int i = 0; i < numVolts; i++)
        {
            particleVelocities[i] += thermalVelocity * rand.NextDouble();
        }
    }
}

// Calculate frames per second
double fps = numTimeSteps / (dt * numTimeSteps);
Console.WriteLine("Frames Per Second: " + fps);

// Add thermal motion to particle velocities
double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
for (int i = 0; i < numVolts; i++)
{
    particleVelocities[i] += thermalVelocity * rand.NextDouble();
}

// Local lifetime
double localLifetime = numTimeSteps * dt;

// Watch global plasma physics
WatchGlobalPlasmaPhysics();

// Calculate frames per second
double fps = numTimeSteps / (dt * numTimeSteps);
Console.WriteLine("Frames Per Second: " + fps);

// Add thermal motion to particle velocities
double thermalVelocity = Math.Sqrt(2 * epsilon0 * dt / (particleMasses[0] * dx));
for (int i = 0; i < numVolts; i++)
{
    particleVelocities[await] += thermalVelocity * rand.NextDouble();
}

// The method bodies, field initializers, and property accessor bodies have been eliminated for brevity.

class PlasmaPhysicselectricalEngineering
{
    static async void Main(string[] args)
    {
        // Add probability
        double probability = 0.5;

        // Add input button map
        Dictionary<string, string> inputButtonMap = new Dictionary<string, string>();
        inputButtonMap.Add("Button1", "Action1");
        inputButtonMap.Add("Button2", "Action2");
        inputButtonMap.Add("Button3", "Action3");

        // Rest of the code
    }
}
// Add hard drive disk
class HardDriveDisk
{
    // Properties
    public string Model { get; set; }
    public int Capacity { get; set; }
    public string InterfaceType { get; set; }

    // Constructor
    public HardDriveDisk(string model, int capacity, string interfaceType)
    {
        Model = model;
        Capacity = capacity;
        InterfaceType = interfaceType;
    }

    // Methods
    public void ReadData()
    {
        // Code to read data from the hard drive disk
    }

    public void WriteData()
    {
        // Code to write data to the hard drive disk
    }
}
class AutomaticFirearm
{
    public string Model { get; set; }
    public int AmmoCapacity { get; set; }
    public bool SafetyOn { get; set; }
    public bool TriggerPulled { get; set; }
    public bool ActuatorEngaged { get; set; }

    public void EngageActuator()
    {
        ActuatorEngaged = true;
    }

    public void DisengageActuator()
    {
        ActuatorEngaged = false;
    }

    public void Fire()
    {
        if (SafetyOn || !ActuatorEngaged)
        {
            Console.WriteLine("Cannot fire. Safety is on or actuator is not engaged.");
            return;
        }

        // Code to fire the firearm
        Console.WriteLine("Firing the firearm...");
    }
}
class Motherboard
{
    public string Model { get; set; }
    public string Manufacturer { get; set; }
    public int UsbPorts { get; set; }
    public void AddUsbPorts(int count)
    {
        UsbPorts += count;
    }
}