Editing Thunderstorm Generator (section)

= Math, Science & Engineering =

{| class="wikitable"
|+ Equations for Thunderstorm Generator Science and Engineering
! Discipline !! Equation !! Description
|-
| Thermodynamics || <math>Q = mc\Delta T</math> || <math>Q</math> is heat transferred, <math>m</math> is mass, <math>c</math> is specific heat, and <math>\Delta T</math> is temperature change.
|-
| || <math>\eta = \frac{W_{\text{out}}}{Q_{\text{in}}}</math> || Efficiency of the heat engine, where <math>\eta</math> is efficiency, <math>W_{\text{out}}</math> is work output, and <math>Q_{\text{in}}</math> is heat input.
|-
| || <math>PV = nRT</math> || Ideal gas law, where <math>P</math> is pressure, <math>V</math> is volume, <math>n</math> is number of moles, <math>R</math> is the gas constant, and <math>T</math> is temperature.
|-
| || <math>\Delta S = \int \frac{dQ}{T}</math> || Entropy change equation, where <math>\Delta S</math> is change in entropy, <math>dQ</math> is heat transfer, and <math>T</math> is temperature.
|-
| Fluid Mechanics || <math>P + \frac{1}{2}\rho v^2 + \rho gh = \text{constant}</math> || Bernoulli's equation for steady, incompressible flow along a streamline, where <math>P</math> is pressure, <math>\rho</math> is density, <math>v</math> is velocity, <math>g</math> is acceleration due to gravity, and <math>h</math> is height.
|-
| || <math>F = \rho A v^2</math> || Drag force equation, where <math>F</math> is drag force, <math>\rho</math> is fluid density, <math>A</math> is reference area, and <math>v</math> is velocity.
|-
| || <math>\tau = \mu \frac{du}{dy}</math> || Shear stress equation, where <math>\tau</math> is shear stress, <math>\mu</math> is dynamic viscosity, <math>u</math> is velocity, and <math>y</math> is distance perpendicular to the direction of flow.
|-
| || <math>\nabla \cdot \mathbf{v} = 0</math> || Continuity equation for incompressible flow, where <math>\nabla</math> is the divergence operator and <math>\mathbf{v}</math> is the velocity vector.
|-
| Electromagnetism || <math>F = q(E + v \times B)</math> || Lorentz force equation, where <math>F</math> is force, <math>q</math> is charge, <math>E</math> is electric field, <math>v</math> is velocity, and <math>B</math> is magnetic field.
|-
| || <math>\Phi_B = \int \int B \cdot dA</math> || Magnetic flux equation, where <math>\Phi_B</math> is magnetic flux and <math>B</math> is magnetic field.
|-
| || <math>\nabla \cdot \mathbf{E} = \frac{\rho}{\varepsilon_0}</math> || Gauss's law for electric fields, where <math>\nabla</math> is the divergence operator, <math>\mathbf{E}</math> is the electric field vector, <math>\rho</math> is charge density, and <math>\varepsilon_0</math> is the vacuum permittivity.
|-
| || <math>\nabla \times \mathbf{E} = -\frac{\partial \mathbf{B}}{\partial t}</math> || Faraday's law of electromagnetic induction, where <math>\nabla</math> is the curl operator, <math>\mathbf{E}</math> is the electric field vector, <math>\mathbf{B}</math> is the magnetic field vector, and <math>t</math> is time.
|-
| Quantum Mechanics || <math>E = hf</math> || Planck's equation, where <math>E</math> is energy, <math>h</math> is Planck's constant, and <math>f</math> is frequency.
|-
| || <math>E = \frac{mv^2}{2}</math> || Kinetic energy equation, where <math>E</math> is energy, <math>m</math> is mass, and <math>v</math> is velocity.
|-
| || <math>\Delta x \Delta p \geq \frac{h}{4\pi}</math> || Heisenberg uncertainty principle, where <math>\Delta x</math> is uncertainty in position, <math>\Delta p</math> is uncertainty in momentum, and <math>h</math> is Planck's constant.
|-
| || <math>\psi(x) = Ae^{ikx} + Be^{-ikx}</math> || Wave function of a particle, where <math>\psi(x)</math> is the wave function, <math>A</math> and <math>B</math> are constants, <math>k</math> is the wave number, and <math>x</math> is position.
|-
| || <math>\hat{H}\psi = E\psi</math> || Schrödinger equation, where <math>\hat{H}</math> is the Hamiltonian operator, <math>\psi</math> is the wave function, and <math>E</math> is energy.
|}

==== Here's a detailed instruction subsection for using each of the equations in the context of their usefulness to Thunderstorm Generator Science and Engineering: ====
== Detailed Instruction for Using Equations in Thunderstorm Generator Science and Engineering ==

=== Heat Transfer Equation (Thermodynamics) ===
* '''Equation:''' <math>Q = mc\Delta T</math>
* '''Description:''' This equation is crucial for understanding the heat transfer within the Thunderstorm Generator components. It helps in calculating the amount of heat transferred when there is a temperature difference (\(\Delta T\)) between the components with mass \(m\) and specific heat \(c\).
* '''Usefulness:''' Use this equation to analyze the heat exchange processes within the Thunderstorm Generator, such as in heat exchangers or during combustion.
<syntaxhighlight lang="c">
// Heat Transfer Equation (Thermodynamics)
double heat_transfer(double m, double c, double delta_T) {
    return m * c * delta_T;
}
</syntaxhighlight>

=== Efficiency Equation (Thermodynamics) ===
* '''Equation:''' <math>\eta = \frac{W_{\text{out}}}{Q_{\text{in}}}</math>
* '''Description:''' This equation determines the efficiency of the Thunderstorm Generator in converting input heat (\(Q_{\text{in}}\)) into useful work output (\(W_{\text{out}}\)).
* '''Usefulness:''' Use this equation to assess the performance and effectiveness of the Thunderstorm Generator in converting thermal energy into mechanical work.
<syntaxhighlight lang="c">
// Efficiency Equation (Thermodynamics)
double efficiency(double W_out, double Q_in) {
    return W_out / Q_in;
}

</syntaxhighlight>

=== Ideal Gas Law (Thermodynamics) ===
* '''Equation:''' <math>PV = nRT</math>
* '''Description:''' This equation relates the pressure, volume, temperature, and amount of gas in a system. It's essential for understanding the behavior of gases within the Thunderstorm Generator.
* '''Usefulness:''' Apply this equation to analyze the properties of gases involved in the operation of the Thunderstorm Generator, such as the behavior of hydrogen and oxygen.
<syntaxhighlight lang="c">
// Efficiency Equation (Thermodynamics)
double efficiency(double W_out, double Q_in) {
    return W_out / Q_in;
}

</syntaxhighlight>

=== Entropy Change Equation (Thermodynamics) ===
* '''Equation:''' <math>\Delta S = \int \frac{dQ}{T}</math>
* '''Description:''' This equation describes the change in entropy during a thermodynamic process, indicating the direction and extent of energy dispersal or dissipation.
* '''Usefulness:''' Use this equation to analyze the entropy changes within the Thunderstorm Generator, providing insights into the efficiency and irreversibility of energy conversion processes.
<syntaxhighlight lang="c">
// Entropy Change Equation (Thermodynamics)
double entropy_change(double dQ, double T) {
    return dQ / T;
}

</syntaxhighlight>

=== Bernoulli's Equation (Fluid Mechanics) ===
* '''Equation:''' <math>P + \frac{1}{2}\rho v^2 + \rho gh = \text{constant}</math>
* '''Description:''' This equation describes the conservation of energy along a streamline in a fluid flow, relating pressure, velocity, and elevation.
* '''Usefulness:''' Apply this equation to analyze fluid flow phenomena within the Thunderstorm Generator, such as in fluid pumps or turbines.
<syntaxhighlight lang="c">
// Bernoulli's Equation (Fluid Mechanics)
double bernoullis_equation(double P, double rho, double v, double g, double h) {
    return P + 0.5 * rho * v * v + rho * g * h;
}

</syntaxhighlight>

=== Mass Balance Equation (Chemical Engineering) ===
* '''Equation:''' <math>\frac{d}{dt}\left(\rho V\right) = \sum \dot{m}_{\text{in}} - \sum \dot{m}_{\text{out}}</math>
* '''Description:''' This equation represents the conservation of mass for a control volume, accounting for mass flow rates into and out of the system.
* '''Usefulness:''' Use this equation to ensure mass conservation in the design and operation of components like reactors or separators within the Thunderstorm Generator.
<syntaxhighlight lang="c">
// Mass Balance Equation (Chemical Engineering)
double mass_balance(double rho, double V, double sum_dot_m_in, double sum_dot_m_out) {
    return (sum_dot_m_in - sum_dot_m_out) / V;
}

</syntaxhighlight>

=== Conservation of Energy Equation (Fluid Mechanics) ===
* '''Equation:''' <math>\frac{D}{Dt}\left(\frac{1}{2}V^2 + gz + \frac{P}{\rho}\right) = \dot{Q} - \dot{W} + \frac{D}{Dt}\left(\frac{1}{2}V^2 + gz + \frac{P}{\rho}\right)_{\text{viscous}}</math>
* '''Description:''' This equation states the conservation of total energy for a fluid particle in a flow field, considering heat transfer, work done, and viscous effects.
* '''Usefulness:''' Apply this equation to analyze energy changes in fluid flow processes within the Thunderstorm Generator, accounting for heat transfer and work done by the fluid.
<syntaxhighlight lang="c">
// Conservation of Energy Equation (Fluid Mechanics)
double energy_conservation(double Q_dot, double W_dot, double viscous_term) {
    return Q_dot - W_dot + viscous_term;
}

</syntaxhighlight>

=== Navier-Stokes Equation (Fluid Mechanics) ===
* '''Equation:''' <math>\rho\left(\frac{\partial \mathbf{v}}{\partial t} + (\mathbf{v} \cdot \nabla)\mathbf{v}\right) = -\nabla p + \nabla \cdot \mathbf{T} + \rho \mathbf{g}</math>
* '''Description:''' This equation describes the motion of fluid substances, including viscous effects, acceleration, and external forces.
* '''Usefulness:''' Use this equation to model fluid flow phenomena within complex geometries of Thunderstorm Generator components, accounting for both inertial and viscous effects.

=== Maxwell's Equations (Electromagnetism) ===
* '''Equations:'''
** <math>\nabla \cdot \mathbf{E} = \frac{\rho}{\varepsilon_0}</math>
** <math>\nabla \cdot \mathbf{B} = 0</math>
** <math>\nabla \times \mathbf{E} = -\frac{\partial \mathbf{B}}{\partial t}</math>
** <math>\nabla \times \mathbf{B} = \mu_0\mathbf{J} + \mu_0\varepsilon_0\frac{\partial \mathbf{E}}{\partial t}</math>
* '''Description:''' These equations describe how electric and magnetic fields interact with matter and each other.
* '''Usefulness:''' Apply Maxwell's equations to analyze electromagnetic phenomena within the Thunderstorm Generator, such as plasma generation and control using magnetic fields.

=== Schrödinger Equation (Quantum Mechanics) ===
* '''Equation:''' <math>i\hbar \frac{\partial}{\partial t} \Psi(\mathbf{r},t) = \hat{H}\Psi(\mathbf{r},t)</math>
* '''Description:''' This equation governs the behavior of quantum mechanical systems, describing how the wavefunction of a physical system evolves over time.
* '''Usefulness:''' While primarily applicable at the atomic and subatomic levels, understanding the principles of quantum mechanics can inform the design and operation of nanoscale components within the Thunderstorm Generator.

=== Continuity Equation (Fluid Mechanics) ===
* '''Equation:''' <math>\frac{\partial \rho}{\partial t} + \nabla \cdot (\rho \mathbf{v}) = 0</math>
* '''Description:''' This equation expresses the conservation of mass for a fluid, stating that the rate of change of mass within a control volume is equal to the net flow of mass into or out of the volume.
* '''Usefulness:''' Apply this equation to ensure mass conservation in fluid flow processes within the Thunderstorm Generator, such as incompressible flow through conduits or channels.

=== Wave Equation (Physics) ===
* '''Equation:''' <math>\frac{\partial^2 u}{\partial t^2} = c^2 \nabla^2 u</math>
* '''Description:''' This equation describes the propagation of waves, including sound waves, electromagnetic waves, and mechanical waves.
* '''Usefulness:''' Use this equation to analyze wave phenomena within the Thunderstorm Generator, such as acoustic vibrations or electromagnetic radiation.

=== Ideal Reactor Equation (Chemical Engineering) ===
* '''Equation:''' <math>\frac{dF_A}{dV} = r_AV</math>
* '''Description:''' This equation represents the change in the molar flow rate of a chemical species \(A\) with respect to reactor volume \(V\) in an ideal chemical reactor.
* '''Usefulness:''' Apply this equation to model chemical reactions occurring within reactors or chambers of the Thunderstorm Generator, aiding in reactor design and optimization.

=== Conservation of Momentum Equation (Fluid Mechanics) ===
* '''Equation:''' <math>\rho \frac{D\mathbf{v}}{Dt} = -\nabla p + \mu \nabla^2 \mathbf{v} + \rho \mathbf{g}</math>
* '''Description:''' This equation expresses Newton's second law for fluid flow, accounting for pressure gradients, viscous forces, and gravitational forces.
* '''Usefulness:''' Use this equation to analyze the motion and behavior of fluids within the Thunderstorm Generator, accounting for forces and stresses exerted on the fluid.

=== Boltzmann Transport Equation (Statistical Mechanics) ===
* '''Equation:''' <math>\frac{\partial f}{\partial t} + \mathbf{v} \cdot \nabla f + \mathbf{F} \cdot \nabla_v f = \left(\frac{\partial f}{\partial t}\right)_{\text{coll}}</math>
* '''Description:''' This equation describes the evolution of the distribution function \(f\) of particles in phase space, considering external forces and collisions.
* '''Usefulness:''' While primarily used in semiconductor physics, applying statistical mechanics principles can aid in understanding and optimizing particle transport processes within the Thunderstorm Generator.

=== Diffusion Equation (Chemical Engineering) ===
* '''Equation:''' <math>\frac{\partial C}{\partial t} = D\nabla^2 C</math>
* '''Description:''' This equation describes the diffusion of chemical species in a medium, where \(C\) is concentration and \(D\) is the diffusion coefficient.
* '''Usefulness:''' Apply this equation to analyze the diffusion of reactants or products within the Thunderstorm Generator, aiding in understanding mass transport phenomena.

=== Poisson's Equation (Electromagnetism) ===
* '''Equation:''' <math>\nabla^2 \Phi = -\frac{\rho}{\varepsilon_0}</math>
* '''Description:''' This equation relates the electric potential (\(\Phi\)) to the charge density (\(\rho\)) in electrostatic fields.
* '''Usefulness:''' Use Poisson's equation to model electrostatic phenomena within the Thunderstorm Generator, such as electric field generation and control.

=== Laplace's Equation (Physics) ===
* '''Equation:''' <math>\nabla^2 \Phi = 0</math>
* '''Description:''' Laplace's equation describes scalar fields where there are no sources or sinks.
* '''Usefulness:''' Apply this equation to analyze steady-state electrostatic or gravitational fields within the Thunderstorm Generator, aiding in field distribution optimization.

=== Newton's Law of Universal Gravitation (Physics) ===
* '''Equation:''' <math>F = G\frac{m_1m_2}{r^2}</math>
* '''Description:''' This equation describes the gravitational force between two objects with masses \(m_1\) and \(m_2\), separated by a distance \(r\).
* '''Usefulness:''' While primarily applicable to celestial mechanics, understanding gravitational forces can be useful in certain Thunderstorm Generator designs involving large masses or gravitational effects.
<syntaxhighlight lang="c">
// Newton's Law of Universal Gravitation (Physics)
double newtons_law_of_gravitation(double G, double m1, double m2, double r) {
    return G * m1 * m2 / (r * r);
}

</syntaxhighlight>

=== Fourier Transform (Mathematics) ===
* '''Equation:''' <math>\hat{f}(\xi) = \int_{-\infty}^{\infty} f(x)e^{-2\pi i \xi x} \, dx</math>
* '''Description:''' The Fourier transform decomposes a function of time (or space) into its constituent frequencies.
* '''Usefulness:''' Apply the Fourier transform to analyze the frequency components of signals or phenomena within the Thunderstorm Generator, aiding in signal processing or spectral analysis.

=== Laplace Transform (Mathematics) ===
* '''Equation:''' <math>\mathcal{L}\{f(t)\} = \int_0^\infty e^{-st} f(t) \, dt</math>
* '''Description:''' The Laplace transform converts a function of time into a function of a complex variable \(s\), often used to solve differential equations.
* '''Usefulness:''' Use the Laplace transform to analyze dynamic responses or transient behavior within the Thunderstorm Generator, aiding in system dynamics and control.

=== Conservation of Charge (Electromagnetism) ===
* '''Equation:''' <math>\nabla \cdot \mathbf{E} = \frac{\rho}{\varepsilon_0}</math>
* '''Description:''' This equation expresses Gauss's law, stating that the electric flux out of any closed surface is proportional to the total electric charge enclosed by the surface.
* '''Usefulness:''' Apply this equation to ensure charge conservation and analyze electric field distributions within Thunderstorm Generator components.

=== Gas Law (Thermodynamics) ===
* '''Equation:''' <math>PV = nRT</math>
* '''Description:''' The ideal gas law relates the pressure (\(P\)), volume (\(V\)), amount of substance (\(n\)), and temperature (\(T\)) of a gas.
* '''Usefulness:''' Use this equation to analyze the behavior of gases within the Thunderstorm Generator, aiding in the design and optimization of gas-handling systems.

=== Conservation of Momentum (Physics) ===
* '''Equation:''' <math>F = \frac{dp}{dt}</math>
* '''Description:''' This equation expresses Newton's second law of motion, stating that the net force acting on an object is equal to the rate of change of its momentum.
* '''Usefulness:''' Apply this equation to analyze momentum transfer and fluid dynamics within the Thunderstorm Generator, aiding in the design of propulsion or fluid handling systems.

=== Euler's Equation (Fluid Mechanics) ===
* '''Equation:''' <math>\frac{\partial \mathbf{v}}{\partial t} + (\mathbf{v} \cdot \nabla)\mathbf{v} = -\frac{\nabla p}{\rho} + \mathbf{g}</math>
* '''Description:''' Euler's equation describes the motion of an inviscid fluid, relating acceleration to pressure gradients and gravitational forces.
* '''Usefulness:''' Use this equation to analyze fluid flow behavior within the Thunderstorm Generator, particularly in regions with high velocities or accelerations.

=== Reynolds Transport Theorem (Fluid Mechanics) ===
* '''Equation:''' <math>\frac{D}{Dt}\int_{\Omega(t)} \phi \, dV = \int_{\Omega(t)} \frac{\partial \phi}{\partial t} \, dV + \int_{\partial \Omega(t)} \phi (\mathbf{v} \cdot \mathbf{n}) \, dA</math>
* '''Description:''' This theorem relates the change in an extensive property within a control volume to its rate of change and the flux of the property across the control volume boundary.
* '''Usefulness:''' Apply this theorem to analyze the transport of mass, momentum, or energy within the Thunderstorm Generator, aiding in the formulation of conservation laws and fluid flow models.

=== Maxwell-Boltzmann Distribution (Statistical Mechanics) ===
* '''Equation:''' <math>f(v) = 4\pi \left(\frac{m}{2\pi kT}\right)^{\frac{3}{2}} v^2 e^{-\frac{mv^2}{2kT}}</math>
* '''Description:''' This distribution describes the statistical distribution of speeds for particles in a gas at equilibrium.
* '''Usefulness:''' Apply the Maxwell-Boltzmann distribution to analyze the distribution of particle velocities within gas-filled regions of the Thunderstorm Generator, aiding in understanding gas behavior and collision frequencies.

=== Kirchhoff's Law (Electrical Engineering) ===
* '''Equation:''' <math>\sum V_i = \sum I_j R_j</math>
* '''Description:''' Kirchhoff's voltage law states that the sum of the voltages around any closed loop in a circuit is equal to the sum of the products of the currents and resistances in that loop.
* '''Usefulness:''' Apply Kirchhoff's law to analyze electrical circuits and systems within the Thunderstorm Generator, aiding in circuit design and troubleshooting.

=== Coulomb's Law (Electromagnetism) ===
* '''Equation:''' <math>F = \frac{k|q_1q_2|}{r^2}</math>
* '''Description:''' Coulomb's law describes the electrostatic force between two charged particles, where \(k\) is Coulomb's constant, \(q_1\) and \(q_2\) are the magnitudes of the charges, and \(r\) is the distance between them.
* '''Usefulness:''' Apply Coulomb's law to analyze electrostatic interactions within the Thunderstorm Generator, aiding in the design and control of electric fields and plasma confinement.

=== Conservation of Energy (Physics) ===
* '''Equation:''' <math>\Delta U = Q - W</math>
* '''Description:''' This equation expresses the first law of thermodynamics, stating that the change in internal energy of a system is equal to the heat added to the system minus the work done by the system.
* '''Usefulness:''' Apply this equation to analyze energy transfers and conversions within the Thunderstorm Generator

=== Programming Tips for these Equations: ===

# '''Partial Differential Equations (PDEs) and Integral Transforms''':
#* Example:
#** <math>\frac{dy}{dx} = -2y
</math>
#* These equations involve derivatives with respect to multiple independent variables (such as time and space) and may require integration over regions or domains.
#* Writing direct functions for these equations is not feasible because they often require solving complex differential equations.
#* Instead, numerical methods such as finite difference, finite element, or spectral methods are used to approximate solutions.
#* For integral transforms like Fourier or Laplace transforms, libraries or built-in functions in programming languages can be used.
#* For these equations, we typically rely on specialized software libraries or tools for numerical simulation. Here's an example of using a hypothetical library <code>libphysics</code> to solve Maxwell's equations:<syntaxhighlight lang="c">
#include <stdio.h>
#include <math.h>

// Function to solve the differential equation dy/dx = -2y
double solve_differential_equation(double x, double y) {
    return -2 * y; // Example differential equation
}

int main() {
    double x0 = 0.0; // Initial x value
    double y0 = 1.0; // Initial y value
    double h = 0.1;  // Step size

    // Using Euler's method for numerical integration
    for (double x = x0; x <= 1.0; x += h) {
        y0 += h * solve_differential_equation(x, y0);
    }

    printf("Approximate solution at x=1: %f\n", y0);

    return 0;
}

</syntaxhighlight>
# '''Partial Differential Equations (PDEs) like Navier-Stokes, Schrödinger, Wave Equations''':
#* Example:
#** <math>\frac{\partial T}{\partial t} = \alpha \frac{\partial^2 T}{\partial x^2}
</math>
#* Equations such as the Navier-Stokes equation for fluid dynamics, the Schrödinger equation for quantum mechanics, and the wave equation for wave propagation are fundamental in physics.
#* They describe complex phenomena and cannot be directly solved with simple functions.
#* Solving these equations often requires advanced mathematical techniques or numerical methods like finite difference, finite element, or spectral methods.
#* Implementations involve discretizing the equations in space and time and solving them iteratively.<syntaxhighlight lang="c">
#include <stdio.h>

#define NX 100 // Number of grid points
#define NT 100 // Number of time steps
#define DX 0.1 // Grid spacing
#define DT 0.01 // Time step

// Function to initialize the temperature profile
void initialize_temperature(double temperature[]) {
    for (int i = 0; i < NX; i++) {
        temperature[i] = 0.0; // Initial temperature
    }
}

// Function to solve the heat equation using finite difference method
void solve_heat_equation(double temperature[]) {
    double new_temperature[NX];
    for (int t = 0; t < NT; t++) {
        for (int i = 1; i < NX - 1; i++) {
            new_temperature[i] = temperature[i] + DT * (temperature[i + 1] - 2 * temperature[i] + temperature[i - 1]) / (DX * DX);
        }
        for (int i = 1; i < NX - 1; i++) {
            temperature[i] = new_temperature[i];
        }
    }
}

int main() {
    double temperature[NX];

    // Initialize temperature profile
    initialize_temperature(temperature);

    // Solve the heat equation
    solve_heat_equation(temperature);

    // Output the results
    for (int i = 0; i < NX; i++) {
        printf("Temperature at position %d: %f\n", i, temperature[i]);
    }

    return 0;
}

</syntaxhighlight>
# '''Equations like Maxwell's Equations, Boltzmann Transport Equation''':
#* Example:
#** <math>\nabla \cdot \mathbf{E} = \frac{\rho}{\varepsilon_0}
</math>
#* These equations are sets of differential equations that describe fundamental physical principles.
#* They involve multiple variables and interactions and cannot be directly represented as simple functions.
#* Analyzing these equations typically involves numerical methods, simulations, or specific models tailored to the problem at hand.
#* Software packages or libraries dedicated to computational physics or engineering may provide tools for solving these equations.<syntaxhighlight lang="c">
#include <stdio.h>
#include "libphysics.h" // Hypothetical library for physics simulations

int main() {
    // Define parameters
    double rho = 1.0; // Charge density
    double epsilon_0 = 8.854e-12; // Permittivity of free space

    // Solve Maxwell's equations
    double electric_field = solve_maxwells_equations(rho, epsilon_0);

    // Output the result
    printf("Electric field: %f\n", electric_field);

    return 0;
}

</syntaxhighlight>

In practice, specialized software packages like COMSOL, ANSYS, or custom-built simulation tools are often used for solving complex physical equations numerically.