```python
import dd4hep
import argparse

def display_help():
    print("Help information for the simulation")

def main():
    # Set up logger
    logger = dd4hep.DD4hepKernel.getInstance().getPrintLevel()
    
    # Parse command line arguments
    parser = argparse.ArgumentParser()
    parser.add_argument("--input", help="Input file for simulation")
    args = parser.parse_args()
    
    # Set up Geant4 kernel and detector description
    kernel = dd4hep.DD4hepKernel.getInstance()
    detector = dd4hep.Detector.getInstance()
    
    # Configure user interface
    ui = dd4hep.UserInterface.getInstance()
    
    # Load specific geometry
    geometry = dd4hep.GeometryLoader.load(args.input)
    
    # Set up magnetic field tracking
    magnetic_field = dd4hep.MagneticField.getInstance()
    
    # Set up random generator
    random_generator = dd4hep.RandomGenerator.getInstance()
    
    # Set up event actions
    event_actions = dd4hep.EventActions.getInstance()
    
    # Set up I/O
    io = dd4hep.IO.getInstance()
    
    # Set up generator actions
    generator_actions = dd4hep.GeneratorActions.getInstance()
    
    # Handle simulation particles
    simulation_particles = dd4hep.SimulationParticles.getInstance()
    
    # Setup detectors
    detectors = dd4hep.Detectors.getInstance()
    
    # Build physics list
    physics_list = dd4hep.PhysicsList.getInstance()
    
    # Add special particle types
    special_particles = dd4hep.SpecialParticles.getInstance()
    
    # Set global range cut
    global_range_cut = dd4hep.GlobalRangeCut.getInstance()
    
    # Enable visualization
    visualization = dd4hep.Visualization.getInstance()
    
    # Configure, initialize, run, and terminate kernel
    kernel.configure()
    kernel.initialize()
    kernel.run()
    kernel.terminate()

if __name__ == "__main__":
    main()
```