Mean Flux Density of Oscillating Electric Dipole Calculator

This tutorial introduces the concept of Mean Flux Density of an Oscillating Electric Dipole, a fundamental aspect of electromagnetic theory, a discipline of physics. The mean flux density provides a measure of the strength of the electric field radiated by an oscillating electric dipole. Understanding this concept is crucial in several areas of physics and engineering, including antenna theory, wireless communication, and radar system design.

Mean Flux Density of Oscillating Electric Dipole Calculator
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Angle	°
Distance
Oscillation Frequency
Amplitude Of Dipole Moment
Vector From Dipole
Permittivity of Free Space
Speed Of Light	m/s

Mean Flux Density of Oscillating Electric Dipole Calculator Results
Mean Flux Density =

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Example Formula

The formula to calculate the Mean Flux Density of an Oscillating Electric Dipole is:

P_avg = (μ₀ × ω⁴ × p² × sin²θ) / (12π × c³)

Where:

P_avg: Mean Flux Density
μ₀: Permittivity of free space
ω: Angular frequency of oscillation
p: Amplitude of the electric dipole moment
sin²θ: The square of the sine of the angle between the direction of radiation and the dipole moment
c: Speed of light

Who wrote/refined the formula

This formula is a result of the classical theory of electromagnetic radiation, which was substantially developed by James Clerk Maxwell in the 19th century. While there is no single person credited with its derivation, it is based on the principles of electromagnetism established by Maxwell and has been refined by countless physicists and engineers over the years.

Real Life Application

The calculation of the Mean Flux Density of an Oscillating Electric Dipole is extensively used in wireless communication systems. For example, in designing antennas for radio or television broadcasting, engineers need to understand the dipole radiation pattern, which can be determined by the mean flux density.

Key individuals in the discipline

James Clerk Maxwell is a key figure in the field of electromagnetism. His formulation of the classical theory of electromagnetic radiation brought together all previous observations, experiments, and equations of electricity and magnetism into a consistent theory. His set of equations, known as Maxwell's equations, first published between 1861 and 1862, form the foundation of classical electrodynamics, classical optics, and electric circuits, which are still widely used today.

Interesting Facts

The principles of oscillating electric dipoles are widely used in various technologies that have revolutionized human communication, including radio, television, and Wi-Fi.
Maxwell's theory, which includes the concept of oscillating dipoles, was one of the most significant advancements in the 19th-century physics. It led to the understanding of light as an electromagnetic wave, setting the stage for the advent of modern physics.
Technologies based on the principle of oscillating dipoles have been crucial for space exploration, enabling communication between spacecraft and Earth.

Conclusion

Understanding the Mean Flux Density of an Oscillating Electric Dipole is an essential part of the electromagnetic theory. It has played a crucial role in the design of antennas and wireless communication systems. The knowledge of oscillating electric dipoles has led to remarkable advancements in communication technologies and has profound impacts on human life, from daily communication to space exploration.

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