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First-Order Circuits01:15

First-Order Circuits

2.9K
First-order electrical circuits, which comprise resistors and a single energy storage element - either a capacitor or an inductor, are fundamental to many electronic systems. These circuits are governed by a first-order differential equation that describes the relationship between input and output signals.
One common example of a first-order circuit is the RC (resistor-capacitor) circuit. These circuits are used in relaxation oscillators such as neon lamp oscillator circuits. When voltage is...
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Applications of RC Circuits01:22

Applications of RC Circuits

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A relaxation oscillator is one of the applications of RC circuits. A neon lamp relaxation oscillator comprises a capacitor, a resistor, a voltage source, and a lamp. The lamp acts like an open circuit, with infinite resistance until the potential difference across the lamp reaches a specific voltage. At that voltage, the lamp acts like a short circuit with zero resistance, and the capacitor discharges through the lamp, thus producing light. Once the capacitor is fully discharged through the...
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Circuit Terminology01:14

Circuit Terminology

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An electrical network is a system composed of interconnected elements, such as resistors, capacitors, inductors, and voltage or current sources. Unlike a circuit, an electrical network does not necessarily form a closed path. In other words, while all circuits can be considered networks due to their interconnected nature, not every network qualifies as a circuit.
A circuit, on the other hand, is also an interconnected system of electrical elements but must contain one or more closed paths.
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Current Growth And Decay In RL Circuits01:30

Current Growth And Decay In RL Circuits

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The current growth and decay in RL circuits can be understood by considering a series RL circuit consisting of a resistor, an inductor, a constant source of emf, and two switches. When the first switch is closed, the circuit is equivalent to a single-loop circuit consisting of a resistor and an inductor connected to a source of emf. In this case, the source of emf produces a current in the circuit. If there were no self-inductance in the circuit, the current would rise immediately to a steady...
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Neural Circuits01:25

Neural Circuits

2.1K
Neural circuits and neuronal pools are two of the main structures found in the nervous system. Neural circuits are networks of neurons that work together to carry out a specific task or process. They consist of interconnected neurons and glial cells, which provide structural and metabolic support.
Neuronal pools are collections of nerve cells with similar functions and interact through chemical and electrical signals. These pools include both interneurons (the central neural circuit nodes that...
2.1K
Parallel RLC Circuits01:14

Parallel RLC Circuits

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Street lamps equipped with RLC surge protectors are an excellent example of applying circuit analysis in practical scenarios. These surge protectors safeguard the lamp's components against sudden voltage spikes.
A simplified parallel RLC circuit model with a DC input source generating a step response is employed in this context. When the switch is turned on, Kirchhoff's current law is applied, leading to a second-order differential equation.
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Related Experiment Video

Updated: Nov 10, 2025

High-precision Electromagnetic Flowmeter with Empty Pipe Detection via Complex Programmable Logic Device-based Waveform Recognition
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Electrical circuits involving fractal time.

Alireza Khalili Golmankhaneh1, Karmina Kamal Ali2, Resat Yilmazer3

  • 1Department of Physics, Urmia Branch, Islamic Azad. University, Urmia 63896, Iran.

Chaos (Woodbury, N.Y.)
|April 3, 2021
PubMed
Summary

This study introduces fractal calculus, a new mathematical model, to explore how fractal time affects physical systems like electrical circuits. The research demonstrates that altering fractal time dimensions changes fractal derivative orders, leading to distinct analytical solutions.

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Area of Science:

  • Mathematics
  • Applied Physics
  • Electrical Engineering

Background:

  • Traditional calculus assumes smooth, continuous time, which may not fully capture complex physical phenomena.
  • Fractal calculus offers a novel framework to model systems with non-smooth or irregular temporal dynamics.
  • Understanding the influence of fractal time on physical systems is crucial for advancing scientific modeling.

Purpose of the Study:

  • To develop and define improper fractal integrals and establish their convergence and divergence criteria.
  • To investigate the impact of fractal time on the evolution of physical systems, specifically electrical circuits.
  • To derive analytical solutions for fractal differential equations using fractal calculus and compare them with standard solutions.

Main Methods:

  • Definition of improper fractal integrals and their convergence/divergence tests.
  • Application of fractal calculus to model electrical circuits with fractal time.
  • Utilizing the local fractal Laplace transformation to obtain analytical solutions.
  • Comparative analysis between fractal solutions and standard calculus solutions for electrical circuits.

Main Results:

  • Established conditions for convergence and divergence of improper fractal integrals.
  • Demonstrated that changing the fractal time dimension alters the fractal derivative order and system solutions.
  • Obtained analytical solutions for electrical circuits using fractal calculus, some of which are non-differentiable in ordinary calculus.
  • Confirmed that fractal calculus yields results consistent with standard calculus when the fractal dimension parameter (α) equals 1.

Conclusions:

  • Fractal calculus provides a powerful new mathematical tool for analyzing physical systems with fractal time.
  • The study successfully derived and validated analytical solutions for fractal differential equations in electrical circuits.
  • Fractal calculus offers a generalized framework that encompasses standard calculus as a special case (α=1).