#27 Inductor Ringing. Using A Square Wave To Measure It's Value #inductor #oscilloscope
5:54
#27 Inductor Ringing. Using A Square Wave To Measure It's Value #inductor #oscilloscope
9.1K viewsFeb 26, 2024
YouTubeMore Than Electronics
Voltage source inverter (VSI) fed induction motor drive - Stepped square wave operation
26:46
Voltage source inverter (VSI) fed induction motor drive - Stepped square wave operation
7.7K viewsJan 15, 2021
YouTubeEasy Electrical Engineering
This simulation compares how resistor, inductor, and capacitor currents respond to a square-wave voltage source, clearly showing their fundamental time-domain behavior. For a resistor, current follows Ohm’s law instantly. When the square wave goes high or low, the current changes immediately with the same shape as the voltage. There is no delay, no energy storage, and no transient behavior. This is why resistor current appears as a flat, rectangular waveform. For an inductor, current cannot chan
0:15
This simulation compares how resistor, inductor, and capacitor currents respond to a square-wave voltage source, clearly showing their fundamental time-domain behavior. For a resistor, current follows Ohm’s law instantly. When the square wave goes high or low, the current changes immediately with the same shape as the voltage. There is no delay, no energy storage, and no transient behavior. This is why resistor current appears as a flat, rectangular waveform. For an inductor, current cannot chan
54.6K views6 months ago
FacebookElectronics Education
This simulation demonstrates how current flows through a resistor, inductor, and capacitor when driven by a square-wave voltage source with finite rise and fall times. The resistor current follows the waveform instantly because voltage and current stay in phase in a pure R. The inductor behaves differently: it resists sudden changes in current, so during each transition its current changes only slightly, but once the voltage becomes steady, the inductor current ramps up continuously. This is why
0:15
This simulation demonstrates how current flows through a resistor, inductor, and capacitor when driven by a square-wave voltage source with finite rise and fall times. The resistor current follows the waveform instantly because voltage and current stay in phase in a pure R. The inductor behaves differently: it resists sudden changes in current, so during each transition its current changes only slightly, but once the voltage becomes steady, the inductor current ramps up continuously. This is why
138.4K views7 months ago
FacebookElectronics Education
This simulation compares the voltage waveforms across resistor–resistor (R-R), resistor–inductor (R-L), and resistor–capacitor (R-C) circuits when driven by a square-wave input. In the R-R case, the voltage simply follows the input because resistors do not store energy; the waveform is sharp and identical to the source. In the R-L circuit, the inductor opposes sudden changes in current, producing a smooth rising and falling voltage with spikes when the input switches. This creates the yellow exp
0:16
This simulation compares the voltage waveforms across resistor–resistor (R-R), resistor–inductor (R-L), and resistor–capacitor (R-C) circuits when driven by a square-wave input. In the R-R case, the voltage simply follows the input because resistors do not store energy; the waveform is sharp and identical to the source. In the R-L circuit, the inductor opposes sudden changes in current, producing a smooth rising and falling voltage with spikes when the input switches. This creates the yellow exp
25.5K views8 months ago
FacebookElectronics Education
A square-wave voltage is applied separately to a resistor, inductor, and capacitor to compare how current behaves in each basic element. In the resistor, current instantly follows the voltage shape because resistance does not store energy, so the waveform remains square and in phase with the source. In the inductor, current cannot change suddenly due to stored magnetic energy, so the waveform becomes smooth and ramp-like, showing a delay relative to voltage. In the capacitor, current appears onl
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A square-wave voltage is applied separately to a resistor, inductor, and capacitor to compare how current behaves in each basic element. In the resistor, current instantly follows the voltage shape because resistance does not store energy, so the waveform remains square and in phase with the source. In the inductor, current cannot change suddenly due to stored magnetic energy, so the waveform becomes smooth and ramp-like, showing a delay relative to voltage. In the capacitor, current appears onl
127.7K views5 months ago
FacebookElectronics Education
RF FM Transmit Square Wave Harmonics, Calculate Frequency/Inductance, SDR
8:22
Find in video from 01:02Transmitter Schematic and Inductor Coil
RF FM Transmit Square Wave Harmonics, Calculate Frequency/I…
2.2K viewsMar 24, 2016
YouTubeTyro Mix
31:55
Part 38: how to generate a square-wave signal using digital circuits?
704 views2 months ago
YouTubeComProgExpert
0:12
This simulation compares how current behaves in a resistor, inductor, and capacitor when driven by the same square-wave voltage source. In a resistor, current follows voltage instantly. When the square wave goes high, the current jumps immediately to a fixed value and stays flat. There is no delay, no memory, and no energy storage, which is why the waveform looks like a clean square shape. In the inductor, current cannot change suddenly. When the voltage switches, the inductor resists that chang
45.2K views5 months ago
FacebookElectronics Education
0:15
This simulation demonstrates the conversion of a 1 kHz square wave into a sine-like waveform using a passive LC low-pass filter. The circuit consists of an inductor (50 mH), resistor (150 Ω), and capacitor (1 µF) that together attenuate the high-frequency components of the square wave, allowing only the fundamental frequency to pass. The result is a smooth sinusoidal output across the 10 kΩ load, illustrating the waveform-shaping capability of RLC filters. #ElectronicsEducation #electronicsrd #l
96K viewsJul 15, 2025
FacebookElectronics Education
14:08
Find in video from 08:57Effect of Inductance and Resistance
Curves of growth and decay of current in RL circuit
1.5K viewsApr 12, 2022
YouTubeEverest Physics
0:16
This simulation compares how current behaves through a resistor, capacitor, and inductor when all are driven by the same 1 kHz square-wave source. The resistor current (green) follows the voltage instantly because V and I are always in phase. The capacitor current (yellow) spikes sharply at each transition since current flows only when the voltage changes, showing its differentiation behavior. The inductor current (red) changes smoothly and slowly because inductors resist sudden changes in curre
131K views7 months ago
FacebookElectronics Education
4:05
How To Convert An Inverter With Square Wave To Sine Wave?
26.2K viewsDec 29, 2024
YouTubeDIY made
0:16
Sound of Sinewave VS Square Wave on Induction Motor
10.2K viewsJul 10, 2019
YouTubeAmTeC
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Electromagnetic Induction: Square Loop Across a Magnetic Field
134.2K viewsNov 22, 2017
YouTubePhysics Ninja
18:28
Low Pass Filters and High Pass Filters - RC and RL Circuits
987.6K viewsOct 29, 2019
YouTubeThe Organic Chemistry Tutor
0:16
This simulation illustrates the voltage waveforms across R, L, and C when driven by a square-wave source. Across the resistor (R-R), the voltage directly follows the input, giving the same square shape. Across the inductor (R-L), the voltage appears as sharp spikes at switching points, since the inductor resists sudden current changes. Across the capacitor (R-C), the voltage shows exponential charging and discharging curves, smoothing the square input. This highlights how different circuit eleme
26.3K views11 months ago
FacebookElectronics Education
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