All Public Circuits

Now showing circuits 21241-21260 of 53880. Sort by recently modified name

	KCL Two Node Example PUBLIC A circuit with 3 components and 2 nodes is used to illustrate Kirchhoff's Current Law (KCL). by UltimateElectronics | updated December 23, 2020
	KCL Five Node Example PUBLIC A circuit with 7 components and 5 nodes is used to illustrate Kirchhoff's Current Law. by UltimateElectronics | updated December 23, 2020
	KCL Three Node Example PUBLIC A simple circuit with four components and three nodes, with all currents labeled, is used to illustrate Kirchhoff's Current Law (KCL). by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp as VCVS PUBLIC The ideal op-amp works like a Voltage Controlled Voltage Source (VCVS), where the output voltage is equal to the difference in input voltages multiplied by a large open-loop gain. by UltimateElectronics | updated December 23, 2020
	DC Sweep of First-Order Non-Ideal Current Source PUBLIC This simulation shows how a finite (not infinite) parallel internal resistance makes a current source behave in a non-ideal way. by UltimateElectronics | updated December 23, 2020
	First-Order Non-Ideal Current Source PUBLIC A non-ideal current source has an finite internal resistance in parallel with the current source. by UltimateElectronics | updated December 23, 2020
	DC Sweep of First-Order Non-Ideal Voltage Source PUBLIC This simulation shows a how a nonzero internal resistance makes a voltage source be non-ideal. by UltimateElectronics | updated December 23, 2020
	First-Order Non-Ideal Voltage Source PUBLIC A non-ideal voltage source has a nonzero internal resistance. by UltimateElectronics | updated December 23, 2020
	Ideal Current Source DC Sweep PUBLIC An ideal current source does not change in current as its terminal voltage difference is changed. by UltimateElectronics | updated December 23, 2020
	Ideal Voltage Source DC Sweep PUBLIC An ideal voltage source does not change voltage under a variable current load. by UltimateElectronics | updated December 23, 2020
	Ideal Voltage and Current Source Symbols PUBLIC The schematic symbols for the ideal voltage source and ideal current source are shown and labeled. by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp with Finite Gain and Gain-Bandwidth Product: Laplace Block Model PUBLIC The frequency response of a real op-amp is well modeled with two parameters: an open-loop DC gain, and a gain-bandwidth product. These two parameters can be modeled in a single Laplace Block. by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp with Finite Gain: Laplace Block Model PUBLIC An ideal op-amp with finite gain can be modeled using a Laplace Block to represent the open-loop gain. by UltimateElectronics | updated December 23, 2020
	Op-Amp with Voltage Rails as Analog Comparator PUBLIC The op-amp with voltage rails can be used as an analog voltage comparator by connecting the two voltages to be compared to the op-amp's two inputs. by UltimateElectronics | updated December 23, 2020
	Op-Amp With and Without Voltage Rails DC Sweep Comparison PUBLIC This simulation compares the open-loop DC Sweep behavior of an op-amp with and without voltage rails. by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp with Voltage Rails Symbol PUBLIC Op-amps have positive and negative voltage rails which limit the ability of the output to swing too high or too low. This can result in clipping. by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp Subtraction and Multiplication PUBLIC The ideal op-amp essentially produces its output voltage by subtracting the voltage difference between its inputs, and multiplying this difference by a large open-loop gain. by UltimateElectronics | updated December 23, 2020
	Ideal Op-Amp Symbol PUBLIC The ideal op-amp has three terminals: non-inverting (+) input, inverting (-) input, and output. by UltimateElectronics | updated December 23, 2020
	Signal, Earth, Chassis Ground PUBLIC Signal ground, earth ground, and chassis ground are the three most common types of grounding connections you'll see on a schematic. by UltimateElectronics | updated December 23, 2020
	Parallel Plate Capacitor with Interstital Plate PUBLIC When a third plate is inserted between the two plates of a parallel plate capacitor, charges separate in the third plate to cancel the field within itself, and consequently the electric field gets... by UltimateElectronics | updated December 23, 2020

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555   7805   ac-to-dc   active-filter   amplifier   analog   and   anode   attenuator   atx   audio   automotive   band-reject   bandgap   behavioral   bias-point   bjt   bode   bridge-rectifier   button   calculator   cascaded-filters   cascode   cathode   cmos   colpitts   compensation   constant-current-source   current-limiting   current-mirror   current-monitor   current-regulator   dac   dc-to-ac   device-modeling   differential   differentiator   digital   diode   divider   emitter-follower   feedback   filter   flyback   flyback-diode   frequency-domain   full-wave   guitar   ham-radio   high-pass   high-speed   high-voltage   hv   hysteresis   ic   ignition-coil   induction   inductive   inductive-load   initial-conditions   instrumentation-amplifier   integrator   inverting   jfet   laplace   led   led-array   level-shift   lighting   lipo   lm317   load-cell   logic-gate   low-pass   mechanical   microcontroller   microphone   mosfet   motor   multivibrator   non-inverting   nonlinear   nor   notch   ohms-law   op-amp   optical   or   oscillator   parallel   passive   passive-filter   pcb-design   phase-shift   photodiode   photoresistor   phototransistor   piezo   plants   potentiometer   power   power-supply   power-supply-unit   preamp   pull-down   pull-up   pwm   rc   relaxation-oscillator   relay   resistor-ladder   resonance   rf   rlc   rom   saturation   schmitt-trigger   sensor   series   servo-motor   signal   spark-plug   stability   stepper   summing   superposition   switching   time-constant   transformer   transistor   translinear   twin-t   voltage-divider   voltage-regulator   waveform-arithmetic   wiring   xnor   xor   zener-diode   zero-voltage-switching  

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