Explore branching networks, bridges, transistor stages, and feedback loops. Distinct circuit graphs first, then their values, themes, and focus variants. Drawing, not simulation.
Run the gallery and numeric boundary matrix locally. Check determinism, unchanged inputs, connectivity, and focus geometry.
Ready when you are.
Passing does not mean every input renders. An expected rejection is a passing check, not a renderer bug. Cancelled or errored runs cannot export a complete report.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Ideal linear negative feedback only. Virtual ground is not wired to GND; rails, bandwidth and saturation are not simulated.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Ideal linear negative feedback only. Virtual ground is not wired to GND; rails, bandwidth and saturation are not simulated.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Ideal linear negative feedback only. Virtual ground is not wired to GND; rails, bandwidth and saturation are not simulated.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Equal 10 kΩ input/feedback resistors imply ideal gain -1 only in linear negative feedback; virtual ground is not a wire.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Equal 10 kΩ input/feedback resistors imply ideal gain -1 only in linear negative feedback; virtual ground is not a wire.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Equal 10 kΩ input/feedback resistors imply ideal gain -1 only in linear negative feedback; virtual ground is not a wire.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 10 kΩ input and 20 kΩ feedback resistors imply ideal gain -2, without rail saturation or bandwidth simulation.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 10 kΩ input and 20 kΩ feedback resistors imply ideal gain -2, without rail saturation or bandwidth simulation.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 10 kΩ input and 20 kΩ feedback resistors imply ideal gain -2, without rail saturation or bandwidth simulation.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 22 kΩ input and 10 kΩ feedback resistors draw an inverting attenuator with independent positive and negative supply terminals.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 22 kΩ input and 10 kΩ feedback resistors draw an inverting attenuator with independent positive and negative supply terminals.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 22 kΩ input and 10 kΩ feedback resistors draw an inverting attenuator with independent positive and negative supply terminals.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 1 kΩ input and 10 kΩ feedback retain the reference ideal gain -10 while changing impedance, not the node graph.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 1 kΩ input and 10 kΩ feedback retain the reference ideal gain -10 while changing impedance, not the node graph.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. 1 kΩ input and 10 kΩ feedback retain the reference ideal gain -10 while changing impedance, not the node graph.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RIN is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RIN is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RIN is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RF is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RF is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component RF is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component U1 is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component U1 is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Only component U1 is focused; all its catalog pins retain their nets.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The input node connects VIN, RIN.a; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The input node connects VIN, RIN.a; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The input node connects VIN, RIN.a; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The summing node connects RIN.b, RF.a, U1.inverting; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The summing node connects RIN.b, RF.a, U1.inverting; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The summing node connects RIN.b, RF.a, U1.inverting; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The output node connects U1.output, RF.b, VOUT; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The output node connects U1.output, RF.b, VOUT; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The output node connects U1.output, RF.b, VOUT; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The ground node connects U1.noninverting, GND; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The ground node connects U1.noninverting, GND; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The ground node connects U1.noninverting, GND; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The positive_supply node connects U1.vplus, VPLUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The positive_supply node connects U1.vplus, VPLUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The positive_supply node connects U1.vplus, VPLUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The negative_supply node connects U1.vminus, VMINUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The negative_supply node connects U1.vminus, VMINUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. The negative_supply node connects U1.vminus, VMINUS; the other nets remain distinct.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Short author component/port IDs and a slash/tilde net name exercise role resolution and JSON pointer escaping, without changing topology.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Short author component/port IDs and a slash/tilde net name exercise role resolution and JSON pointer escaping, without changing topology.
A five-pin op-amp has input and feedback resistors at the inverting summing node, a grounded noninverting input, output feedback, and two separate supply rails. Short author component/port IDs and a slash/tilde net name exercise role resolution and JSON pointer escaping, without changing topology.