The gain of an inverting op-amp is given by -Rf/Rin, which in this case is -10.

In a basic inverting op-amp configuration, the output voltage is the negative of the input voltage (Vout = -Vin).

In a basic summing amplifier configuration, the output voltage depends on the sum of the input voltages.

In a differential amplifier configuration, the output voltage is proportional to the difference between two input voltages.

In a non-inverting op-amp configuration, the output voltage is given by Vout = Vin * (1 + Rf/Rin).

In a non-inverting configuration, the output voltage is given by Vout = Vin * (1 + Rf/Rin).

In a summing amplifier with equal resistors, the output voltage is the average of the inputs, which is 2.5V.

The small-signal model is used to simplify circuit analysis for small variations around a bias point.

Increasing the feedback resistor (Rf) in a non-inverting op-amp configuration increases the gain.

Increasing Rf in a non-inverting op-amp configuration increases the output voltage.

In an inverting op-amp configuration, if Rf is twice Rin, the output will be -2V for an input of 1V.

The output voltage of a non-inverting op-amp with a gain of 10 and an input voltage of 1V is 10V.

The primary role of a diode in a rectifier circuit is to allow current to flow in one direction.

Feedback is used in op-amp circuits to stabilize the output and control the gain.

An ideal op-amp has infinite input impedance, which prevents loading the input signal.

An ideal op-amp has an open-loop gain that approaches infinity.

A resistor is commonly used to set the gain in a non-inverting op-amp configuration.

A voltage follower is achieved using a non-inverting configuration of an op-amp.

The voltage follower configuration provides the highest input impedance.

Op-amps are commonly used in voltage regulation applications.