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oddo said:Find all Collector currents
I don't even know where to start, I added base resistors but am still getting stuck how can I find current in the first transistor?
oddo said:It doesn't state how it is biased, which is why I added those base resistors. all I am given is Betas are 100 and Vbe is 0.7V. Connected to +-10V. It says that it is a LH 0005 National Semiconductor
oddo said:Q1 has no resistors so how can I find current at its base collector or emitter?
berkeman said:Expand what you are looking at. How many transistors are in the input stage?
oddo said:I really have no idea how to start this. All it says is find all the collector currents. This is my first course in opamps and I'm blown away. Thanks for your help sir.
oddo said:I think there's four. So do I calculate the impedance of them?
I don't know why it doesn't show vin, how can I figure out the base current without voltage or resistors to put into the fundamental equation to solve for Ic.
An op-amp current analysis is a method of analyzing the flow of current in an operational amplifier (op-amp). This is done by using Kirchhoff's current law to determine the currents flowing into and out of the op-amp.
Op-amp current analysis is important because it allows for the understanding and prediction of the behavior of an op-amp circuit. This is crucial in designing and troubleshooting electronic circuits that use op-amps.
The key components of an op-amp current analysis include the op-amp itself, the external resistors and capacitors in the circuit, and the power supply. These components are used to calculate the currents flowing in and out of the op-amp.
To perform an op-amp current analysis, you will need to use Kirchhoff's current law to write equations for the currents flowing into and out of the op-amp. These equations can then be solved using algebra and circuit analysis techniques to determine the currents and voltages in the circuit.
Op-amp current analysis is commonly used in designing and analyzing electronic circuits such as amplifiers, filters, and signal processing circuits. It is also used in troubleshooting faulty circuits and optimizing circuit performance.