) Below is the small signal model of a multistage amplifier. Using this mo del, write the equationsthat you would need to determine the voltagegain. IMPORTANT: You only need to provide the equationsthat you would need to determinethe voltage gain. You DO NOT need to combine and simplify the equations to determine a final expression for the voltagegain. Vin Vo Vo1 Rb R12 Vbe1 Vbe2 e gm 1 Vbe1 Rc1 gm 2 Vbe2 Rc2 Re
Power Amplifier
The power amplifier is an electronic amplifier designed to maximize the signal strength of a given input. The input signal strength is enhanced to a high enough level to drive output devices such as speakers, headphones, RF (Radio frequency) transmitters, etc. Unlike voltage / current amplifiers, the power amplifier is designed to drive core loads directly and is used as a storage block in the amplifier series.
Maximum Efficiency Criterion
In every field of engineering, there is a tremendous use of the machine and all those machines are equipped for their popular work efficiency so it very much important for operation engineers to monitor the efficiency of the machine, planning engineers to check out the efficiency of the machine before installing the machine and design engineers to design machine for higher efficiency than and then the utility will procure their products that will ultimately lead to profit and loss of the company. It indicates the importance of efficiency right from the initial stage as manufacturing units, intermediate stage as planning coordinators, and end-users stage as a utility.

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