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Experimental Training Equipments-> Transistor Amplifier Circuits
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TRANSISTOR AMPLIFIER CIRCUITS (Common base common emitter & emitter follower types)
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TRANSISTOR AMPLIFIER CIRCUITS (Common base common emitter & emitter follower types)

Objectives of this experiment:
To demonstrate the operation and important characteristics of
1. The common-emitter amplifier.
2. The common -base amplifier.
3. The common collector amplifier configuration and their voltage gains before they are saturated. The common collector has a gain of less than one. The common -base amplifier has a gain of more than 150.

Built in regulated power supply: + 15V/300mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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THERMAL STABILITY OF TRANSISTORS (CONSIDERATIONS OF BIASING METHODS) Objectives of this experiment:-
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THERMAL STABILITY OF TRANSISTORS (CONSIDERATIONS OF BIASING METHODS) Objectives of this experiment:-

To construct basic amplifier, which uses base bias, voltage divider bias, emitter feed back and collector feed back and observe the relative thermal stability of each. You will apply heat to each circuit arrangement & observe the output voltage variations to determine which circuit provides the best thermal stability.

Built in regulated power supply +15V/300mA.
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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TRANSISTOR DC - AMPLIFIER

Objectives of this experiment:
1. To determine how the input resistance of an amplifier is affected by the Beta of the transistor and the value of the emitter resistor.
2. To demonstrate how Beta can be increased with the Darlington circuit.
Built in regulated power supply: +15V/300mA.
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms

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TRANSISTOR PUSH-PULL AMPLIFIER

Objectives of this experiment:
To construct a complementary transistor power amplifier.

To measure two different types of distortion (cross-over distortion & distortion due to nonlinearly) by observing it on an oscilloscope, or hearing from a loud speaker. On a CRO, you can observe the different output waveforms produced, while the circuit bias is changed and while the input signal level is changed. You can also hear two different types of distortion from a loudspeaker.

Built in regulated power supply: +15V/300 mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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DIFFERENTIAL AMPLIFIER

Objectives of this experiment:

To Construct Differential Amplifier using op-amp and verify that the output of the amplifier is proportional to the difference between the two Input signals.

Built in regulated power supply: + 15V/150mA, -15V/150mA.
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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FET AMPLIFIER (Common drain & Common source type)

Objectives of this experiment:
1. To construct the common source amplifier and determine the gain of the amplifier (VDS/VGS).
2. To construct the common drain amplifier (voltage follower) & to determine the unity gain.

Built in regulated power supply: +15V/150mA.
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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TUNED RF AMPLIFIER

Objectives of this experiment:
1. To demonstrate the operation of Tuned RF Amplifier.
2. To calculate the resonant frequency (at which there is minimum amplitude at the output. Horizontal oscillations (to deflection yoke) results to a given Input signal by parallel combination of R & C (or) L & C at the collector.
3. The resonant frequency is calculated by theoretical formula and verified by this experiment.
4. To plot the curve voltage gain versus frequency.

Built in regulated power supply: + 15V/300mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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TRANSFORMER COUPLED AMPLIFIER CHARACTERISTICS & STUDY OF FREQUENCY RESPONSE

Objectives of this experiment:

To construct a transformer coupled amplifier. Two amplifiers are cascaded through a transformer to match the output impedance of the first stage to the input impedance of the next stage and output amplification is verified.

Built in regulated power supply: +15V/300mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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VOLTAGE AND CURRENT FEEDBACK AMPLIFIER

Objectives of this experiment:

In this experiment you will study the i. Voltage feedback amplifier. ii. current feedback amplifier. In case of voltage feedback the signal feedback is proportional to the output voltage, whatever may be the load impedance.
For voltage amplifier Voltage gain = VOUT / VIN = Rf / Ri

For current amplifier, voltage gain =V0 / Vi = RL / Rf

Built in regulated power supply: +15V/500mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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R-C COUPLED TWO-STAGE TRANSISTOR AMPLIFIER AND STUDY OF FREQUENCY RESPONSE

Objectives of this experiment:
In this experiment output capacitor of first transistor couples the input signal to the base of Q2.
1. To calculate input and output impedance. To calculate the individual gain of each amplifier gain V0/Vi.
2. And to calculate the overall gain of the amplifier circuit and frequency response.

Built in regulated power supply: + 15V/300mA
Input Supply: 230 VAC/50Hz mains operated.
Dimension: 27cms x 17cms x 10cms.
Weight: 500gms


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