STATIC CHARACTERISTICS OF TRANSISTOR

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STAT CHARACTERISTS OF TRANSISTOR OBJECTIVE The purpose of the experiment is to study the characteristics of bipolar transistor in common emitter (CE) configuration. From the characteristic curve it is expected to determine the hybrid parameters: input impedance h ie, output admittance h oe, forward current gain h fe, reverse voltage gain h re and to draw the hybrid equivalent model. EQUIPMENT AND COMPONENTS USED BC107 Bipolar junction transistor (0-30V) Dual Regulated Power Supply 330Ω, 1kΩ resistor, ½ W (0-30)mA,(0-500)μA DC Ammeters (0-30)V, (0-1)V DC Voltmeters Breadboard THEORY Emitter is common or reference to both the input and output terminals. The base emitter circuit is the input network and the collector emitter circuit is the output network. The input and output characteristics describe the behavior of common emitter configuration. Input characteristics The plot between base current IB and base emitter voltage VBE at constant collector-emitter voltage VCE represents input characteristics. Input characteristics resembles that of a forward-biased diode, as the base-emitter section of transistor is a diode. Output characteristics The plot between collector current and collector emitter voltage VCE at constant base current IB represents output characteristics. In the cutoff region, a small amount of collector current flows even when base current is zero. When VCE has very low value, the transistor is said to be saturated. In active region, for small values of base current, the effect of collector voltage on collector current is small. The function of Zener diode is to keep the output voltage fairly constant over a wide variation of load current. Current transfer characteristics The current transfer characteristics shows the variation of collector current I C with base current I B keeping collector emitter voltage V CE as constant. The ratio is referred to as common-emitter current gain β and is always greater than 1. 39

Hybrid Parameters The quantities hie, hre, hoe, hfe are called hybrid parameters and are the components of a small signal equivalent circuit. The h-parameters for small signal transistor equivalent circuit in the region of operation for common-emitter configuration can be found using the following equation. hie = ΔVbe /Δ ib at VCE is Constant hre =Δ Vbe /Δ Vce at IB is Constant hfe = Δ ic /Δ ib at VCE is Constant hoe =Δ ic /Δ Vce at IB is Constant FURTHER READING 1. Theodore F.Bogart, Jeffrey S.Beasley, Electron Devices and Circuits, PHI 2. Robert Diffenderfer, Electronic Devices, Delmar Cengage Learning, 2005 3. Robert Boylstad, Louis Nashelsky, Electronic Devices and Circuit Theory, PHI, 2008 CIRCUIT DIAGRAM PIN CONFIGURATION 40

Model Graph (a) Input characteristics (b) Output characteristics (c) Transfer characteristics PRELAB 1. Read the specifications of BC107 transistor from its datasheet. Device Part Number: BC107 Device Manufacturer: Maximum Collector to emitter voltage, V CEO = Maximum Emitter-base voltage, VEBO = Maximum Collector current, I C = Collector-Cut off Current, I CBO = DC current gain, hfe = Base Emitter Saturation Voltage, V BE(Sat) = Collector Emitter Saturation Voltage, V CE(sat) = Base Emitter On Voltage, V BE(ON) = Input impedance, hie = Reverse Voltage ratio, hre = Output admittance, hoe = Total power dissipation, Ptot = 41

Exp. No. : OBJECTIVE STAT CHARACTERISTS OF TRANSISTOR Date: OBSERVATION Circuit Diagram Practice Procedure Input Characteristics 1. Keeping the output voltage constant (VCE = constant), vary the input voltage and note down the corresponding VBE voltage and IB current. 2. Repeat the above step for different values of VCE. 3. Plot the graph: IB against VBE for different values of VCE. 4. From the plot, find the h-parameters: i) hfe: forward current gain ii) hie: input impedance Output Characteristics 1. Keeping the input current (IB) constant (IB = constant), vary the output voltage (VCE) and note down the corresponding collector () current. 2. Repeat the above step for different values of IB current. 3. Plot the graph: against VCE for different values of IB. 4. From the plot, find the h-parameters: i) hoe: output admittance ii) hre: reverse voltage gain Current Transfer Characteristics 1. Keeping the output voltage constant (VCE = constant), vary the input voltage and note down the IB current and corresponding current. 2. Plot the graph: against IB for constant VCE. 42

Table1: Input Characteristics VBE VCE = 0 V VCE = V IB (μa) VBE IB (μa) Table2: Output Characteristics IB= μa IB= μa IB= μa VCE VCE VCE Table3: Transfer Characteristics VCE = 5 V IB (μa) IB (μa) 43

Inference 44

UNDERSTANDING & LEARNING 45

RESULTS AND CONCLUSION Prepared by: Name: Reg. No.: Experiment Date: ASSESSMENT Report Submission Date: Submission Delay:... Student Task Max. Marks Graded Marks Pre-lab Preparation 20 Inference 10 Signature Results & Conclusion 10 Post-lab / Viva-voce 10 Total 50 46