ece 1209 pyq

Related Concepts: ece 1209 pyq 1 | ece 1209 pyq derivations | ece 1209 detailed roadmap

Table 1: BJT DC Biasing and Stability

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
Load Line Analysis	Define load line and explain it’s significance. Explain the effect of changing the circuit elements of a fixed bias common emitter circuit on the transistor operating point.	Descriptive	2023
	What is load line? Explain the effects of changing the levels of base current, collector resistance, and Vcc on the transistor operating point (Q) using the load line analysis.	Descriptive	2017
	What is load line analysis? Explain the switching operation of BJT using load line analysis.	Descriptive	2015
Stability & Thermal Runaway	Define thermal stability in transistor amplifiers. Explain thermal runway and how it can be prevented using bias stabilization techniques.	Descriptive/Definition	2023
	What is meant by thermal runaway? How does thermal runaway change the operating point of an amplifier?	Descriptive/Definition	2022
	Explain the factors that affect the stability of a transistor circuit.	Descriptive	2022
	Explain the factors that affect the stability of a transistor circuit. How does an additional emitter resistance improve the stability? Explain in brief considering the physical happenings.	Descriptive	2021, 2017
	What do you mean by bias stabilization and thermal runway?	Definition	2019, 2015
	How is the operating point of transistor affected by increase of surrounding temperature?	Descriptive	2018
	Write the mathematical expressions of stability factors and hence show that voltage divider bias configuration is the most stable.	Descriptive/Mathematical	2018, 2015
	What is meant by bias stabilization? “The Q-point of a bias circuit become more stable if an emitter resistance is connected” – Justify the statement.	Descriptive/Justification	2016
Biasing Configurations	“Two diodes connected back to back resemble a transistor amplifier”- Explain in brief.	Descriptive	2023
	“Two diodes connected back to back resemble a transistor but it cannot work as a transistor amplifier” – explain.	Descriptive	2021, 2019
	Describe the concept of mid-point biasing.	Descriptive	2021
	What is the necessity of transistor biasing? Design a fixed bias circuit in order to obtain the following load line and Q-point. [Ref Figure 1(a) with $I_{C} = 8 m A$ , $V_{CE} = 24 V$ , $I_{BQ} = 60 μ A$ ]	Descriptive/Design	2018
	What is the necessity of transistor biasing? Design a fixed bias circuit in order to obtain the following load line and Q-point. [Ref Figure 1(a) with $I_{C} = 8 m A$ , $V_{CE} = 20 V$ , $I_{BQ} = 40 μ A$ ]	Descriptive/Design	2016
	What is the condition for approximate analysis of voltage divider bias configuration? Determine the values of $I_{CQ}$ and $V_{CEQ}$ of the following network using approximate analysis. [Ref Figure 1(d)]	Descriptive/Calculation	2018
Design Problems	Determine $R_{C}$ , $R_{E}$ and $R_{B}$ for the emitter bias configuration of shown in figure 2(c).	Calculation	2023
	Given that $I_{CQ} = 2 m A$ and $V_{CEQ} = 10 V$ , determine $R_{1}$ and $R_{C}$ for the network of Fig. 1(d).	Calculation	2022
	Determine the levels of $R_{C}$ , $R_{E}$ , $R_{1}$ and $R_{2}$ for the network of Fig. 1(d) for the operating point indicated. [Ref Figure 1(d) with $I_{C} = 10 m A$ , $V_{CE} = 8 V$ ]	Calculation	2021, 2019
	Design a voltage-divider bias network using a supply of 24V, a transistor with a beta of 110 and operating point of $I_{CQ} = 4 m A$ and $V_{CEQ} = 8 V$ . Choose $V_{E} = 1/8 V_{CC}$ .	Design	2020
	Determine the quiescent levels of $I_{CQ}$ and $V_{CEQ}$ for the following network shown in figure 1(d).	Calculation	2017
	Determine $R_{1}$ and $R_{C}$ for the following voltage divider network with the operating point of $I_{CQ} = 2 m A$ and $(V_{CE})_{Q} = 10 V$ .	Calculation	2016
	Determine the values of $I_{CQ}$ and $V_{CEQ}$ for the voltage divider configuration of Fig. 1(d).	Calculation	2015

Table 2: BJT Small Signal Analysis

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
BJT Modeling Concepts	What is meant by BJT modeling? Write down the procedure of obtaining ac equivalent circuit of a BJT.	Definition/Descriptive	2023, 2022, 2018
	Expound on the differences between small signal analysis and large signal analysis.	Comparison	2023
	What are the differences between small signal analysis and large signal analysis? What are the procedures of obtaining ac equivalent network of BJT circuits?	Comparison/Descriptive	2019, 2016
	What is the necessity of BJT modelling? Write down the advantages and disadvantages of $r_{e}$ model.	Descriptive/Comparison	2017
	What do you mean by BJT modeling? Compare $r_{e}$ model and hybrid model mentioning their advantages and disadvantages.	Comparison	2015
$r_{e}$ Model Analysis	Derive the expression for (i) $Z_{i}$ , (ii) $Z_{o}$ , (iii) $A_{v}$ , and (iv) $A_{i}$ of common emitter fixed biased configuration in forms of $r_{e}$ .	Mathematical/Derivation	2022, 2021, 2019, 2018, 2017, 2016
	Elucidate the significance of emitter resistor in emitter bias configuration and explain the effect of a bypass capacitor on the performance of an amplifier.	Descriptive	2023
	What is the significance of emitter resistor in emitter bias configuration? What are the effects of a bypass capacitor on the voltage gain of an amplifier?	Descriptive	2022, 2020
	For the network shown in figure 1(c), determine $r_{e}$ , $Z_{i}$ , $Z_{o}$ , and $A_{v}$ considering $r_{o} = \infty$ . Also, determine $A_{v}$ considering $r_{o} = 50 k Ω$ and compare the results.	Calculation	2023, 2019
	Design an amplifier circuit considering the following requirements: (i) Common emitter bias configuration, (ii) Voltage gain, $A_{v} = 15$ (without bypass), (iii) Stability factor, $S (I_{CO}) = 10$ . Also, explain the impact of bypass capacitor in this amplifier circuit.	Design/Descriptive	2022
	Design an amplifier circuit considering the following requirements: (i) Voltage gain, $A_{v} = 30$ (without bypass), (ii) Stability factor, $S (I_{CO}) = 10$ . Also, explain the impact of bypass capacitor in this amplifier circuit.	Design/Descriptive	2021
	For the network of the following figure, determine (i) $r_{e}$ , (ii) $z_{i}$ and (iii) $A_{v}$ using approximate analysis. [Ref Figure 2(b)]	Calculation	2020
	For the following network, determine: (i) $r_{e}$ , (ii) $Z_{i}$ , (iii) $Z_{o}$ , (iv) $A_{v}$ and (v) $A_{i}$ considering connected $C_{E}$ (bypassed) and without $C_{E}$ (un-bypassed). Also comments on the obtained voltage gain.	Calculation/Descriptive	2018, 2017
	Define $r_{e}$ -modeling. Draw the $r_{e}$ -models for common emitter and common collector configuration.	Definition/Diagram	2016
	Find the voltage gain ( $A_{v}$ ) of the following network with and without the bypass capacitor ( $C_{E}$ ) and comment on the obtained results.	Calculation/Descriptive	2016
	Write the merits of emitter follower configuration. Using $r_{e}$ modeling concept, derive the expression for input impedance ( $Z_{i}$ ) and output impedance ( $Z_{o}$ ) for emitter follower configuration.	Descriptive/Derivation	2015
	Determine: (a) $r_{e}$ , (b) $Z_{i}$ , (c) $Z_{o}$ , and (d) $A_{v}$ for the following network. [Ref Figure 2(c)]	Calculation	2015
Hybrid Model Analysis	“The input impedance is a function of load impedance” – Justify the statement using the hybrid modeling concept.	Justification	2022, 2021, 2017
	What are the advantages of hybrid model? Draw the exact and appropriate hybrid model of three common configurations.	Descriptive/Diagram	2021, 2019, 2016
	Define hybrid model and hybrid parameters. Draw the hybrid models of three different configurations of transistor.	Definition/Diagram	2018
	Define $h$ -parameters. How can you determine $h$ -parameters from transistor characteristic curves?	Definition/Descriptive	2020, 2015
	Derive the expression for $A_{i}$ , $Z_{i}$ , $A_{v}$ , and $Y_{o}$ for a basic transistor amplifier circuits using $h$ -parameters model.	Derivation	2015
Darlington Pair & Multistage	Discuss the working principle of Darlington pair circuit using necessary diagram.	Descriptive	2023, 2019
	What is Darlington pair circuit? Derive the expression for current gain ( $A_{i}$ ) of Darlington pair using h-parameters and comments on the obtained expression.	Descriptive/Derivation	2017, 2015
	Derive the expression for current gain ( $A_{i}$ ) of Darlington pair circuit using h-parameters and comments on the obtained expression.	Derivation	2018
	Determine the input impedance and overall gain of the two-stage amplifier shown in figure 4(b) using simplified model. [Ref parameters $h_{i e}$ , $h_{f e}$ , $h_{re}$ , $h_{oe}$ ]	Calculation	2023, 2019, 2015
	A two-stage amplifier circuit (CE-CC) is shown in Fig. 3(c). [Ref parameters]. Find the input and output impedances, and overall voltage and current gains of the combined circuit.	Calculation	2021, 2018
	Determine $A_{i}$ , $A_{v}$ , $R_{i}$ , and $R_{o}$ for the following two-stage cascade network using simplified hybrid model.	Calculation	2017
	Determine the input impedance and overall voltage gain of the following two stage amplifier using simplified hybrid model. [Ref Figure 3(d)]	Calculation	2016

Table 3: Field Effect Transistors (FETs)

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
BJT vs FET / Characteristics	Write down the differences between BJT and FET.	Comparison	2023, 2017, 2016
	Briefly explain the reasons behind the higher input impedance of FET.	Descriptive	2018
	Distinguish between p-channel and n-channel JFET? A p-channel JFET has $I_{D SS} = 4 m A$ and $V_{P} = 3 V$ . Sketch its transfer characteristics.	Comparison/Diagram	2019, 2016
JFET Biasing (DC)	For a JFET self-bias configuration, prove that $V D = V DD - V R D$ , with necessary diagram.	Derivation	2023, 2015
	Determine the following parameters using the given network shown in figure 5(c): (i) $I_{D Q}$ , (ii) $V_{GSQ}$ , (iii) $V_{D}$ , (iv) $V_{S}$ , (v) $V_{D S}$ , (vi) $V_{G}$ and (vii) $V_{D G}$ . [Voltage Divider Bias]	Calculation	2023
	Determine the following parameters in Fig. 5(b): (i) $V_{G}$ , and (ii) $V_{D S}$ for the following n-channel JFET network with $I_{D Q} = 3.4 m A$ and $V_{GSQ} = 1.4 V$ .	Calculation	2022, 2019
	For the network shown in Fig. 5 (c), determine (i) $V_{GSQ}$ , (ii) $I_{D Q}$ , (iii) $V_{D S}$ , (iv) $V_{D}$ , (v) $V_{G}$ , and (vi) $V_{S}$ .	Calculation	2021
	Explain the voltage divider biasing of FET amplifier and consequently discuss the effect of $R_{S}$ on the resulting Q-point.	Descriptive	2021, 2018, 2017, 2015
	For the network shown in Fig. 6 (c), determine (i) $I_{D}$ , (ii) $V_{S}$ and $V_{D S}$ , (iii) $V_{G}$ and $V_{GS}$ , (iv) $V_{P}$ .	Calculation	2021
	Determine (i) $V_{GSQ}$ , (ii) $I_{D Q}$ , (iii) $V_{D}$ , and (iv) $V_{S}$ for the common gate configuration shown in Figure 5(b).	Calculation	2020
	For the following network, determine: (i) $V_{GSQ}$ , (ii) $I_{D Q}$ , (iii) $V_{D S}$ , (iv) $V_{D}$ , (v) $V_{G}$ and (vi) $V_{S}$ . [Self-Bias JFET, Fig 6(c)]	Calculation	2018, 2017, 2015
	Write down the differences between self-bias and fixed bias configuration of FET.	Comparison	2016
	For the given network in Fig. 6(d), determine i) $I_{D Q}$ , ii) $V_{GSQ}$ , iii) $V_{D S}$ and iv) $V_{S}$ . Use appropriate transfer curve for calculation.	Calculation	2016
JFET AC Analysis	Derive the mathematical definition of transconductance. Explain the effect of drain current on transconductance factor of FET.	Derivation/Descriptive	2023, 2017
	Define transconductance ( $g_{m}$ ). Derive the expression of transconductance factor for JFET.	Definition/Derivation	2020
	Give the mathematical derivation of transconductance.	Derivation	2018, 2016, 2015
	Show that $g_{m} = g_{m 0} [1 - V_{GS} / V_{P}]$ ; where symbols have their usual meanings.	Derivation	2015
	Prove that $A_{v} ≅ g_{m} R_{D}$ for common gate JFET configurations.	Derivation	2023, 2021, 2019, 2017
	For the network shown in figure 6(c), operating at $V_{GSQ} = - 2.6 V$ and $I_{D Q} = 2.6 m A$ , determine (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $Z_{i}$ , (iv) $Z_{o}$ , (v) $A_{v}$ with and without $r_{d}$ . Also give comments on the effect of $r_{d}$ on $A_{v}$ .	Calculation/Descriptive	2023
	Prove that for a self bias FET configuration voltage gain increase $1 + g_{m} R_{S}$ when bypass resistance $R_{S}$ is used.	Derivation	2023, 2022, 2018, 2016
	Derive the expression of voltage gain for self-bias configuration with unbypassed $R_{S}$ .	Derivation	2019
	For a self-bias configuration of JFET amplifier, show that the voltage gain with unbypassed $R_{S}$ is less than the voltage gain with bypassed $R_{S}$ .	Comparison/Derivation	2015
	Design the following fixed biased network to have an ac gain of 10. [Ref Figure 7(c) / 8(c)]	Design	2022, 2019, 2018, 2015
	For the following fixed-bias configuration, Determine: (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $Z_{i}$ , (iv) $Z_{o}$ , (v) $A_{v}$ with and without $r_{d}$ .	Calculation	2022
	For the network shown in Fig. 7 (c), has an operating point $V_{GSQ} = - 2 V$ and $I_{D Q} = 5.625$ . With an applied signal $V_{i}$ , determine (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $Z_{i}$ , (iv) $Z_{o}$ , and (iv) $A_{v}$ .	Calculation	2021
	A dc analysis of the following network (Fig. 6(b)) results in $V_{GSQ} = - 2.86 V$ and $I_{D Q} = 4.56 m A$ . Determine (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $z_{i}$ and (iv) $z_{o}$ without $r_{d}$ .	Calculation	2020
	Draw a JFET source follower configuration and its ac equivalent circuit. From this circuit, prove that $A_{v} ≅ \frac{g _{m} R _{S}}{1 + g _{m} R _{S}}$ .	Diagram/Derivation	2019
	The source follower network of the following figure has the Q-point as $V_{GSQ} = - 2.86 V$ and $I_{D Q} = 4.56 m A$ . Determine: (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $Z_{i}$ , (iv) $Z_{o}$ with and without $r_{d}$ and (v) $A_{v}$ with and without $r_{d}$ .	Calculation	2018, 2017, 2016
	Determine the following parameters for the network in Fig. 7(c); (i) $g_{m}$ , (ii) $r_{d}$ , (iii) $Z_{i}$ with and without $r_{d}$ , (iv) $Z_{o}$ with and without $r_{d}$ and (v) $V_{o}$ with and without $r_{d}$ . Also give your comments on the results of (iii) – (v).	Calculation/Descriptive	2015
MOSFETs	Construct an n-channel enhancement-type MOSFET and explain its basic operation.	Descriptive	2022
	Distinguish between depletion type and enhancement type MOSFET, why is the input impedance of MOSFET so high? Explain in brief.	Comparison/Descriptive	2021, 2019
	What are the differences between enhancement and depletion MOSFET? Explain the construction and operation of depletion type MOSFET using necessary diagrams.	Comparison/Descriptive	2016

Table 4: Power Amplifiers

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
Concepts & Classification	“The efficiency of power amplifier increases with smaller input operating cycle”-Justify the statement with necessary diagrams.	Justification/Diagram	2023, 2017, 2016, 2015
	“Power amplification is mainly a nonlinear process” – justify the statement.	Justification	2022, 2018, 2015
	Distinguish between voltage amplifier and power amplifier.	Comparison	2021, 2019
	What are the key differences between voltage amplification and power amplification concepts? Compare different classes of power amplifiers.	Comparison	2019
	Define and classify power amplifier. Why do uses of smaller input cycle provide larger efficiency in power amplifier?	Definition/Descriptive	2016
	What are the major considerations in designing power amplifier circuits? Explain in brief.	Descriptive	2018, 2015
Push-Pull Amplifiers	Define crossover distortion. Explain the operation of a transformer coupled push-pull amplifier.	Definition/Descriptive	2023
	Explain the operation of Quasi-Complementary push-pull amplifier. How does this amplifier minimize crossover distortion?	Descriptive	2022
	What is crossover distortion? Explain the operation of transformer coupled push pull power amplifier using suitable diagram.	Definition/Descriptive	2021
	Why is complementary push-pull power amplifier called so? Explain the operation of complementary push-pull power amplifier using suitable diagram.	Descriptive	2020
	Why is push-pull power amplifier called so? Explain the operation of complementary push pull power amplifier using suitable diagram.	Descriptive	2019
	Why is the push-pull power amplifier called so? Deduce the expression for maximum efficiency of push-pull power amplifier.	Descriptive/Derivation	2018, 2017, 2015
	Explain the working principle of complementary power amplifier using necessary diagram.	Descriptive	2016
	Draw the block diagram of a typical class-D power amplifier and briefly explain its operation.	Diagram/Descriptive	2016
Efficiency & Calculation	Design a class A amplifier for maximum efficiency with the following specification: $V_{CC} = 15 V$ , $I_{c} = 100 m A$ , a load resistance of $8Ω$ , and a turn ratio of 5.	Design	2023
	For a class B amplifier using a supply of $V_{CC} = 30 V$ and driving a load of $R_{L} = 16Ω$ , determine the maximum input power and output power.	Calculation	2021
	Show that the maximum efficiency of push pull power amplifier is 78.5%.	Mathematical Proof	2019

Table 5: Frequency Response and Miller Effect

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
General Response	Explain the frequency response of a common emitter amplifier and briefly discuss the impact of various capacitive element on transistor frequency response.	Descriptive	2023
	Determine the lower cutoff frequency for the network for the network of Fig. 3(c) using following parameters: $C_{S} = 10 μ F$ , $C_{E} = 20 μ F$ , $C_{C} = 1 μ F$ , $R_{S} = 1 k Ω$ , $R_{1} = 40 k Ω$ , $R_{2} = 10 k Ω$ , $R_{E} = 2 k Ω$ , $R_{C} = 4 k Ω$ , $R_{L} = 2.2 k Ω$ , $β = 100$ , $r_{o} = \infty$ , $V_{CC} = 20 V$ .	Calculation	2022
	Explain the low frequency and high frequency responses of a BJT amplifier.	Descriptive	2020
	How is the frequency response varied with number of stages in multistage amplifier? Illustrates graphically.	Descriptive/Diagram	2019, 2018, 2016
	What are the components involved in low and high frequency response of bipolar junction transistor circuits? Find the frequency for each component and explain the overall frequency response using necessary diagram.	Descriptive/Calculation	2017
	Determine the high-cutoff frequencies for the network shown in Fig. 6(c) using the following parameters: $A_{v} = - 3$ , $r_{d} = \infty$ , $C_{g d} = 2 pF$ , $C_{g s} = 4 pF$ , $C_{d s} = 0.5 pF$ , $C_{Wi} = 5 pF$ , $C_{W o} = 6 pF$ .	Calculation	2022
	Determine the lower cut-off frequency for the network shown in Fig. 8(c) using the following parameters. [Ref JFET network].	Calculation	2016
Miller Effect	What is Miller capacitance? Write down the effect of Miller capacitance on the high frequency cutoff of BJT circuit.	Definition/Descriptive	2022, 2021, 2019, 2018, 2016
	Define Miller effect.	Definition	2017

Table 6: Specialized Electronic Circuits

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
Diode Circuits	Write short note on Clipper and Clamper.	Definition/Descriptive	2022
	Draw the output waveshapes of the following clamper circuits. Assume diodes are ideal. [Ref Figure 6(d) / 8(b)]	Diagram	2023, 2022
555 Timer & CMOS	Describe the procedure of pulse generation using 555 timer with necessary diagrams.	Descriptive/Diagram	2023
	Explain the operation of a CMOS inverter and mention the advantages of using CMOS technology.	Descriptive	2023
	Design an inverter using CMOS and explain its operation.	Design/Descriptive	2022
Op-Amp Circuits	Design a comparator circuit that will identify whether an ac input voltage is higher or lower than 4V.	Design	2023

Table 7: Display Systems and Optoelectronic Devices

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
CRT & Deflection	Prove that deflection on the screen of a Cathode Ray Tube is directly proportional to the deflecting voltage between the plates.	Mathematical Proof	2022, 2018
	Prove that a cathode ray tube may be used as a linear voltage indicating device.	Mathematical Proof	2021, 2017
	“A cathode ray tube may be used as a linear voltage indicating device” – justify the statement.	Justification	2020, 2018
	Show that the electrostatic deflection sensitivity of a cathode-ray tube is $S = \frac{I L V _{d}}{2 d V _{a}}$ , where the symbols have their usual meanings.	Mathematical Proof	2015
	Write short note on electrostatic deflection sensitivity.	Definition	2019
	Write short note on magnetic deflection and its sensitivity.	Definition	2017
	Write down the similarities between electrostatic-deflection sensitivity and magnetic-deflection sensitivity.	Comparison	2015
Displays (LCD, OLED, etc.)	Describe the basic operation of LCD display and write its application.	Descriptive	2023, 2022
	Write the advantages of LCD over CRT. Differentiate between QLED and OLED.	Comparison	2023, 2022
	Write short notes on plasma display technology.	Definition/Descriptive	2023
	What is LCD? Describe the basic operations of LCD panel.	Definition/Descriptive	2018, 2015
Optoelectronics	Describe the basic operating principle of a solar cell.	Descriptive	2021, 2020, 2019
	Describe the basic operating principle of a solar cell and write its application.	Descriptive	2022
	Briefly explain the construction and operating principle of solar cell. Also, calculate the maximum power rating of a $3 c m \times 6 c m$ solar cell if its conversion efficiency is 85%.	Descriptive/Calculation	2019
	Explain the construction and operating principle of a solar cell.	Descriptive	2015
	Describe the operating principle of photo-conductive cells. Also mention some practical applications of photo conductive device.	Descriptive	2021, 2019, 2018, 2015
	What is photodiode? Describe the operation and characteristics of photodiode.	Definition/Descriptive	2019
	Write short notes on (i) Photodiode, (ii) Phototransistor.	Definition	2015

Table 8: Motion of Charged Particles in Electromagnetic Fields

Subtopic/ Sub-subtopic	Questions	Type	Year(s)
Electric & Magnetic Fields	For a charged particle placed in a magnetic field, show that the period and angular velocity are independent of speed or radius.	Mathematical Proof	2020
	“For a charged particle placed in a magnetic field, the period and angular velocity are independent of speed or radius?”-Justify the statement.	Justification	2019
	If a charged particle enters to a constant uniform magnetic field normally with a speed, then prove that period and angular velocity will be independent of speed or radius.	Mathematical Proof	2016
	Discuss about the path of a charged particle in presence of parallel electric and magnetic fields.	Descriptive	2021, 2019, 2017, 2015
	Give your comments about the path of a charged particle in presence of parallel electric and magnetic field.	Descriptive	2016
	Show that electron moves in a parabolic path in the region between two parallel plates of a capacitor in presence of electric filed.	Mathematical Proof	2021, 2017, 2015
	Write your idea about radius of circles generated by different particles moving with different initial velocities in a magnetic field.	Descriptive	2018
	Compare electrostatic deflection sensitivity and magnetic deflection sensitivity.	Comparison	2016
	Show that the notion electron in an electromagnetic field can be expressed as: $x = Q (1 - cos θ)$ ; $z = Q (1 - sin θ)$ ; and $y = 0$ ; where the symbols have their usual meanings.	Mathematical Proof	2016

007_index

ece 1209 pyq

Table 1: BJT DC Biasing and Stability

Table 2: BJT Small Signal Analysis

Table 3: Field Effect Transistors (FETs)

Table 4: Power Amplifiers

Table 5: Frequency Response and Miller Effect

Table 6: Specialized Electronic Circuits

Table 7: Display Systems and Optoelectronic Devices

Table 8: Motion of Charged Particles in Electromagnetic Fields

Graph View

Table of Contents