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ProblemsClear skill: Diodes Build a practice set

ProblemCourse & topicStatus

ELEC:9924001A silicon diode D has its anode at node a and its cathode at the reference node 0.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924002Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924003Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924004Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924005Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924006Two silicon junction diodes share a common anode node a and a common cathode node 0.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924007Two DC sources feed a common load through steering diodes.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924008Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924009Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924010Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924011Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924012A center-tapped transformer has two identical secondary halves.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924013Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924014Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924015Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924016A Zener regulator is built as follows.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924017Design a shunt Zener regulator to the following specification.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924018Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924019Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924020A laboratory bridge rectifier is supposed to implement the following circuit.

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924021Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924022Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924023Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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ELEC:9924024Mathematical problem title

DiodesElectronics 1 Problem Solving

Diode models and rectifier circuitsElectronics I · Calculation

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Showing 24 of 50 matching problems.

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A junction diode obeys the Shockley law

i_D=I_S\bigl(e^{v_D/(n V_T)}-1\bigr)

with…

An ideal independent DC source

V_S=12.0\,\mathrm{V}

has its positive terminal at node s and its negative terminal…

A discrete diode is characterized at

T=300\,\mathrm{K}

by the following measured pairs

(v_D,i_D)

, with…

Node s is driven by an ideal independent DC source

V_S

with its positive terminal at s and its negative terminal…

A periodic triangular source

v_s(t)

has period

T=1.00\,\mathrm{ms}

, peak values

+6.00\,\mathrm{V}

and…

An ideal independent source

v_s(t)=8.00\sin(\omega

t)\,\mathrm{V}

with

\omega=2\pi\times

60.0\,\mathrm{rad/s}

is…

A periodic square-wave source

v_s(t)

equals

+4.00\,\mathrm{V}

for

0\le

t<5.00\,\mathrm{ms}

and equals…

A transformer secondary is modeled as an ideal source

v_s(t)=V_m\sin(\omega

t) with

V_m=18.0\,\mathrm{V}

and…

A peak rectifier consists of an ideal source

v_s(t)=V_m\sin(\omega

t) with

V_m=16.0\,\mathrm{V}

and

f=\omega/(2\pi)

…

Retain the peak-rectifier topology of Problem 13, but change the numerical values to

V_m=16.0\,\mathrm{V}

…

A single-phase transformer secondary is modeled as an ideal voltage

v_s(t)=V_m\sin(\omega

t) in series with a…

A half-wave voltage doubler is driven by an ideal source

v_s(t)=V_m\sin(\omega

t) with

V_m=6.30\sqrt{2}\,\mathrm{V}

…

A center-tapped secondary provides

v_{a0}(t)=V_m\sin(\omega

t) and

v_{b0}(t)=-V_m\sin(\omega

t) with…

A silicon rectifier diode, when on, obeys the constant-drop law

v_D=V_\gamma(T)

with…

A silicon junction diode obeys

i_D=I_S\bigl(e^{v_D/V_T}-1\bigr)

with

I_S=4.00\times 10^{-15}\,\mathrm{A}

and…

A diode obeys the Shockley law of Problem 22 with the same

I_S

and

V_T

.

A capacitor-input bridge supply is driven by

v_s(t)=V_m\sin(\omega

t) with

V_m=22.0\sqrt{2}\,\mathrm{V}

and…