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ProblemsClear skill: Frequency Response Electronics Build a practice set

ProblemCourse & topicStatus

ELEC:9924201A two-stage MOS amplifier is composed as follows.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924202Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924203Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924204Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924205Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924206Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924207Honors.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924208Honors.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924209Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924210Honors.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924211Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924212Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924213An n-channel MOSFET is biased in saturation with…

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924214A discrete NPN transistor is characterised on a network analyser in the common-emitter short-circuit current-gain…

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924215A common-source NMOS stage is biased in saturation.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924216Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924217A common-source NMOS amplifier is represented by the following small-signal network.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924218Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924219Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924220A voltage amplifier, after all device capacitances have been opened, is modelled at low frequency by the two-pole…

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924221The same NMOS device is used in two one-transistor stages.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924222A telescopic NMOS cascode is biased in saturation in both devices.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924223Mathematical problem title

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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ELEC:9924224A common-base BJT stage is biased forward-active with the base at AC ground.

Frequency Response ElectronicsElectronics 1 Problem Solving

Device and amplifier frequency responseElectronics I · Calculation

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A matched NMOS pair with ideal tail

I_{SS}=0.500\,\mathrm{mA}

and drain resistors…

A five-transistor transconductance cell (NMOS pair

M_1,M_2

, PMOS mirror load

M_3,M_4

, NMOS tail

M_5)

drives a…

The fully differential transfer

v_{od}(v_{id})

of a resistively loaded NMOS pair with an ideal tail is measured at…

A PMOS source-coupled pair

M_1,M_2

is biased by a PMOS tail current source from

V_{DD}=3.30\,\mathrm{V}

down to…

An NMOS current mirror is geometrically scaled:

W_2/W_1=4.00

with identical

L=0.80\,\mu\mathrm{m}

,

\mu_n

…

Design an NMOS Widlar-like source-degenerated mirror to deliver

I_{D2}=12.0\,\mu\mathrm{A}

from…

An n-channel MOSFET has drawn width

W=50.0\,\mu\mathrm{m}

, drawn length

L=1.00\,\mu\mathrm{m}

, and oxide…

An NPN BJT is biased in the forward-active region at

I_{C}=1.20\,\mathrm{mA}

.

Miller's theorem concerns a linear two-terminal impedance

\mathbf{Z}

connected between node x and node y.

A common-emitter BJT stage is biased forward-active with the emitter at AC ground (fully bypassed, or

R_{E}=0)

.

A common-emitter stage has its base driven by an ideal voltage source

v_{s}

(source resistance zero), so

v_{b}=v_{s}

.

An NMOS source follower (common-drain) is biased in saturation with

g_{m}=5.00\,\mathrm{mS}

.