Analog IC design also has specializations in power IC design and RF IC design. Analog IC design is used in the design of op-amps, linear regulators, phase locked loops, oscillators and active filters. Analog design is more concerned with the physics of the semiconductor devices such as gain, matching, power dissipation, and resistance. Fidelity of ...
Analog IC design also has specializations in power IC design and RF IC design. Analog IC design is used in the design of op-amps, linear regulators, phase locked loops, oscillators and active filters. Analog design is more concerned with the physics of the semiconductor devices such as gain, matching, power dissipation, and resistance. Fidelity of ...
Course introduction; Negative feedback control
50mNegative feedback amplifier
50mStep response, sinusoidal steady state response
51mLoop gain and unity loop gain frequency; Opamp
49mOpamp realization using controlled sources; Delay in the loop
51mNegative feedback amplifier with ideal delay-small delays
49mNegative feedback amplifier with ideal delay-large delays
52mNegative feedback amplifier with parasitic poles and zeros
52mNegative feedback amplifier with parasitic poles and zeros; Nyquist criterion
48mNyquist criterion; Phase margin
51mPhase margin
51mSingle stage opamp realization
51mTwo stage miller compensated opamp
49mTwo stage miller compensated opamp
49mTwo and three stage miller compensated opamps; Feedforward compensated opamp
48mFeedforward compensated opamp
49mFeedforward compensated opamp
47mFeedforward compensated opamp; typical opamp data sheet
49mOpamp offset and CMRR; Transimpedance amplifier using an opamp
1h 63 minComponents available in a CMOS process
1h 63 minMOS transistors-basics
49mMOS transistors-parasitics, mismatch
48mMOS transistors-mismatch, speed
54mNoise in resistors
53mNoise in MOS transistors; Input and output referred noise
51mNoise scaling; Basic amplifier stages-Common source, common gate
52mBasic amplifier stages-Common drain; Frequency response of amplifiers
52mCommon source amplifier frequency response; Differential amplifier
50mDifferential and common mode half circuits; Differential pair with active load
52mDifferential pair with current mirror load
51mSingle stage opamp characteristics
48mOpamp with single and dual supplies; Single stage opamp tradeoffs
46mTelescopic cascode opamp
51mTelescopic cascode opamp; Folded cascode opamp
52mFolded cascode opamp
50mTwo stage opamp
50mTwo stage opamp; Three stage and triple cascode opamps
51mCommon mode rejection ratio; Example
51mFully differential circuits
52mFully differential single stage opamp
48mCommon mode feedback
52mFully differential single stage opamp
50mFully differential two stage opamp; Fully differential versus pseudo-differential
51mCircuit simulators and analyses
52mPhase locked loop as frequency multiplier
51mPhase domain model
49mType I PLL transfer function and reference feedthrough
47mType II PLL
51mType II PLL transfer functions; Implementation
46mType II PLL-extra poles; Random noise in a PLL
52mOscillator phase noise
50mPLL phase noise; LC and ring Oscillators
1h 64 minGenerating PTAT and constant MOS gm bias currents
51mReducing supply sensitivity; Bandgap voltage reference
51mFractional bandgap reference; Low dropout regulators
50mLow dropout regulators; Continuous-time active filters
52mContinuous-time active filters
52mContinuous-time active filters
47mDiscrete-time active filters
52mTransistor sizing in practice; Course summary
52m