Current Mirror and Differential Amplifier

Similar documents
CMOS Inverter & Ring Oscillator

EE4902 C Lab 7

EE 330 Laboratory 8 Discrete Semiconductor Amplifiers

EE 230 Lab Lab 9. Prior to Lab

EE 330 Laboratory 8 Discrete Semiconductor Amplifiers

High-Speed Serial Interface Circuits and Systems

Analogue Electronic Systems

Lab 4: Supply Independent Current Source Design

University of Pittsburgh

Introduction to MOSFET MOSFET (Metal Oxide Semiconductor Field Effect Transistor)

ET475 Electronic Circuit Design I [Onsite]

EE 140 HW7 SOLUTION 1. OPA334. a. From the data sheet, we see that. Vss 0.1V Vcm Vdd 1.5V

Current Mirrors & Current steering Circuits:

Experiment 5: CMOS FET Chopper Stabilized Amplifier 9/27/06

EE 210 Lab Exercise #5: OP-AMPS I

Experiment 10 Current Sources and Voltage Sources

ECEN3250 Lab 9 CMOS Logic Inverter

ECE4902 C Lab 5 MOSFET Common Source Amplifier with Active Load Bandwidth of MOSFET Common Source Amplifier: Resistive Load / Active Load

UNIVERSITY OF NORTH CAROLINA AT CHARLOTTE Department of Electrical and Computer Engineering

Experiment 5 Single-Stage MOS Amplifiers

Experiment 6: Biasing Circuitry

Low voltage, low power, bulk-driven amplifier

Well we know that the battery Vcc must be 9V, so that is taken care of.

Amplifier Design Using an Active Load

CMOS Cascode Transconductance Amplifier

ECE 340 Lecture 40 : MOSFET I

ENEE 307 Laboratory#2 (n-mosfet, p-mosfet, and a single n-mosfet amplifier in the common source configuration)

Peaking current source.

UNIVERSITY OF NORTH CAROLINA AT CHARLOTTE. Department of Electrical and Computer Engineering

Analog Integrated Circuit Configurations

CHARACTERISTICS OF OPERATIONAL AMPLIFIERS - I

EE 501 Lab9 Widlar Biasing Circuit and Bandgap Reference Circuit

ECE 2274 MOSFET Voltmeter. Richard Cooper

EE5310/EE3002: Analog Circuits. on 18th Sep. 2014

Prelab 6: Biasing Circuitry

Curve Tracer Laboratory Assistant Using the Analog Discovery Module as A Curve Tracer

Laboratory #9 MOSFET Biasing and Current Mirror

Course Number Section. Electronics I ELEC 311 BB Examination Date Time # of pages. Final August 12, 2005 Three hours 3 Instructor

Q.1: Power factor of a linear circuit is defined as the:

EE311: Electrical Engineering Junior Lab, Fall 2006 Experiment 4: Basic MOSFET Characteristics and Analog Circuits

Exam Below are two schematics of current sources implemented with MOSFETs. Which current source has the best compliance voltage?

TTL LOGIC and RING OSCILLATOR TTL

Electronic Circuits II Laboratory 01 Voltage Divider Bias

ECE4902 C2012 Lab 3. Qualitative MOSFET V-I Characteristic SPICE Parameter Extraction using MOSFET Current Mirror

Experiment 6: Biasing Circuitry

EE 320 L LABORATORY 9: MOSFET TRANSISTOR CHARACTERIZATIONS. by Ming Zhu UNIVERSITY OF NEVADA, LAS VEGAS 1. OBJECTIVE 2. COMPONENTS & EQUIPMENT

EXPERIMENT 3 Half-Wave and Full-Wave Rectification

ECEN 325 Lab 11: MOSFET Amplifier Configurations

ES330 Laboratory Experiment No. 9 Bipolar Differential Amplifier [Reference: Sedra/Smith (Chapter 9; Section 9.2; pp )]

EE 501 Lab7 Bandgap Reference Circuit

DIGITAL VLSI LAB ASSIGNMENT 1

Real Analog - Circuits 1 Chapter 1: Lab Projects

Lab 3: Very Brief Introduction to Micro-Cap SPICE

Lab 8: SWITCHED CAPACITOR CIRCUITS

ECE4902 C Lab 7

EE4902 C Lab 5 MOSFET Common Source Amplifier with Active Load Bandwidth of MOSFET Common Source Amplifier: Resistive Load / Active Load

ECE 2274 Diode Basics and a Rectifier Completed Prior to Coming to Lab

ELEC3404 Electronic Circuit Design. Laboratory Manual

ELEC 2210 EXPERIMENT 12 NMOS Logic

ECE ECE285. Electric Circuit Analysis I. Spring Nathalia Peixoto. Rev.2.0: Rev Electric Circuits I

Fundamentos de Electrónica Lab Guide

LOW-VOLTAGE, CLASS AB AND HIGH SLEW-RATE TWO STAGE OPERATIONAL AMPLIFIERS. CARLOS FERNANDO NIEVA-LOZANO, B.Sc.E.E

Chapter 4 Single-stage MOS amplifiers

Microelectronic Circuits

EQUIVALENT EQUIPMENT CIRCUITS

THE BREADBOARD; DC POWER SUPPLY; RESISTANCE OF METERS; NODE VOLTAGES AND EQUIVALENT RESISTANCE; THÉVENIN EQUIVALENT CIRCUIT

Analog CMOS Interface Circuits for UMSI Chip of Environmental Monitoring Microsystem

MEASUREMENT AND INSTRUMENTATION STUDY NOTES UNIT-I

0.85V. 2. vs. I W / L

Step Response of RC Circuits

8. Characteristics of Field Effect Transistor (MOSFET)

ELEC 350L Electronics I Laboratory Fall 2012

3.1 ignored. (a) (b) (c)

Design of a Sample and Hold Circuit using Rail to Rail Low Voltage Compact Operational Amplifier and bootstrap Switching

EXPERIMENT 9 Problem Solving: First-order Transient Circuits

Revision: Jan 29, E Main Suite D Pullman, WA (509) Voice and Fax

Experiment #7 MOSFET Dynamic Circuits II

1.2Vdc 1N4002. Anode V+

I1 19u 5V R11 1MEG IDC Q7 Q2N3904 Q2N3904. Figure 3.1 A scaled down 741 op amp used in this lab

ECE2274 Pre-Lab for MOSFET logic LTspice NAND Gate, NOR Gate, and CMOS Inverter

Beta Multiplier and Bandgap Reference Design

EE 233 Circuit Theory Lab 4: Second-Order Filters

Lab 2: Common Emitter Design: Part 2

Lab Project EE348L. Spring 2005

Expanded Answer: Transistor Amplifier Problem in January/February 2008 Morseman Column

EDEXCEL NATIONALS UNIT 5 - ELECTRICAL AND ELECTRONIC PRINCIPLES. ASSIGNMENT No.1 - RESISTOR NETWORKS

EXPERIMENT 2. NMOS AND BJT INVERTING CIRCUITS

EXPT NO: 1.A. COMMON EMITTER AMPLIFIER (Software) PRELAB:

UNIT-1 Bipolar Junction Transistors. Text Book:, Microelectronic Circuits 6 ed., by Sedra and Smith, Oxford Press

Homework Assignment 12

Audio Power Amplifiers with Feedback Linearization

EE140 Homework Solutions Problem Set 6 Fall for a single pole roll-off Dominant pole at output:

NOVEMBER 29, 2017 COURSE PROJECT: CMOS TRANSIMPEDANCE AMPLIFIER ECG 720 ADVANCED ANALOG IC DESIGN ERIC MONAHAN

Designing of a 8-bits DAC in 0.35µm CMOS Technology For High Speed Communication Systems Application

Laboratory 2 (drawn from lab text by Alciatore)

Sequential Logic Circuits

Lecture 190 CMOS Technology, Compatible Devices (10/28/01) Page 190-1

Page 1 of 7. Power_AmpFal17 11/7/ :14

Lab 7: DELTA AND SIGMA-DELTA A/D CONVERTERS

Analog IC: Project: 1.8 Volt Band Gap Reference: Due Date 11/09/2014

Transcription:

Theoretical Analysis: and In this Lab we will implement a simple nmos current mirror and then use it instead of an ideal current source in order to supply our with the required current. MOSfets (Metal Oxide Semiconductor Field Effect Transistors) will be used for both circuit topologies. For the given Transistor Specifications (CD4007) kn = 111 ua/v 2 VT = 2 V W = 30 um L = 10 um Calculate the following 1. For Rload = 5kΩ and Iref = 20uA, what is the nominal value for the resistor R1 in order to provide an equivalent current to flow through Rload? 2. Increase VDD = -VSS = 7V and keep Rload=5kΩ. If Iref=2mA what is the nominal value for resistor R1 in order to provide an equivalent current to flow through Rload? 3. Keep VDD = -VSS = 7V and increase Rload=10kΩ. If Iref=2mA what is the nominal value for resistor R1? What is the final Iout? 4. What happens when we increase Rload? Justify. 5. What happens when we increase the supplied voltage? Justify. Figure 1. Simple 1 of 5

For the following presented in Figure 2 1. What is the maximum value of the load resistors in order to remain in the saturation region? 2. What is the single ended voltage gain of the presented topology? 3. What happens if we increase the value of the load resistors? Justify. 4. What happens if we increase the supplied voltage? Justify. 5. What happens if we increase the tail current? Justify. Figure 2. with Ideal Current Source 2 of 5

Figure 3. with Software Aided Simulations using ADS: 1. Design the schematic presented in Figure 1. 2. Validate the theoretical results you calculated in the theoretical part. Simulate again the subqueries 1-3. 1. Design the schematic presented in Figure 2. Provide a sinusoidal input signal with 2. Present plots for the output signal and input signal. 3. Calculate the voltage gain. How does it compare to the theoretical one? 4. Validate question 3-5 of the theoretical analysis. 5. Design the schematic presented in Figure 3. Provide a sinusoidal input signal with 3 of 5

6. What are the voltages in each node? 7. What is the tail current provided by the current mirror? 8. Present plots of the input and output waveforms. 9. What is the new voltage gain of this with the current mirror? 10. What happens if we alter the value of resistor R1? Justify. Lab Experiment: 1. Build the schematic presented in Figure 1. 2. Perform the same measurements you conducted in the theoretical and simulation part of this exercise. 3. Do the previous results agree with the measured ones? Justify. 1. Build the circuit presented in Figure 2. Provide a sinusoidal input signal with 2. Present plots for the output signal and input signal. 3. Calculate the voltage gain. How does it compare to the theoretical/simulated ones? Justify. 4. Design the schematic presented in Figure 3. Provide a sinusoidal input signal with 5. Measure the voltages in each node? Do they agree with the simulated ones? 6. What is the measured current the mirror provides to the? 7. Present plots of the input and output waveforms. 8. What is the new voltage gain of this with the current mirror? Is it the same as the simulated one? Justify. 9. Suggest minor changes to the current implementation in order to increase the voltage gain. 4 of 5

The connection diagram of your CD4007 IC is as follows. Figure 4. Good Luck! 5 of 5