CPU DESIGN The Single-Cycle Implementation

Computer Engineering Department. CC 311- Computer Architecture. Chapter 4. The Processor: Datapath and Control. Single Cycle

Computer Engineering Department CC 311- Computer Architecture Chapter 4 The Processor: Datapath and Control Single Cycle Introduction The 5 classic components of a computer Processor Input Control Memory

CPU DESIGN The Single-Cycle Implementation

22 ompter Organization Seqential vs. ombinational ircits Digital circits can be classified into two categories: DESIGN The Single-ycle Implementation. ombinational ircits: m, 2. Seqential ircits: flip-flops,

Review. Combined Datapath

Review Topics:. A single cycle implementation 2. State Diagrams. A mltiple cycle implementation COSC 22: Compter Organization Instrctor: Dr. Amir Asif Department of Compter Science York University Handot

Spiral 1 / Unit 3

-3. Spiral / Unit 3 Minterm and Maxterms Canonical Sums and Products 2- and 3-Variable Boolean Algebra Theorems DeMorgan's Theorem Function Synthesis use Canonical Sums/Products -3.2 Outcomes I know the

CSE Computer Architecture I

Execution Sequence Summary CSE 30321 Computer Architecture I Lecture 17 - Multi Cycle Control Michael Niemier Department of Computer Science and Engineering Step name Instruction fetch Instruction decode/register

EC 413 Computer Organization

EC 413 Computer Organization rithmetic Logic Unit (LU) and Register File Prof. Michel. Kinsy Computing: Computer Organization The DN of Modern Computing Computer CPU Memory System LU Register File Disks

TEST 1 REVIEW. Lectures 1-5

TEST 1 REVIEW Lectures 1-5 REVIEW Test 1 will cover lectures 1-5. There are 10 questions in total with the last being a bonus question. The questions take the form of short answers (where you are expected

Project Two RISC Processor Implementation ECE 485

Project Two RISC Processor Implementation ECE 485 Chenqi Bao Peter Chinetti November 6, 2013 Instructor: Professor Borkar 1 Statement of Problem This project requires the design and test of a RISC processor

Implementing the Controller. Harvard-Style Datapath for DLX

6.823, L6--1 Implementing the Controller Laboratory for Computer Science M.I.T. http://www.csg.lcs.mit.edu/6.823 6.823, L6--2 Harvard-Style Datapath for DLX Src1 ( j / ~j ) Src2 ( R / RInd) RegWrite MemWrite

Processor Design & ALU Design

3/8/2 Processor Design A. Sahu CSE, IIT Guwahati Please be updated with http://jatinga.iitg.ernet.in/~asahu/c22/ Outline Components of CPU Register, Multiplexor, Decoder, / Adder, substractor, Varity of

L07-L09 recap: Fundamental lesson(s)!

L7-L9 recap: Fundamental lesson(s)! Over the next 3 lectures (using the IPS ISA as context) I ll explain:! How functions are treated and processed in assembly! How system calls are enabled in assembly!

Control. Control. the ALU. ALU control signals 11/4/14. Next: control. We built the instrument. Now we read music and play it...

// CS 2, Fall 2! CS 2, Fall 2! We built the instrument. Now we read music and play it... A simple implementa/on uc/on uct r r 2 Write r Src Src Extend 6 Mem Next: path 7-2 CS 2, Fall 2! signals CS 2, Fall

Review: Single-Cycle Processor. Limits on cycle time

Review: Single-Cycle Processor Jump 3:26 5: MemtoReg Control Unit LUControl 2: Op Funct LUSrc RegDst PCJump PC 4 uction + PCPlus4 25:2 2:6 2:6 5: 5: 2 3 WriteReg 4: Src Src LU Zero LUResult Write + PC

Outcomes. Spiral 1 / Unit 2. Boolean Algebra BOOLEAN ALGEBRA INTRO. Basic Boolean Algebra Logic Functions Decoders Multiplexers

-2. -2.2 piral / Unit 2 Basic Boolean Algebra Logic Functions Decoders Multipleers Mark Redekopp Outcomes I know the difference between combinational and sequential logic and can name eamples of each.

A Second Datapath Example YH16

A Second Datapath Example YH16 Lecture 09 Prof. Yih Huang S365 1 A 16-Bit Architecture: YH16 A word is 16 bit wide 32 general purpose registers, 16 bits each Like MIPS, 0 is hardwired zero. 16 bit P 16

CPSC 3300 Spring 2017 Exam 2

CPSC 3300 Spring 2017 Exam 2 Name: 1. Matching. Write the correct term from the list into each blank. (2 pts. each) structural hazard EPIC forwarding precise exception hardwired load-use data hazard VLIW

Lecture 13: Sequential Circuits, FSM

Lecture 13: Sequential Circuits, FSM Today s topics: Sequential circuits Finite state machines 1 Clocks A microprocessor is composed of many different circuits that are operating simultaneously if each

Simple Instruction-Pipelining. Pipelined Harvard Datapath

6.823, L8--1 Simple ruction-pipelining Laboratory for Computer Science M.I.T. http://www.csg.lcs.mit.edu/6.823 Pipelined Harvard path 6.823, L8--2. I fetch decode & eg-fetch execute memory Clock period

Design. Dr. A. Sahu. Indian Institute of Technology Guwahati

CS222: Processor Design: Multi Cycle Design Dr. A. Sahu Dept of Comp. Sc. & Engg. Indian Institute of Technology Guwahati Mid Semester Exam Multi Cycle design Outline Clock periods in single cycle and

61C In the News. Processor Design: 5 steps

www.eetimes.com/electronics-news/23235/thailand-floods-take-toll-on--makers The Thai floods have already claimed the lives of hundreds of pele, with tens of thousands more having had to flee their homes

Simple Instruction-Pipelining. Pipelined Harvard Datapath

6.823, L8--1 Simple ruction-pipelining Updated March 6, 2000 Laboratory for Computer Science M.I.T. http://www.csg.lcs.mit.edu/6.823 Pipelined Harvard path 6.823, L8--2. fetch decode & eg-fetch execute

Lecture 13: Sequential Circuits, FSM

Lecture 13: Sequential Circuits, FSM Today s topics: Sequential circuits Finite state machines Reminder: midterm on Tue 2/28 will cover Chapters 1-3, App A, B if you understand all slides, assignments,

Pipelining. Traditional Execution. CS 365 Lecture 12 Prof. Yih Huang. add ld beq CS CS 365 2

Pipelining CS 365 Lecture 12 Prof. Yih Huang CS 365 1 Traditional Execution 1 2 3 4 1 2 3 4 5 1 2 3 add ld beq CS 365 2 1 Pipelined Execution 1 2 3 4 5 1 2 3 4 5 1 2 3 4 5 1 2 3 4 5 1 2 3 4 5 1 2 3 4 5

CSc 256 Midterm 2 Fall 2010

CSc 256 Midterm 2 Fall 2010 NAME: 1a)YouaregivenaMIPSbranchinstruction: x:beq$12,$0,y Theaddressofthelabel"y"is0x40013c.Thememorylocationat"x"contains: addresscontents 0x4002080001000110000000????????????????...whichrepresentsthebeqinstruction;the????...????arethe

Design of Digital Circuits Lecture 14: Microprogramming. Prof. Onur Mutlu ETH Zurich Spring April 2017

Design of Digital Circuits Lecture 4: Microprogramming Prof. Onur Mutlu ETH Zurich Spring 27 7 April 27 Agenda for Today & Next Few Lectures! Single-cycle Microarchitectures! Multi-cycle and Microprogrammed

3. (2) What is the difference between fixed and hybrid instructions?

1. (2 pts) What is a "balanced" pipeline? 2. (2 pts) What are the two main ways to define performance? 3. (2) What is the difference between fixed and hybrid instructions? 4. (2 pts) Clock rates have grown

CS 52 Computer rchitecture and Engineering Lecture 4 - Pipelining Krste sanovic Electrical Engineering and Computer Sciences University of California at Berkeley http://www.eecs.berkeley.edu/~krste! http://inst.eecs.berkeley.edu/~cs52!

[2] Predicting the direction of a branch is not enough. What else is necessary?

[2] What are the two main ways to define performance? [2] Predicting the direction of a branch is not enough. What else is necessary? [2] The power consumed by a chip has increased over time, but the clock

[2] Predicting the direction of a branch is not enough. What else is necessary?

[2] When we talk about the number of operands in an instruction (a 1-operand or a 2-operand instruction, for example), what do we mean? [2] What are the two main ways to define performance? [2] Predicting

Designing Single-Cycle MIPS Processor

CSE 32: Introdction to Compter Architectre Designing Single-Cycle IPS Processor Presentation G Stdy:.-. Gojko Babić 2/9/28 Introdction We're now ready to look at an implementation of the system that incldes

Shift Register Counters

Shift Register Counters Shift register counter: a shift register with the serial output connected back to the serial input. They are classified as counters because they give a specified sequence of states.

CMP 334: Seventh Class

CMP 334: Seventh Class Performance HW 5 solution Averages and weighted averages (review) Amdahl's law Ripple-carry adder circuits Binary addition Half-adder circuits Full-adder circuits Subtraction, negative

1. (2 )Clock rates have grown by a factor of 1000 while power consumed has only grown by a factor of 30. How was this accomplished?

1. (2 )Clock rates have grown by a factor of 1000 while power consumed has only grown by a factor of 30. How was this accomplished? 2. (2 )What are the two main ways to define performance? 3. (2 )What

COVER SHEET: Problem#: Points

EEL 4712 Midterm 3 Spring 2017 VERSION 1 Name: UFID: Sign here to give permission for your test to be returned in class, where others might see your score: IMPORTANT: Please be neat and write (or draw)

Topics: A multiple cycle implementation. Distributed Notes

COSC 22: Compter Organization Instrctor: Dr. Amir Asif Department of Compter Science York University Handot # lticycle Implementation of a IPS Processor Topics: A mltiple cycle implementation Distribted

4. (3) What do we mean when we say something is an N-operand machine?

1. (2) What are the two main ways to define performance? 2. (2) When dealing with control hazards, a prediction is not enough - what else is necessary in order to eliminate stalls? 3. (3) What is an "unbalanced"

Lecture 3, Performance

Lecture 3, Performance Repeating some definitions: CPI Clocks Per Instruction MHz megahertz, millions of cycles per second MIPS Millions of Instructions Per Second = MHz / CPI MOPS Millions of Operations

Figure 4.9 MARIE s Datapath

Term Control Word Microoperation Hardwired Control Microprogrammed Control Discussion A set of signals that executes a microoperation. A register transfer or other operation that the CPU can execute in

UNIVERSITY OF WISCONSIN MADISON

CS/ECE 252: INTRODUCTION TO COMPUTER ENGINEERING UNIVERSITY OF WISCONSIN MADISON Prof. Gurindar Sohi TAs: Minsub Shin, Lisa Ossian, Sujith Surendran Midterm Examination 2 In Class (50 minutes) Friday,

CMP 338: Third Class

CMP 338: Third Class HW 2 solution Conversion between bases The TINY processor Abstraction and separation of concerns Circuit design big picture Moore s law and chip fabrication cost Performance What does

Designing MIPS Processor

CSE 675.: Introdction to Compter Architectre Designing IPS Processor (lti-cycle) Presentation H Reading Assignment: 5.5,5.6 lti-cycle Design Principles Break p eection of each instrction into steps. The

Lecture 3, Performance

Repeating some definitions: Lecture 3, Performance CPI MHz MIPS MOPS Clocks Per Instruction megahertz, millions of cycles per second Millions of Instructions Per Second = MHz / CPI Millions of Operations

Enrico Nardelli Logic Circuits and Computer Architecture

Enrico Nardelli Logic Circuits and Computer Architecture Appendix B The design of VS0: a very simple CPU Rev. 1.4 (2009-10) by Enrico Nardelli B - 1 Instruction set Just 4 instructions LOAD M - Copy into

Design at the Register Transfer Level

Week-7 Design at the Register Transfer Level Algorithmic State Machines Algorithmic State Machine (ASM) q Our design methodologies do not scale well to real-world problems. q 232 - Logic Design / Algorithmic

Computer Architecture. ECE 361 Lecture 5: The Design Process & ALU Design. 361 design.1

Computer Architecture ECE 361 Lecture 5: The Design Process & Design 361 design.1 Quick Review of Last Lecture 361 design.2 MIPS ISA Design Objectives and Implications Support general OS and C- style language

UNIT 8A Computer Circuitry: Layers of Abstraction. Boolean Logic & Truth Tables

UNIT 8 Computer Circuitry: Layers of bstraction 1 oolean Logic & Truth Tables Computer circuitry works based on oolean logic: operations on true (1) and false (0) values. ( ND ) (Ruby: && ) 0 0 0 0 0 1

CS61C : Machine Structures

CS 61C L15 Blocks (1) inst.eecs.berkeley.edu/~cs61c/su05 CS61C : Machine Structures Lecture #15: Combinational Logic Blocks Outline CL Blocks Latches & Flip Flops A Closer Look 2005-07-14 Andy Carle CS

CS61C : Machine Structures

inst.eecs.berkeley.edu/~cs61c/su05 CS61C : Machine Structures Lecture #15: Combinational Logic Blocks 2005-07-14 CS 61C L15 Blocks (1) Andy Carle Outline CL Blocks Latches & Flip Flops A Closer Look CS

Building a Computer. Quiz #2 on 10/31, open book and notes. (This is the last lecture covered) I wonder where this goes? L16- Building a Computer 1

Building a Computer I wonder where this goes? B LU MIPS Kit Quiz # on /3, open book and notes (This is the last lecture covered) Comp 4 Fall 7 /4/7 L6- Building a Computer THIS IS IT! Motivating Force

Logic and Computer Design Fundamentals. Chapter 8 Sequencing and Control

Logic and Computer Design Fundamentals Chapter 8 Sequencing and Control Datapath and Control Datapath - performs data transfer and processing operations Control Unit - Determines enabling and sequencing

CprE 281: Digital Logic

CprE 28: Digital Logic Instructor: Alexander Stoytchev http://www.ece.iastate.edu/~alexs/classes/ Simple Processor CprE 28: Digital Logic Iowa State University, Ames, IA Copyright Alexander Stoytchev Digital

Spiral 2-1. Datapath Components: Counters Adders Design Example: Crosswalk Controller

2-. piral 2- Datapath Components: Counters s Design Example: Crosswalk Controller 2-.2 piral Content Mapping piral Theory Combinational Design equential Design ystem Level Design Implementation and Tools

Chapter 5. Digital Design and Computer Architecture, 2 nd Edition. David Money Harris and Sarah L. Harris. Chapter 5 <1>

Chapter 5 Digital Design and Computer Architecture, 2 nd Edition David Money Harris and Sarah L. Harris Chapter 5 Chapter 5 :: Topics Introduction Arithmetic Circuits umber Systems Sequential Building

Arithmetic and Logic Unit First Part

Arithmetic and Logic Unit First Part Arquitectura de Computadoras Arturo Díaz D PérezP Centro de Investigación n y de Estudios Avanzados del IPN adiaz@cinvestav.mx Arquitectura de Computadoras ALU1-1 Typical

Computer Architecture ELEC2401 & ELEC3441

Last Time Pipeline Hazard Computer Architecture ELEC2401 & ELEC3441 Lecture 8 Pipelining (3) Dr. Hayden Kwok-Hay So Department of Electrical and Electronic Engineering Structural Hazard Hazard Control

10/12/2016. An FSM with No Inputs Moves from State to State. ECE 120: Introduction to Computing. Eventually, the States Form a Loop

University of Illinois at Urbana-Champaign Dept. of Electrical and Computer Engineering An FSM with No Inputs Moves from State to State What happens if an FSM has no inputs? ECE 120: Introduction to Computing

Sample Test Paper - I

Scheme G Sample Test Paper - I Course Name : Computer Engineering Group Marks : 25 Hours: 1 Hrs. Q.1) Attempt any THREE: 09 Marks a) Define i) Propagation delay ii) Fan-in iii) Fan-out b) Convert the following:

EECS150 - Digital Design Lecture 11 - Shifters & Counters. Register Summary

EECS50 - Digital Design Lecture - Shifters & Counters February 24, 2003 John Wawrzynek Spring 2005 EECS50 - Lec-counters Page Register Summary All registers (this semester) based on Flip-flops: q 3 q 2

Boolean Algebra and Digital Logic 2009, University of Colombo School of Computing

IT 204 Section 3.0 Boolean Algebra and Digital Logic Boolean Algebra 2 Logic Equations to Truth Tables X = A. B + A. B + AB A B X 0 0 0 0 3 Sum of Products The OR operation performed on the products of

Lecture 8: Sequential Networks and Finite State Machines

Lecture 8: Sequential Networks and Finite State Machines CSE 140: Components and Design Techniques for Digital Systems Spring 2014 CK Cheng, Diba Mirza Dept. of Computer Science and Engineering University

Adders, subtractors comparators, multipliers and other ALU elements

CSE4: Components and Design Techniques for Digital Systems Adders, subtractors comparators, multipliers and other ALU elements Adders 2 Circuit Delay Transistors have instrinsic resistance and capacitance

CHAPTER log 2 64 = 6 lines/mux or decoder 9-2.* C = C 8 V = C 8 C * 9-4.* (Errata: Delete 1 after problem number) 9-5.

CHPTER 9 2008 Pearson Education, Inc. 9-. log 2 64 = 6 lines/mux or decoder 9-2.* C = C 8 V = C 8 C 7 Z = F 7 + F 6 + F 5 + F 4 + F 3 + F 2 + F + F 0 N = F 7 9-3.* = S + S = S + S S S S0 C in C 0 dder

Simple Instruction-Pipelining (cont.) Pipelining Jumps

6.823, L9--1 Simple ruction-pipelining (cont.) + Interrupts Updated March 6, 2000 Laboratory for Computer Science M.I.T. http://www.csg.lcs.mit.edu/6.823 Src1 ( j / ~j ) Src2 ( / Ind) Pipelining Jumps

Combinatorial Logic Design Multiplexers and ALUs CS 64: Computer Organization and Design Logic Lecture #13

Combinatorial Logic Design Multiplexers and ALUs CS 64: Computer Organization and Design Logic Lecture #13 Ziad Matni Dept. of Computer Science, UCSB Administrative Re: Midterm Exam #2 Graded! 5/22/18

Lecture 10: Synchronous Sequential Circuits Design

Lecture 0: Synchronous Sequential Circuits Design. General Form Input Combinational Flip-flops Combinational Output Circuit Circuit Clock.. Moore type has outputs dependent only on the state, e.g. ripple

Philadelphia University Student Name: Student Number:

Philadelphia University Student Name: Student Number: Faculty of Engineering Serial Number: Final Exam, First Semester: 2017/2018 Dept. of Computer Engineering Course Title: Logic Circuits Date: 29/01/2018

Digital Circuits and Systems

EE201: Digital Circuits and Systems 4 Sequential Circuits page 1 of 11 EE201: Digital Circuits and Systems Section 4 Sequential Circuits 4.1 Overview of Sequential Circuits: Definition The circuit whose

Formal Verification of Systems-on-Chip

Formal Verification of Systems-on-Chip Wolfgang Kunz Department of Electrical & Computer Engineering University of Kaiserslautern, Germany Slide 1 Industrial Experiences Formal verification of Systems-on-Chip

Arithme(c logic units and memory

Arithme(c logic units and memory CSCI 255: Introduc/on to Embedded Systems Keith Vertanen Copyright 2011 Layers of abstrac-on abstrac(on building blocks examples computer components Macbook Pro components

ECE 3401 Lecture 23. Pipeline Design. State Table for 2-Cycle Instructions. Control Unit. ISA: Instruction Specifications (for reference)

ECE 3401 Lecture 23 Pipeline Design Control State Register Combinational Control Logic New/ Modified Control Word ISA: Instruction Specifications (for reference) P C P C + 1 I N F I R M [ P C ] E X 0 PC

Design of Sequential Circuits

Design of Sequential Circuits Seven Steps: Construct a state diagram (showing contents of flip flop and inputs with next state) Assign letter variables to each flip flop and each input and output variable

Fundamentals of Digital Design

Fundamentals of Digital Design Digital Radiation Measurement and Spectroscopy NE/RHP 537 1 Binary Number System The binary numeral system, or base-2 number system, is a numeral system that represents numeric

Sequential Logic. Rab Nawaz Khan Jadoon DCS. Lecturer COMSATS Lahore Pakistan. Department of Computer Science

Sequential Logic Rab Nawaz Khan Jadoon DCS COMSATS Institute of Information Technology Lecturer COMSATS Lahore Pakistan Digital Logic and Computer Design Sequential Logic Combinational circuits with memory

Verilog HDL:Digital Design and Modeling. Chapter 11. Additional Design Examples. Additional Figures

Chapter Additional Design Examples Verilog HDL:Digital Design and Modeling Chapter Additional Design Examples Additional Figures Chapter Additional Design Examples 2 Page 62 a b y y 2 y 3 c d e f Figure

Lecture 17: Designing Sequential Systems Using Flip Flops

EE210: Switching Systems Lecture 17: Designing Sequential Systems Using Flip Flops Prof. YingLi Tian April 11, 2019 Department of Electrical Engineering The City College of New York The City University

EXAMPLES 4/12/2018. The MIPS Pipeline. Hazard Summary. Show the pipeline diagram. Show the pipeline diagram. Pipeline Datapath and Control

The MIPS Pipeline CSCI206 - Computer Organization & Programming Pipeline Datapath and Control zybook: 11.6 Developed and maintained by the Bucknell University Computer Science Department - 2017 Hazard

Name: ID# a) Complete the state transition table for the aforementioned circuit

UNIVERSITY OF CALIFORNIA Department of Electrical Engineering and Computer Sciences EECS150 Fall 2001 Prof. Subramanian Final Examination 1) You are to design a sequential circuit with two JK FFs A and

ALU A functional unit

ALU A functional unit that performs arithmetic operations such as ADD, SUB, MPY logical operations such as AND, OR, XOR, NOT on given data types: 8-,16-,32-, or 64-bit values A n-1 A n-2... A 1 A 0 B n-1

ECE 341. Lecture # 3

ECE 341 Lecture # 3 Instructor: Zeshan Chishti zeshan@ece.pdx.edu October 7, 2013 Portland State University Lecture Topics Counters Finite State Machines Decoders Multiplexers Reference: Appendix A of

EECS Components and Design Techniques for Digital Systems. FSMs 9/11/2007

EECS 150 - Components and Design Techniques for Digital Systems FSMs 9/11/2007 Sarah Bird Electrical Engineering and Computer Sciences University of California, Berkeley Slides borrowed from David Culler

LOGIC CIRCUITS. Basic Experiment and Design of Electronics

Basic Experiment and Design of Electronics LOGIC CIRCUITS Ho Kyung Kim, Ph.D. hokyung@pusan.ac.kr School of Mechanical Engineering Pusan National University Outline Combinational logic circuits Output

Basic Computer Organization and Design Part 3/3

Basic Computer Organization and Design Part 3/3 Adapted by Dr. Adel Ammar Computer Organization Interrupt Initiated Input/Output Open communication only when some data has to be passed --> interrupt. The

Digital Circuits ECS 371

Digital Circuits ECS 371 Dr. Prapun Suksompong prapun@siit.tu.ac.th Lecture 18 Office Hours: BKD 3601-7 Monday 9:00-10:30, 1:30-3:30 Tuesday 10:30-11:30 1 Announcement Reading Assignment: Chapter 7: 7-1,

Lecture: Pipelining Basics

Lecture: Pipelining Basics Topics: Performance equations wrap-up, Basic pipelining implementation Video 1: What is pipelining? Video 2: Clocks and latches Video 3: An example 5-stage pipeline Video 4:

Table of Content. Chapter 11 Dedicated Microprocessors Page 1 of 25

Chapter 11 Dedicated Microprocessors Page 1 of 25 Table of Content Table of Content... 1 11 Dedicated Microprocessors... 2 11.1 Manual Construction of a Dedicated Microprocessor... 3 11.2 FSM + D Model

ECE290 Fall 2012 Lecture 22. Dr. Zbigniew Kalbarczyk

ECE290 Fall 2012 Lecture 22 Dr. Zbigniew Kalbarczyk Today LC-3 Micro-sequencer (the control store) LC-3 Micro-programmed control memory LC-3 Micro-instruction format LC -3 Micro-sequencer (the circuitry)

Finite State Machine (FSM)

Finite State Machine (FSM) Consists of: State register Stores current state Loads next state at clock edge Combinational logic Computes the next state Computes the outputs S S Next State CLK Current State

COE 328 Final Exam 2008

COE 328 Final Exam 2008 1. Design a comparator that compares a 4 bit number A to a 4 bit number B and gives an Output F=1 if A is not equal B. You must use 2 input LUTs only. 2. Given the following logic

Adders, subtractors comparators, multipliers and other ALU elements

CSE4: Components and Design Techniques for Digital Systems Adders, subtractors comparators, multipliers and other ALU elements Instructor: Mohsen Imani UC San Diego Slides from: Prof.Tajana Simunic Rosing

EE40 Lec 15. Logic Synthesis and Sequential Logic Circuits

EE40 Lec 15 Logic Synthesis and Sequential Logic Circuits Prof. Nathan Cheung 10/20/2009 Reading: Hambley Chapters 7.4-7.6 Karnaugh Maps: Read following before reading textbook http://www.facstaff.bucknell.edu/mastascu/elessonshtml/logic/logic3.html

Logic Design II (17.342) Spring Lecture Outline

Logic Design II (17.342) Spring 2012 Lecture Outline Class # 10 April 12, 2012 Dohn Bowden 1 Today s Lecture First half of the class Circuits for Arithmetic Operations Chapter 18 Should finish at least

Digital Logic: Boolean Algebra and Gates. Textbook Chapter 3

Digital Logic: Boolean Algebra and Gates Textbook Chapter 3 Basic Logic Gates XOR CMPE12 Summer 2009 02-2 Truth Table The most basic representation of a logic function Lists the output for all possible

Clock T FF1 T CL1 T FF2 T T T FF T T FF T CL T FF T CL T FF T T FF T T FF T CL. T cyc T H. Clock T FF T T FF T CL T FF T T FF T CL.

etup TA 60 c, vcc 3v Hold TA 30 c, vcc 5v Tkew TL TL TH FF FF 2 T cyc T H T L Clock TpdFF 2 TpdCL2Tetup FF Tcyc TL 2 2 TpdFF TpdCL Tetup FF2 TH 2 T FF T T FF T CL Hold L cd cd T FF T T FF T CL Hold L cd

Review: Designing with FSM. EECS Components and Design Techniques for Digital Systems. Lec09 Counters Outline.

Review: Designing with FSM EECS 150 - Components and Design Techniques for Digital Systems Lec09 Counters 9-28-04 David Culler Electrical Engineering and Computer Sciences University of California, Berkeley

EECS150 - Digital Design Lecture 18 - Counters

EECS150 - Digital Design Lecture 18 - Counters October 24, 2002 John Wawrzynek Fall 2002 EECS150 - Lec18-counters Page 1 Counters Special sequential circuits (FSMs) that sequence though a set outputs.

EECS150 - Digital Design Lecture 18 - Counters

EECS50 - Digital Design Lecture 8 - Counters October 24, 2002 John Wawrzynek Fall 2002 EECS50 - Lec8-counters Page Counters Special sequential circuits (FSMs) that sequence though a set outputs. Examples:

Lecture 9: Control Hazard and Resolution. James C. Hoe Department of ECE Carnegie Mellon University

18 447 Lectre 9: Control Hazard and Resoltion James C. Hoe Department of ECE Carnegie ellon University 18 447 S18 L09 S1, James C. Hoe, CU/ECE/CALC, 2018 Yor goal today Hosekeeping simple control flow

Menu. 7-Segment LED. Misc. 7-Segment LED MSI Components >MUX >Adders Memory Devices >D-FF, RAM, ROM Computer/Microprocessor >GCPU

Menu 7-Segment LED MSI Components >MUX >Adders Memory Devices >D-FF, RAM, ROM Computer/Microprocessor >GCPU Look into my... 1 7-Segment LED a b c h GND c g b d f a e h Show 7-segment LED in LogicWorks,

Load. Load. Load 1 0 MUX B. MB select. Bus A. A B n H select S 2:0 C S. G select 4 V C N Z. unit (ALU) G. Zero Detect.

9- Write D data Load eable A address A select B address B select Load R 2 2 Load Load R R2 UX 2 3 UX 2 3 2 3 Decoder D address 2 Costat i Destiatio select 28 Pearso Educatio, Ic.. orris ao & Charles R.

ELCT201: DIGITAL LOGIC DESIGN

ELCT201: DIGITAL LOGIC DESIGN Dr. Eng. Haitham Omran, haitham.omran@guc.edu.eg Dr. Eng. Wassim Alexan, wassim.joseph@guc.edu.eg Following the slides of Dr. Ahmed H. Madian Lecture 10 محرم 1439 ه Winter