Finite State Machines
|
|
|
- Harriet Morris
- 5 years ago
- Views:
Transcription
1 Lab Workbook Introduction (FSM) are sequential circuit used in many digital systems to control the behavior of systems and dataflow paths. Examples of FSM include control units and sequencers. This lab introduces the concept of two types of FSMs, Mealy and Moore, and the modeling styles to develop such machines. Please refer to the PlanAhead tutorial on how to use the PlanAhead tool for creating projects and verifying digital circuits. Objectives After completing this lab, you will be able to: Model Mealy FSMs Model Moore FSMs Mealy FSM Part 1 A finite-state machine (FSM) or simply a state machine is used to design both computer programs and sequential logic circuits. It is conceived as an abstract machine that can be in one of a finite number of user-defined states. The machine is in only one state at a time; the state it is in at any given time is called the current state. It can change from one state to another when initiated by a triggering event or condition; this is called a transition. A particular FSM is defined by a list of its states, and the triggering condition for each transition. The behavior of state machines can be observed in many devices in modern society performing a predetermined sequence of actions depending on a sequence of events with which they are presented. Simple examples are vending machines which dispense products when the proper combination of coins are deposited, elevators which drop riders off at upper floors before going down, traffic lights which change sequence when cars are waiting, and combination locks which require the input of combination numbers in the proper order. The state machines are modeled using two basic types of sequential networks- Mealy and Moore. In a Mealy machine, the output depends on both the present (current) state and the present (current) inputs. In Moore machine, the output depends only on the present state. A general model of a Mealy sequential machine consists of a combinatorial network, which generates the outputs and the next state, and a state register which holds the present state as shown below. The state register is normally modeled as D flip-flops. The state register must be sensitive to a clock edge. The other block(s) can be modeled either using the always procedural block or a mixture of the always procedural block and dataflow modeling statements; the always procedural block will have to be sensitive to all inputs being read into the block and must have all output defined for every branch in order to model it as a combinatorial block. The two blocks Mealy machine can be viewed as Here are the state diagram of a parity checker Mealy machine and the associated model. Nexys3 10-1
2 Lab Workbook type state_type is (S0, S1); signal state, next_state : state_type; SYNC_PROC : process (clk) if rising_edge(clk) then if (reset = '1') then state <= S0; state <= next_state; NEXT_STATE_DECODE : process (state, x) The three blocks Mealy machine and the associated model are shown below. Nexys
3 Lab Workbook type state_type is (S0, S1); signal state, next_state : state_type; SYNC_PROC : process (clk) if rising_edge(clk) then if (reset = '1') then state <= S0; state <= next state; OUTPUT_DECODE : process (state, x) if (x = '0') then NEXT_STATE_DECODE : process (state, x) if (x = '0') then The state assignments can be of one-hot, binary, gray-code, and other types. Usually, the synthesis tool will determine the type of the state assignment, but user can also force a particular type by changing the synthesis property as shown below. The state assignment type will have an impact on the number of bits used in the state register; one-hot encoding using maximum number of bits but decodes very fast to compact (binary) encoding using smallest number of bits but taking longer to decode. Nexys3 10-3
4 Lab Workbook 1-1. Design a sequence detector implementing a Mealy state machine using three always blocks. The Mealy state machine has one input (ain) and one output (y out ). The output y out is 1 if and only if the total number of 1s received is divisible by 3 (hint: 0 is inclusive, however, reset cycle(s) do not count as 0- see in simulation waveform time=200). Develop a testbench and verify the model through a behavioral simulation. Use SW0 as the clock input, SW1 as the ain input, the BTNU button as reset input to the circuit, number of 1s count on LED7:LED4, and LED0 as the y out output. Go through the design flow, generate the bitstream, and download it into the Nexys3 board. Verify the functionality. Moore FSM Part 2 A general model of a Moore sequential machine is shown below. Its output is generated from the state register block. The next state is determined using the present (current) input and the present (current) state. Here the state register is also modeled using D flip-flops. Normally Moore machines are described using three blocks, one of which must be a sequential and the other two can be modeled using always blocks or a combination of always and dataflow modeling constructs. Here is the state graph of the same parity checker to be modeled as a Moore machine. The associate model is shown below. Nexys
5 Lab Workbook type state_type is (S0, S1); signal state, next_state : state_type; SYNC_PROC : process (clk) if rising_edge(clk) then if (reset = '1') then state <= S0; state <= next_state; OUTPUT_DECODE : process (state) NEXT_STATE_DECODE : process (state, x) if (x = '0') then 2-1. Design a sequence detector implementing a Moore state machine using three always blocks. The Moore state machine has two inputs (ain[1:0]) and one output (yout). The output yout s as 0 and remains a constant value unless one of the following input sequences occurs: Nexys3 10-5
6 Lab Workbook (i) The input sequence ain[1:0] = 01, 00 causes the output to become 0 (ii) The input sequence ain[1:0] = 11, 00 causes the output to become 1 (iii) The input sequence ain[1:0] = 10, 00 causes the output to toggle. Develop a testbench (similar to the waveform shown below) and verify the model through a behavioral simulation. Use SW0 as the clock input, SW2- SW1 as the ain[1:0] input, the BTNU button as reset input to the circuit, and LED0 as the yout output. Go through the design flow, generate the bitstream, and download it into the Nexys3 board. Verify the functionality. Mealy FSM Using ROM Part 3 A Mealy sequential machine can also be implemented using a ROM memory as shown below. The ROM memory holds the next state and output content. The external inputs and the current state form the address input to the ROM. The ROM typically is implemented using LUTs instead of Block RAM since LUTs give a better utilization ratio resulting from a smaller number of states in a design Design a specific counts counter (counting sequence listed below) using ROM to develop a Mealy state machine. Develop a testbench and verify the model through behavioral simulation. Use SW0 as the clock input, the BTNU button as reset input to the circuit, and LED2:LED0 as the count output of the counter. Go through the design flow, generate the bitstream, and download it into the Nexys3 board. Verify the functionality. The counting sequence will be: 000, 001, 011, 101, 111, 010 (repeat) 000, Conclusion In this lab, you learned Mealy and Moore state machine modeling methodologies. You designed and implemented sequence detector, a sequence generator, and code converters using the two and three always blocks styles. Nexys
Finite State Machines
Lab Workbook Introduction (FSM) are sequential circuit used in many digital systems to control the behavior of systems and dataflow paths. Examples of FSM include control units and sequencers. This lab
Laboratory Exercise 3 Davide Rossi DEI University of Bologna AA
Laboratory Exercise 3 Davide Rossi DEI University of Bologna AA 2017-2018 Objectives Summary of finite state machines (Mealy, Moore) Description of FSMs in System Verilog Design of control blocks based
FSM Components. FSM Description. HDL Coding Methods. Chapter 7: HDL Coding Techniques
FSM Components XST features: Specific inference capabilities for synchronous Finite State Machine (FSM) components. Built-in FSM encoding strategies to accommodate your optimization goals. You may also
Behavioral Modeling and Timing Constraints
Lab Workbook Introduction Behavioral modeling was introduced in Lab 1 as one of three widely used modeling styles. Additional capabilities with respect to testbenches were further introduced in Lab 4.
Multi-Output Circuits: Encoders, Decoders, and
Multi-Output Circuits: Encoders, Decoders, and Memories Introduction Boolean expressions are used to output a Boolean function of number of variables. Dataflow construct can be used to model such functions.
ECE 551: Digital System *
ECE 551: Digital System * Design & Synthesis Lecture Set 5 5.1: Verilog Behavioral Model for Finite State Machines (FSMs) 5.2: Verilog Simulation I/O and 2001 Standard (In Separate File) 3/4/2003 1 Explicit
ECE 2300 Digital Logic & Computer Organization. More Finite State Machines
ECE 2300 Digital Logic & Computer Organization Spring 2018 More Finite State Machines Lecture 9: 1 Announcements Prelab 3(B) due tomorrow Lab 4 to be released tonight You re not required to change partner(s)
State Machine Descriptions
State Machine Descriptions Can be modelled using many different coding styles Style guidelines available for Moore or Mealy type machines Several encoding schemes for state variables used in FSM descriptions
EECS150 - Digital Design Lecture 20 - Finite State Machines Revisited
EECS150 - Digital Design Lecture 20 - Finite State Machines Revisited April 2, 2009 John Wawrzynek Spring 2009 EECS150 - Lec20-fsm Page 1 Finite State Machines (FSMs) FSM circuits are a type of sequential
VHDL Modeling Behavior from Synthesis Perspective -Part B - EL 310 Erkay Savaş Sabancı University
VHDL Modeling Behavior from Synthesis Perspective -Part B - EL 310 Erkay Savaş Sabancı University 1 The Wait Statement Syntax wait until condition; Different forms wait until(clk event and clk = 1 ); wait
Lecture 08 Finite State Machine Design Using VHDL
Lecture 08 Finite State Machine Design Using VHDL 10/1/2006 ECE 358: Introduction to VHDL Lecture 8-1 Today Sequential digital logic system design state diagram/state graph 10/1/2006 ECE 358: Introduction
Finite State Machines (FSM) Description in VHDL. Review and Synthesis
Finite State Machines (FSM) Description in VHDL Review and Synthesis FSM Review A sequential circuit that is implemented in a fixed number of possible states is called a Finite State Machine (FSM). Finite
EE 231 Fall EE 231 Homework 8 Due October 20, 2010
EE 231 Homework 8 Due October 20, 20 1. Consider the circuit below. It has three inputs (x and clock), and one output (z). At reset, the circuit starts with the outputs of all flip-flops at 0. x z J Q
EE178 Lecture Verilog FSM Examples. Eric Crabill SJSU / Xilinx Fall 2007
EE178 Lecture Verilog FSM Examples Eric Crabill SJSU / Xilinx Fall 2007 In Real-time Object-oriented Modeling, Bran Selic and Garth Gullekson view a state machine as: A set of input events A set of output
Behavioral Modeling and Timing Constraints
Introduction Behavioral modeling was introduced in Lab 1 as one of three widely used modeling styles. Additional capabilities with respect to testbenches were further introduced in Lab 4. However, there
Verilog Sequential Logic. Verilog for Synthesis Rev C (module 3 and 4)
Verilog Sequential Logic Verilog for Synthesis Rev C (module 3 and 4) Jim Duckworth, WPI 1 Sequential Logic Module 3 Latches and Flip-Flops Implemented by using signals in always statements with edge-triggered
Graduate Institute of Electronics Engineering, NTU. Lecturer: Chihhao Chao Date:
Design of Datapath Controllers and Sequential Logic Lecturer: Date: 2009.03.18 ACCESS IC LAB Sequential Circuit Model & Timing Parameters ACCESS IC LAB Combinational Logic Review Combinational logic circuits
Counters, Timers and Real-Time Clock
Introduction In the previous lab, you learned how the Architectural Wizard can be used to generate a desired clock frequency and how the IP Catalog can be used to generate various cores including counters.
Finite-State Machine (FSM) Design
1 Finite-State Machine (FSM) Design FSMs, an important category of sequential circuits, are used frequently in designing digital systems. From the daily used electronic machines to the complex digital
Digital System Design with SystemVerilog
Digital System Design with SystemVerilog Mark Zwolinski AAddison-Wesley Upper Saddle River, NJ Boston Indianapolis San Francisco New York Toronto Montreal London Munich Paris Madrid Capetown Sydney Tokyo
ECE 2300 Digital Logic & Computer Organization. More Verilog Finite State Machines
ECE 2300 Digital Logic & Computer Organization Spring 2018 More Verilog Finite Machines Lecture 8: 1 Prelim 1, Thursday 3/1, 1:25pm, 75 mins Arrive early by 1:20pm Review sessions Announcements Monday
Finite State Machines
Finite State Machines Design methodology for sequential logic -- identify distinct states -- create state transition diagram -- choose state encoding -- write combinational Verilog for next-state logic
Timing in synchronous systems
BO 1 esign of sequential logic Outline Timing in synchronous networks Synchronous processes in VHL VHL-code that introduces latches andf flip-flops Initialization of registers Mealy- and Moore machines
ECE 4514 Digital Design II. Spring Lecture 15: FSM-based Control
ECE 4514 Digital Design II Lecture 15: FSM-based Control A Design Lecture Overview Finite State Machines Verilog Mapping: one, two, three always blocks State Encoding User-defined or tool-defined State
FSM and Efficient Synthesizable FSM Design using Verilog
FSM and Efficient Synthesizable FSM Design using Verilog Introduction There are many ways to code FSMs including many very poor ways to code FSMs. This lecture offers guidelines for doing efficient coding,
ECE 2300 Digital Logic & Computer Organization. More Verilog Finite State Machines
ECE 2300 Digital Logic & Computer Organization Spring 2017 More Verilog Finite State Machines Lecture 8: 1 Announcements 1 st batch of (raw) quiz scores released on CMS Solutions to HW 1-3 released on
ECE Digital Design Laboratory. Lecture 3 Finite State Machines!
ECE 4401 - Digital Design Laboratory Lecture 3 Finite State Machines! 1!!!! Synchronous Sequential Circuits!!! Synchronous sequential logic circuits are realized using combinational logic and storage elements
Sequential Logic Implementation. Mealy vs. Moore Machines. Specifying Outputs for a Mealy Machine. Specifying Outputs for a Moore Machine
uential Logic Implementation! Models for representing sequential circuits " bstraction of sequential elements " Finite state machines and their state diagrams " Inputs/ " Mealy, Moore, and synchronous
DIGITAL LOGIC DESIGN VHDL Coding for FPGAs Unit 6
DIGITAL LOGIC DESIGN VHDL Coding for FPGAs Unit 6 FINITE STATE MACHINES (FSMs) Moore Machines Mealy Machines Algorithmic State Machine (ASM) charts FINITE STATE MACHINES (FSMs) Classification: Moore Machine:
Creating Safe State Machines
Creating Safe State Machines Definition & Overview Finite state machines are widely used in digital circuit designs. Generally, when designing a state machine using a hardware description language (HDL),
CSE 260 Introduction to Digital Logic and Computer Design. Exam 1. Your name 2/13/2014
CSE 260 Introduction to Digital Logic and Computer Design Jonathan Turner Exam 1 Your name 2/13/2014 1. (10 points) Draw a logic diagram that implements the expression A(B+C)(C +D)(B+D ) directly (do not
CSE140L: Components and Design Techniques for Digital Systems Lab. FSMs. Instructor: Mohsen Imani. Slides from Tajana Simunic Rosing
CSE4L: Components and Design Techniques for Digital Systems La FSMs Instructor: Mohsen Imani Slides from Tajana Simunic Rosing Source: Vahid, Katz Flip-flops Hardware Description Languages and Sequential
FPGA for Software Engineers
FPGA for Software Engineers Course Description This course closes the gap between hardware and software engineers by providing the software engineer all the necessary FPGA concepts and terms. The course
EECS Components and Design Techniques for Digital Systems. Lec 07 PLAs and FSMs 9/ Big Idea: boolean functions <> gates.
Review: minimum sum-of-products expression from a Karnaugh map EECS 5 - Components and Design Techniques for Digital Systems Lec 7 PLAs and FSMs 9/2- David Culler Electrical Engineering and Computer Sciences
Blocking(=) vs Nonblocking (<=) Assignment. Lecture 3: Modeling Sequential Logic in Verilog HDL. Procedural assignments
Blocking(=) vs Nonblocking (
Digital Design Using Digilent FPGA Boards -- Verilog / Active-HDL Edition
Digital Design Using Digilent FPGA Boards -- Verilog / Active-HDL Edition Table of Contents 1. Introduction to Digital Logic 1 1.1 Background 1 1.2 Digital Logic 5 1.3 Verilog 8 2. Basic Logic Gates 9
Used to perform operations many times. See previous Parallel to Serial Example
Loops- I Used to perform operations many times See previous Parallel to Serial Example Several advantages Coding style (easier to read) Laziness! When used correctly can generate better results at synthesis
Control in Digital Systems
CONTROL CIRCUITS Control in Digital Systems Three primary components of digital systems Datapath (does the work) Control (manager, controller) Memory (storage) B. Baas 256 Control in Digital Systems Control
RTL Design (Using ASM/SM Chart)
Digital Circuit Design and Language RTL Design (Using ASM/SM Chart) Chang, Ik Joon Kyunghee University Process of Logic Simulation and Synthesis Design Entry HDL Description Logic Simulation Functional
: : (91-44) (Office) (91-44) (Residence)
Course: VLSI Circuits (Video Course) Faculty Coordinator(s) : Prof. S. Srinivasan Department of Electrical Engineering Indian Institute of Technology Madras Chennai 600036 Email Telephone : srinis@iitm.ac.in,
Programable Logic Devices
Programable Logic Devices In the 1970s programmable logic circuits called programmable logic device (PLD) was introduced. They are based on a structure with an AND- OR array that makes it easy to implement
Modeling Concepts. Introduction
Introduction Verilog HDL modeling language supports three kinds of modeling styles: gate-level, dataflow, and behavioral. The gate-level and datafow modeling are used to model combinatorial circuits whereas
DIGITAL LOGIC WITH VHDL (Fall 2013) Unit 6
DIGITAL LOGIC WITH VHDL (Fall 2013) Unit 6 FINITE STATE MACHINES (FSMs) Moore Machines Mealy Machines FINITE STATE MACHINES (FSMs) Classification: Moore Machine: Outputs depend only on the current state
Lecture 3. Behavioral Modeling Sequential Circuits. Registers Counters Finite State Machines
Lecture 3 Behavioral Modeling Sequential Circuits Registers Counters Finite State Machines Behavioral Modeling Behavioral Modeling Behavioral descriptions use the keyword always, followed by optional event
Outline. EECS Components and Design Techniques for Digital Systems. Lec 11 Putting it all together Where are we now?
Outline EECS 5 - Components and Design Techniques for Digital Systems Lec Putting it all together -5-4 David Culler Electrical Engineering and Computer Sciences University of California Berkeley Top-to-bottom
Sequential Circuits. inputs Comb FFs. Outputs. Comb CLK. Sequential logic examples. ! Another way to understand setup/hold/propagation time
Sequential Circuits! Another way to understand setup/hold/propagation time inputs Comb FFs Comb Outputs CLK CSE 37 Spring 2 - Sequential Logic - Sequential logic examples! Finite state machine concept
Multi-Output Circuits: Encoders, Decoders, and
Multi-Output Circuits: Encoders, Decoders, and Memories Introduction Boolean expressions are used to output a Boolean function of number of variables. Dataflow construct like assign can be used to model
CprE 583 Reconfigurable Computing
Recap 4:1 Multiplexer CprE / ComS 583 Reconfigurable Computing Prof. Joseph Zambreno Department of Electrical and Computer Engineering Iowa State University Lecture #18 VHDL for Synthesis I LIBRARY ieee
V1 - VHDL Language. FPGA Programming with VHDL and Simulation (through the training Xilinx, Lattice or Actel FPGA are targeted) Objectives
Formation VHDL Language: FPGA Programming with VHDL and Simulation (through the training Xilinx, Lattice or Actel FPGA are targeted) - Programmation: Logique Programmable V1 - VHDL Language FPGA Programming
Laboratory Finite State Machines and Serial Communication
Laboratory 11 11. Finite State Machines and Serial Communication 11.1. Objectives Study, design, implement and test Finite State Machines Serial Communication Familiarize the students with Xilinx ISE WebPack
Verilog for High Performance
Verilog for High Performance Course Description This course provides all necessary theoretical and practical know-how to write synthesizable HDL code through Verilog standard language. The course goes
Finite State Machines (FSMs) and RAMs and CPUs. COS 116, Spring 2011 Sanjeev Arora
Finite State Machines (FSMs) and RAMs and CPUs COS 116, Spring 2011 Sanjeev Arora Recap Combinational logic circuits: no cycles, hence no memory Sequential circuits: cycles allowed; can have memory as
Last Lecture: Divide by 3 FSM
Last Lecture: Divide by 3 FSM Output should be 1 every 3 clock cycles S2 S0 S1 The double circle indicates the reset state Slide derived from slides by Harris & Harris from their book 1 Finite State Machines
Mealy and Moore examples
CSE 37 Spring 26 Introduction to igital esign ecture 2: uential ogic Technologies ast ecture Moore and Mealy Machines Today uential logic technologies Ving machine: Moore to synch. Mealy OPEN = creates
Final Exam Review. b) Using only algebra, prove or disprove the following:
EE 254 Final Exam Review 1. The final exam is open book and open notes. It will be made up of problems similar to those on the previous 3 hour exams. For review, be sure that you can work all of the problems
In the previous lecture, we examined how to analyse a FSM using state table, state diagram and waveforms. In this lecture we will learn how to design
1 In the previous lecture, we examined how to analyse a FSM using state table, state diagram and waveforms. In this lecture we will learn how to design a fininte state machine in order to produce the desired
In the previous lecture, we examined how to analyse a FSM using state table, state diagram and waveforms. In this lecture we will learn how to design
In the previous lecture, we examined how to analyse a FSM using state table, state diagram and waveforms. In this lecture we will learn how to design a fininte state machine in order to produce the desired
CHAPTER - 2 : DESIGN OF ARITHMETIC CIRCUITS
Contents i SYLLABUS osmania university UNIT - I CHAPTER - 1 : BASIC VERILOG HDL Introduction to HDLs, Overview of Digital Design With Verilog HDL, Basic Concepts, Data Types, System Tasks and Compiler
PDHonline Course G349. State Machines. Mark A. Strain, P.E. PDH Online PDH Center
PDHonline Course G349 State Machines Mark A. Strain, P.E. 2013 PDH Online PDH Center 5272 Meadow Estates Drive Fairfax, VA 22030-6658 Phone & Fax: 703-988-0088 www.pdhonline.org www.pdhcenter.com An Approved
ECEU530. Homework 4 due Wednesday Oct 25. ECE U530 Digital Hardware Synthesis. VHDL for Synthesis with Xilinx. Schedule
EEU530 EE U530 igital Hardware Synthesis Lecture 11: Prof. Miriam Leeser mel@coe.neu.edu October 18, 2005 Sequential Logic in VHL Finite State Machines in VHL Project proposals due now HW 4 due Wednesday,
RealDigital. Problem Set #7 S1 S2 S3 Y Z X Y + Y Z X Z
Problem Set #7 RealDigital 1. (10 points) Modify the state diagram branching conditions in the diagrams below as needed to ensure the sum and exclusion rules are obeyed in each case. You can add a holding
VHDL for Synthesis. Course Description. Course Duration. Goals
VHDL for Synthesis Course Description This course provides all necessary theoretical and practical know how to write an efficient synthesizable HDL code through VHDL standard language. The course goes
Designing Safe Verilog State Machines with Synplify
Designing Safe Verilog State Machines with Synplify Introduction One of the strengths of Synplify is the Finite State Machine compiler. This is a powerful feature that not only has the ability to automatically
ECE 551 Digital System Design and Synthesis. Instructor: Kewal K. Saluja. Midterm Exam
Last (family) name: First (given) name: Student I.D. #: Department of Electrical and Computer Engineering University of Wisconsin - Madison ECE 551 Digital System Design and Synthesis Instructor: Kewal
Graduate Institute of Electronics Engineering, NTU Design of Datapath Controllers
Design of Datapath Controllers Lecturer: Wein-Tsung Shen Date: 2005.04.01 ACCESS IC LAB Outline Sequential Circuit Model Finite State Machines Useful Modeling Techniques pp. 2 Model of Sequential Circuits
Sequential Logic Design
Sequential Logic Design Design of Digital Circuits 2017 Srdjan Capkun Onur Mutlu (Guest starring: Frank K. Gürkaynak and Aanjhan Ranganathan) http://www.syssec.ethz.ch/education/digitaltechnik_17 Adapted
Sequential Logic - Module 5
Sequential Logic Module 5 Jim Duckworth, WPI 1 Latches and Flip-Flops Implemented by using signals in IF statements that are not completely specified Necessary latches or registers are inferred by the
FSM-based Digital Design using Veriiog HDL
FSM-based Digital Design using Veriiog HDL Peter Minns lan Elliott Northumbria University, UK John Wiley & Sons, Ltd Contents Preface Acknowledgements xi xv 1 Introduction to Finite-State Machines and
Sign here to give permission for your test to be returned in class, where others might see your score:
EEL 4712 Midterm 2 Spring 216 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)
Introduction to Verilog and ModelSim. (Part 6 State Machines)
Introduction to Verilog and ModelSim (Part 6 State Machines) State Machine Actually, a Finite State Machine (FSM) mathematical model of computation abstract machine with finite states can only be in ONE
Code No: 07A3EC03 Set No. 1
Code No: 07A3EC03 Set No. 1 II B.Tech I Semester Regular Examinations, November 2008 SWITCHING THEORY AND LOGIC DESIGN ( Common to Electrical & Electronic Engineering, Electronics & Instrumentation Engineering,
Music. Numbers correspond to course weeks EULA ESE150 Spring click OK Based on slides DeHon 1. !
MIC Lecture #7 Digital Logic Music 1 Numbers correspond to course weeks sample EULA D/A 10101001101 click OK Based on slides 2009--2018 speaker MP Player / iphone / Droid DeHon 1 2 A/D domain conversion
FINITE STATE MACHINES (FSM) DESCRIPTION IN VHDL. Cristian Sisterna UNSJ
FINITE STATE MACHINES (FSM) DESCRIPTION IN VHDL UNSJ FSM Review 2 A sequential circuit that is implemented in a fixed number of possible states is called a Finite State Machine (FSM). Finite state machines
Laboratory Exercise 7
Laboratory Exercise 7 Finite State Machines This is an exercise in using finite state machines. Part I We wish to implement a finite state machine (FSM) that recognizes two specific sequences of applied
Numbering Systems. Number Representations Part 1
Introduction Verilog HDL modeling language allows numbers being represented in several radix systems. The underlying circuit processes the number in binary, however, input into and output from such circuits
Sequential Circuit Design: Principle
Sequential Circuit Design: Principle Chapter 8 1 Outline 1. Overview on sequential circuits 2. Synchronous circuits 3. Danger of synthesizing asynchronous circuit 4. Inference of basic memory elements
Storage Elements & Sequential Circuits
Storage Elements & Sequential Circuits LC-3 Data Path Revisited Now Registers and Memory 5-2 Combinational vs. Sequential Combinational Circuit always gives the same output for a given set of inputs Øex:
B.10 Finite State Machines B.10
B.10 Finite State Machines B-67 128-bit word needs 8. This type of code is called a Hamming code, after R. Hamming, who described a method for creating such codes. B.10 Finite State Machines B.10 As we
R07. Code No: V0423. II B. Tech II Semester, Supplementary Examinations, April
SET - 1 II B. Tech II Semester, Supplementary Examinations, April - 2012 SWITCHING THEORY AND LOGIC DESIGN (Electronics and Communications Engineering) Time: 3 hours Max Marks: 80 Answer any FIVE Questions
CS 151 Final. Q1 Q2 Q3 Q4 Q5 Total Credit Score. Instructions: Student ID. (Last Name) (First Name) Signature
CS 151 Final Name Student ID Signature :, (Last Name) (First Name) : : Instructions: 1. Please verify that your paper contains 15 pages including this cover. 2. Write down your Student-Id on the top of
Modeling of Finite State Machines. Debdeep Mukhopadhyay
Modeling of Finite State Machines Debdeep Mukhopadhyay Definition 5 Tuple: (Q,Σ,δ,q 0,F) Q: Finite set of states Σ: Finite set of alphabets δ: Transition function QχΣ Q q 0 is the start state F is a set
VHDL. VHDL History. Why VHDL? Introduction to Structured VLSI Design. Very High Speed Integrated Circuit (VHSIC) Hardware Description Language
VHDL Introduction to Structured VLSI Design VHDL I Very High Speed Integrated Circuit (VHSIC) Hardware Description Language Joachim Rodrigues A Technology Independent, Standard Hardware description Language
Lecture #1: Introduction
Lecture #1: Introduction Kunle Olukotun Stanford EE183 January 8, 20023 What is EE183? EE183 is continuation of EE121 Digital Logic Design is a a minute to learn, a lifetime to master Programmable logic
DIGITAL SYSTEM DESIGN
DIGITAL SYSTEM DESIGN Prepared By: Engr. Yousaf Hameed Lab Engineer BASIC ELECTRICAL & DIGITAL SYSTEMS LAB DEPARTMENT OF ELECTRICAL ENGINEERING Digital System Design 1 Name: Registration No: Roll No: Semester:
Summary of FPGA & VHDL
FYS4220/9220 Summary of FPGA & VHDL Lecture #6 Jan Kenneth Bekkeng, University of Oslo - Department of Physics 16.11.2011 Curriculum (VHDL & FPGA part) Curriculum (Syllabus) defined by: Lectures Lecture6:
Lecture 32: SystemVerilog
Lecture 32: SystemVerilog Outline SystemVerilog module adder(input logic [31:0] a, input logic [31:0] b, output logic [31:0] y); assign y = a + b; Note that the inputs and outputs are 32-bit busses. 17:
Digital Design with SystemVerilog
Digital Design with SystemVerilog Prof. Stephen A. Edwards Columbia University Spring 25 Synchronous Digital Design Combinational Logic Sequential Logic Summary of Modeling Styles Testbenches Why HDLs?
ECE 545 Lecture 12. Datapath vs. Controller. Structure of a Typical Digital System Data Inputs. Required reading. Design of Controllers
ECE 545 Lecture 12 Design of Controllers Finite State Machines and Algorithmic State Machine (ASM) Charts Required reading P. Chu, using VHDL Chapter 1, Finite State Machine: Principle & Practice Chapter
PINE TRAINING ACADEMY
PINE TRAINING ACADEMY Course Module A d d r e s s D - 5 5 7, G o v i n d p u r a m, G h a z i a b a d, U. P., 2 0 1 0 1 3, I n d i a Digital Logic System Design using Gates/Verilog or VHDL and Implementation
Two HDLs used today VHDL. Why VHDL? Introduction to Structured VLSI Design
Two HDLs used today Introduction to Structured VLSI Design VHDL I VHDL and Verilog Syntax and ``appearance'' of the two languages are very different Capabilities and scopes are quite similar Both are industrial
Lecture 12 VHDL Synthesis
CPE 487: Digital System Design Spring 2018 Lecture 12 VHDL Synthesis Bryan Ackland Department of Electrical and Computer Engineering Stevens Institute of Technology Hoboken, NJ 07030 1 What is Synthesis?
Lab 1: Verilog Synthesis and FSMs
Lab 1: Verilog Synthesis and FSMs Contents 0 Introduction... 1 1 Prelab... 1 2 Design Details... 2 Overview... 2 ButtonParse... 3 RotaryEncoder... 3 Lab2Counter... 4 Lab2Lock... 4 3 Analysis... 6 0 Introduction
problem maximum score 1 10pts 2 8pts 3 10pts 4 12pts 5 7pts 6 7pts 7 7pts 8 17pts 9 22pts total 100pts
University of California at Berkeley College of Engineering epartment of Electrical Engineering and Computer Sciences EECS150 J. Wawrzynek Spring 2003 2/21/03 Exam I Solutions Name: I number: This is a
EITF35 - Introduction to Structured VLSI Design (Fall ) 7. Assignment 3 - Arithmetic Logic Unit (ALU)
EITF35 - Introduction to Structured VLSI Design (Fall 2018 2016 2015) 7 Assignment 3 - Arithmetic Logic Unit (ALU) v.1.1.0 Introduction In this lab assignment, a simple arithmetic logic unit (ALU) will
Luleå University of Technology Kurskod SMD152 Datum Skrivtid
Luleå University of Technology Kurskod SMD152 Datum 2003-10-24 Skrivtid 9.00 13.00 1 Manual synthesis (10 p, 2 p each) Here you are given five different VHDL models. Your task is to draw the schematics
General FSM design procedure
Sequential logic examples Basic design approach: a 4-step design process Hardware description languages and finite state machines Implementation examples and case studies finite-string pattern recognizer
KINGS COLLEGE OF ENGINEERING DEPARTMENT OF ELECTRICAL AND ELECTRONICS ENGINEERING QUESTION BANK NAME OF THE SUBJECT: EE 2255 DIGITAL LOGIC CIRCUITS
KINGS COLLEGE OF ENGINEERING DEPARTMENT OF ELECTRICAL AND ELECTRONICS ENGINEERING QUESTION BANK NAME OF THE SUBJECT: EE 2255 DIGITAL LOGIC CIRCUITS YEAR / SEM: II / IV UNIT I BOOLEAN ALGEBRA AND COMBINATIONAL
Sequential Circuit Design: Principle
Sequential Circuit Design: Principle Chapter 8 1 Outline 1. Overview on sequential circuits 2. Synchronous circuits 3. Danger of synthesizing async circuit 4. Inference of basic memory elements 5. Simple
2015 Paper E2.1: Digital Electronics II
s 2015 Paper E2.1: Digital Electronics II Answer ALL questions. There are THREE questions on the paper. Question ONE counts for 40% of the marks, other questions 30% Time allowed: 2 hours (Not to be removed
The University of Alabama in Huntsville ECE Department CPE Midterm Exam February 26, 2003
The University of Alabama in Huntsville ECE Department CPE 526 01 Midterm Exam February 26, 2003 1. (20 points) Describe the following logic expression (A B D) + (A B C) + (B C ) with a structural VHDL