Course Hero has millions of student submitted documents similar to the one
below including study guides, practice problems, reference materials, practice exams, textbook help and tutor support.
Find millions of documents on Course Hero - Study Guides, Lecture Notes, Reference Materials, Practice Exams and more.
Course Hero has millions of course specific materials providing students with the best way to expand
their education.
Below is a small sample set of documents:
Montana - EE - 335
EE335 2.50HW#5Chp2: 50-56 oddRg = 100 Vg = 60 V Z0 = 50 ZL = 25 g = V1+ =Z g - Z0 Z g - Z0 Vg Z 0 Rg + Z 0= =100 - 50 50 1 = = 100 + 50 150 3 60(50 ) = 20 100 + 50L =25 - 50 - 25 1 = =- 25 + 50 75 3=1 L = = 5 10 -9 8 u 2 10
Montana - EE - 335
EE335 8.1 a) =HW#7Chp8: 1-25 odd 2 - 1 = 2 + 10 0r2 r1 - 0 r2 r1 r2 r1 + 0 r2 r1= r1 - r 2 r1 + r 2=1 - 25 1 + 25=-4 = -0.6667 6 = 1 + = 1 + -0.6667 = 0.3333 b)~ E1 1 + 1 + 0.6667 1.6667 = =5 = S = ~ max = 1 - 1
Montana - EE - 335
EE335 8.27HW#8Chp8: 27-43 odda) polarization: H is perpendicular to the plane of incidence incidence. b) angle of incidenceE is in the plane of- jk ( x sin i + z cos i ) = - j (8 x + 6 z )~ ^ H i = y 2 10 -2 e - j (8 x +6 z )z 0, r
Montana - EE - 335
EE335 9.1HW#9 Hertzian DipoleL=Chp9: 1-13 odd, 14-17I 0 = 20( A) S max 15 I 02 = R2502R = 1000(m )215 I 02 L L -6 2 = = 7.54 10 W / m 1000 2 50 L ()9.3 120 degree cone centered on z-axis1 F ( , ) = 0 F D = max = 1
Montana - EE - 335
Page 1. 2. 3. 4. TotalPoints 25 25 25 25 100Name_EE335 Midterm Exam February 11, 2004OPEN BOOK and One page of hand written notes Time: 50 minutes All work must be shown for full credit, remember units. If excess information is given, ignore
Montana - EE - 475
EE475 Lab #31EE475 Lab #3Fall 2008Memory Placement, Interrupts, I/O Ports and Real-Time Interrupts In the first half of this lab you will investigate the way in which the CodeWarrior compiler and linker interact to place your compiled code an
Montana - EE - 467
EE 467 Advanced Embedded Systems Lab Spring 2009 Course Syllabus Course Description: Principles and applications of embedded systems using FPGAs. Students will implement microcontrollers, soft processors, and custom logic in FPGAs. Course Objective:
Montana - EE - 467
EE467 Advanced Embedded Systems Lab Spring 2009 Lab #5 March 23, 2009The object for today is to continue with our "simple system" series on the ML403 board by adding a UART to our system and using hyper-terminal to generate and receive the RS232 sig
Montana - EE - 475
EE475Lab#1ErrataAFall2008CreatingaProjectinVisualStudio2003 Ifyouarehavingproblemscreatingaprojectthatwillcompileandrun.Usethefollowstepsto getaprojectrunning. 1. FromVisualStudioselectFilethenNewandthenProject.Thiswillopenthe followingscreen.2. F
Montana - EE - 475
EE475 Lab #1 Errata A Fall 2008Creating a Project in Visual Studio 2003 If you are having problems creating a project that will compile and run. Use the follow steps to get a project running. 1. From Visual Studio select File then New and then Proje
Montana - EE - 475
EE475 Lab #1Fall 2008Getting Started With Simple C Programs The object of this lab is to use the Microsoft Visual C compiler to create, build, and run several simple C programs. We will be using other code development environments specifically de
Montana - EE - 475
EE475 Lab #1Fall 2008Getting Started With Simple C Programs The object of this lab is to use the Microsoft Visual C compiler to create, build, and run several simple C programs. We will be using other code development environments specifically de
Montana - EE - 465
Freescale Semiconductor Application NoteAN2940 Rev. 0.1, 04/2005LCD Driver for the HC08/HCS08 FamilyBy Eduardo Estrada Diego Garay Jaime Herrero RTAC Americas, MexicoOverviewThis document is a quick reference for an embedded engineer to get a
Montana - EE - 465
54321Note: Can be implemented using pushbuttons on SLK VCC R5 470 C1DRESET 1 2 0.1u U1DPIN 4 ON J6 RESET PIN6 ON J6 BKGD +3.3V C2 10u GND .1u C31 2 3 4 D3 5 D2 6 D1 7 D0 8RESET BKGD VDD VSS PTB7/SCL PTB6/SDA PTB5 PTB4PTA0 PTA1
Montana - EE - 465
Requirements Specification for EE465 Lab Project 2: Liquid-Crystal Display and KeypadLab project goal: Entries from a 16-button keypad will be displayed on an LCD and also on a single-in-line string of 8 LEDs. A 16-character-by-2 line LCD module wil
Montana - EE - 465
54321VCC C1DRESET 1 2 0.1u U1 D9 Heartbeat_LED R13 PIN 4 ON J6 RESET PIN6 ON J6 BKGD +3.3V C2 10u GND .1u C3 1 2 3 4 D3 5 D2 6 D1 7 D0 8 RESET BKGD VDD VSS PTB7/SCL PTB6/SDA PTB5 PTB4 PTA0 PTA1 PTA2/SDA PTA3/SCL PTB0 PTB1 PTB2 PTB3 16 15
Montana - EE - 465
;* ;* Program Name: Lab#1 - Example of Indexed Addressing ;* Author Name: Chris Davenport ;* Date: 02/01/2007 ;* Description: This example shows how indexed addressing can be used ;* to cycle through a table of constants. Specifically, ;* this exampl
Montana - EE - 465
Requirements Specification for EE465 Lab Project 1: Keypad and Time-Varying Patterns on Eight LEDsLab project goal: Select a Pattern and Display time-varying patterns on eight LEDs. Four distinct patterns will be displayed on eight LEDs on the SLK b
Montana - EE - 465
Requirements Specification for EE465 Lab Project 1: Keypad and Time-Varying Patterns on Eight LEDsLab project goal: Select a Pattern and Display time-varying patterns on eight LEDs. Four distinct patterns will be displayed on eight LEDs on the SLK b
Montana - EE - 465
SN54AHC138, SN74AHC138 3-LINE TO 8-LINE DECODERS/DEMULTIPLEXERSSCLS258L DECEMBER 1995 REVISED JULY 2003D D DOperating Range 2-V to 5.5-V VCC Designed Specifically for High-Speed Memory Decoders and Data-Transmission Systems Incorporate Three E
Montana - EE - 465
SN54AHC273, SN74AHC273 OCTAL D-TYPE FLIP-FLOPS WITH CLEARSCLS376G JUNE 1997 REVISED JULY 2003D D D D D D DOperating Range 2-V to 5.5-V VCC Contain Eight Flip-Flops With Single-Rail Outputs Direct Clear Input Individual Data Input to Each Flip-
Montana - EE - 465
SN54HC245, SN74HC245 OCTAL BUS TRANSCEIVERS WITH 3-STATE OUTPUTSSCLS131D DECEMBER 1982 REVISED AUGUST 2003D D DWide Operating Voltage Range of 2 V to 6 V High-Current 3-State Outputs Drive Bus Lines Directly or Up To 15 LSTTL Loads Low Power C
Montana - EE - 465
Freescale SemiconductorOrder this document by AN1820/DAN1820Freescale Semiconductor, Inc.Software I2C CommunicationsBy Brad Bierschenk MMD Applications Engineering Austin, TexasIntroductionThe I2C (inter-integrated circuit) protocol is a
Montana - EE - 465
Lithium coin-cell batteries: predicting an application lifetimeDallas Semiconductor builds a large number of products that incorporate lithium coin-cell batteries to provide nonvolatile (NV) memory or real-time clock (RTC) functionality in the absen
Montana - EE - 465
Application Note 504Design Considerations for Dallas Real-Time Clockswww.maxim-ic.comOVERVIEWA real- time clock (RTC) allows a system to synchronize or time-stamp events to a time reference that can be easily understood by the user. Because RTCs
Montana - EE - 465
THE I2C-BUS SPECIFICATION VERSION 2.1 JANUARY 2000document order number: 9398 393 40011Philips SemiconductorsThe I2C-bus specificationCONTENTS 1 1.1 1.2 1.3 1.4 2 2.1 2.2 3 4 5 6 6.1 6.2 7 7.1 7.2 8 8.1 8.2 8.3 9 10 10.1 10.1.1 10.1.2 10.1.3 1
Montana - EE - 465
54321VCC Note: Can be implemented using pushbuttons on SLK VCC R5 4700kDVCC Check the resistor values to the I2C specification R14 C1 30k R15 30k R18 10k U1 8 1 Check the resistor values to the I2C specification R9 1k VCC VCC 16 U6 1 2 3
Montana - EE - 465
Requirements Specification for EE465 Lab Project 5: Real-Time Clock with I2C Serial Two-Wire InterfaceLab project goal: Read the time/date from a DS1337 real-time clock. Display the latest values of time/date on the LCD display. Display the 1 second
Montana - EE - 451
Experiment 1Power-pole Board Familiarization1.1 IntroductionThe main feature of the Power-pole Board is the reconfigurable power-pole consisting of two MOSFETs and two diodes. The drive circuits for the MOSFETs are incorporated on the board, and s
Montana - EE - 451
Experiment 2Buck Converter2.1 ObjectiveThe objective of this experiment is to study the characteristics of a simple buck converter. The circuit will be operated under continuous current mode (CCM) and open loop conditions (no feedback). Our main
Montana - EE - 451
Experiment 3Boost Converter3.1 ObjectiveThe objective of this experiment is to study the characteristics of a simple boost converter. The circuit will be operated under CCM and openloop condition. Our main goal is to compare the theoretical result
Montana - EE - 451
Experiment 4Buck-Boost Converter4.1 ObjectiveThe objective of the experiment is to study the characteristics of the simple buck-boost converter. The circuit will be operated under CCM and openloop conditions. Our main goal is to compare the theore
Montana - EE - 451
Experiment 5Flyback Converter5.1 ObjectiveThe objective of this experiment is to study the characteristics of the flyback converter using the power-pole board in open loop control mode. Our main goal is to compare the theoretical results with the
Montana - EE - 451
Experiment 6Forward Converter6.1 ObjectiveThe objective of this experiment is to study the characteristics of the forward converter. The forward converter will be operated in open loop mode (no feedback). Our main goal is to compare the theoretica
Montana - EE - 451
Experiment 7Switching Characteristic of MOSFET and Diode7.1 ObjectiveThe objective of this experiment is to study the switching characteristics of power MOSFETs and power diodes using a buck converter. The circuit will be operated in open loop con
Montana - EE - 451
Experiment 8Voltage-Mode Control8.1 ObjectiveThe objective of this experiment, is to design a controller to operate the buck converter in voltage control mode. For this experiment, a plug-in daughter board will be used to accomplish the control ob
Montana - EE - 451
Power Electronics LaboratoryUser Manual Department of Electrical and Computer Engineering Montana State UniversitySAFETY PRECAUTIONS1 Why is safety important?Attention and adherence to safety considerations is even more important in a power elec
Montana - EE - 262
EE 262 LAB 6 Combinational Logic Design - II"Well done is better than well said." Benjamin FranklinNAME SECTION Demo Sign-off Part 1References: Pre-lab: Schedule:A digital logic textbook. Complete the truth table and K-map design for the circ
Montana - EE - 262
EE 262 LAB 3 Investigating 74LS04 Device SpecificationsWar does not determine who is right, war determine who is left.Section: Name:References: Pre-lab: During Lab:A digital logic textbook. Wire up the circuit for part 1. Do the lab. Note: Eac
Montana - EE - 262
EE 262 LAB 9 Computer Circuits - III - Shift Registers Ive learnedthat life is like a roll of toilet paper. The closer it is to the end, the faster it goes.NAME Name: _References: A digital logic textbook. Schedule: Do the lab Background: Shift r
Montana - EE - 475
EE475 Lab #6Fall 2008Investigating Task Priority This week in Lab #6 you will use the prior framework of Lab #6 to evaluate the effects of task priority in the simple non-preemptive multitask system.Preliminaries1. Start with the code you deve
Montana - EE - 467
EE467 Advanced Embedded Systems Lab Spring 2009 Lab #3 February 9, 2009The objective for today is to apply what you have learned in the previous two labs and generate a "simple" system on the ML403 board using VHDL. The Lab Assignment is as Follows:
Montana - EE - 467
SN54CBTD3384, SN74CBTD3384 10 BIT FET BUS SWITCHES WITH LEVEL SHIFTINGSCDS025R - MAY 1995 - REVISED JANUARY 2004D 5- Switch Connection Between Two Ports D TTL-Compatible Input LevelsSN54CBTD3384 . . . JT OR W PACKAGE SN74CBTD3384 . . . DB, DBQ, D
Montana - EE - 467
Application Note: CoolRunner-IIRCoolRunner-II Character LCD Module InterfaceXAPP904 (v1.0) August 22, 2005SummaryCoolRunnerTM-II CPLDs can be used to control dot-matrix liquid crystal display (LCD) modules. The low-power characteristics of L
Montana - EE - 451
EE451 Power Electronics Spring 2008 Homework Assignment 1 Design a buck converter to meet the following specifications: 1. Input voltage =15V 2. Output voltage=5V 3. Rated output power=100W 4. Inductor ripple current=20% of rated output current Requi
Montana - EE - 465
54321Note: Can be implemented using pushbuttons on SLK VCC R5 4700kD DC1 RESET 1 2 0.1u U1 C41 PIN 4 ON J6 RESET 2 PIN6 ON J6 BKGD 3 +3.3V C2 10u GND .1u C3 D3 D2 D1 D0CRESET BKGD VDD VSS PTB7/SCL PTB6/SDA PTB5 PTB4PTA0 PTA1 PTA2/
Montana - EE - 475
#include <hidef.h> /* common defines and macros */#include <mc9s12c32.h> /* derivative information */#pragma LINK_INFO DERIVATIVE "mc9s12c32"#define NUM_TASKS 3/* A global variable to hold the task enable flags */unsigned char interr
Montana - EE - 466
Computer ArchitectureAppendix C Review of Memory Hierarchy Jay Lamb, Jeff Meirhofer EE 466 Spring 2009OverviewIntroduction Cache Performance Cache Optimizations Virtual Memory Data Protection using Memory HierarchiesC.1 - Memory HierarchyLe
Montana - EE - 466
Click to editB Appendix Master subtitle styleInstruction Set Principles and ExamplesPat Kujawa5/27/09Instruction Set ArchitecturesTypes MemoryAddressingOperations Opcoding5/27/09TypeStac kAccumulat orGP RegisterPush A Push B Add
Montana - EE - 466
Computer ArchitectureChapter 5 Memory Hierarchy Jay Lamb, Jeff Meirhofer EE 466 Spring 2009Overview Introduction Eleven Advanced Optimizations of Cache Performance DRAM technology Fallacies and PitfallsIntroductionMemory Hierarchy Princi
Montana - EE - 466
CHAPTER 6 STORAGE SYSTEMSDavid SchmidtSTORAGE SYSTEMSAdvanced Topics Introduction Trends Disk PowerFaults, Errors, & Failures Case Study RAID SystemsINTRODUCTIONStorage Systems exist to advance information technologyMagnet
Montana - EE - 466
MulticorClick to edit Master subtitle style Sam Harkness5/27/09OverviewlDevelopment Hardware Software Embedded Applicationlll5/27/09Introductionl2+ independent cores in 1 package composed of 1 die, or moredies packaged together
Montana - EE - 262
EE 262 LAB 5 Combinational Logic Design - IThought of the day: Man who eat many prunes get good run for money.NAME HR Demo Schematic _ Lab Station CheckPre-lab:Complete a truth table and K-map design for the circuit described below (part 1).
Montana - EE - 467
EE467 Advanced Embedded Systems Lab Spring 2009 Individual Project April 6, 2009Purpose: The purpose of this lab is to tie together all of the concepts that you have learned in this class and allow you to apply them in a real world application of y
Montana - EE - 467
EE467 Advanced Embedded Systems Lab Spring 2009 Lab #7 April 20, 2009Introduction to Microblaze Summary: This lab is an introduction to the Microblaze soft processor and Xilinx Platform Studio. This tutorial will walk you through running a simpl
Montana - EE - 475
Laboratory Short CourseDigital Input and Output With Cwww.freescale.com/universityprogramsFreescale and the Freescale logo are trademarks of Freescale Semiconductor, Inc. All other product or service names are the property of their respective o
Montana - EE - 475
Laboratory Short CourseIntroduction to Interrupts Using Cwww.freescale.com/universityprogramsFreescaleTM and the Freescale logo are trademarks of Freescale Semiconductor, Inc. All other product or service names are the property of their respect
Montana - EE - 261
EE 261 Introduction to Logic Circuits Fall, 2008 Homework Set #10 Due: 12/5/08 at the beginning of class Name: Grade: _ _ /10NOTE: Print this sheet and use as a cover for your homework set. Attach your solutions on engineering paper with your name
Montana - EE - 465
54321VCC Note: Can be implemented using pushbuttons on SLK VCC R5 4700kDThis device is located on the TEC test fixture VCC J1 R17 R14 R15 30k R12 1k R13 LM92 8 7 R9 1k VCC VCC 16 U6 1 2 3 6 4 5 A B C G1 G2A G2B R16 Y0 Y1 Y2 Y3 Y4 Y5 Y6 Y
Montana - EE - 465
Requirements Specification for EE465 Lab Project 6: Digital Temperature Sensor with I2C Serial Two-Wire InterfaceLab project goal: Read the temperature from an LM92 digital temperature sensor via I2C communication and display the latest value on the
Montana - EE - 465
54321NOTE: The relays are in parallel and not in H-Bridge configurationD+12V 8 HEADER J1 TEC HEAT TEC COOL 1 2 3 4 5 6 7 8D+12V +12V455 RED BLACKLS3A RELAY SPDT HE 34 LS1A RELAY SPDT HE 3HEATSINKC C455 LS4A RELAY S