DOCSLIB.ORG

Stk503 & Stk504

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Stk503 & Stk504 R Introduction Atmel MCU Training - ASIA 2004 December 2004 The beginning R • AVR started as a student project / diploma thesis at NTNU (University of Trondheim) • In 91/92 the students Alf-Egil Bogen and Vegard Wollan started their idea of designing “a perfect RISC processor” • The results where a processor; with assembler and simulator. • They named it µRISC and it was used in several ASICs by a local ASIC company. • But in 1995 the time was right to market it as a dedicated product... 2 Atmel Corporation R • Atmel Corporation was choicen as partner; due to that they where, and still are, the worlds leading vendor of FLASH and EEPROM memories. • What could Atmel offer µRISC? − Technology µRISC could become one of the first microcontrollers with Flash program memory The competitors program memory where mainly EPROM or ROM − Semiconductor fabs Atmel had their own fabs Better control on production and technology − Established sales force Atmel was established in 1984 and had in 1995 a well founded world wide sales force. − Money It is expensive to develop new products... 3 µRISC changes name to AVR R • Bogen and Wollan makes a deal with Atmel on further development and sales of the µRISC − Extensive development is put into the µRISC and they change the name to AVR − The agreements target is to establish a yearly revenue of AVR products of $100mil within 5years • As a part of the agreement they establish Atmel Norway − Atmel Norway gets the main responsibility to develop and market the AVR microcontrollers • The first AVR is released in 1997 − AT90S1200 • Their goal of $100mil is achieved in 2002 4 AVR Historical Roadmap R 19972000 2004/2005 ASIC AVR TINY AVR TINY AVR RF AVR AVR AVR USB AVR AVR SECURE AVR MEGA AVR MEGA AVR FPGA AVR LCD AVR CAN AVR FPGA AVR 5 AVR Microcontroller Shipments R +49% +22% +24% +58% +180% +122% +181% 1997 1998 1999 2000 2001 2002 2003 2004 6 The AVR Product Family R • Family ranges from 1K to 256K devices − All devices based on same AVR architecture − All with FLASH program memory • One set of development tools − Reduces tools cost − Only one user interface to learn Code can be reused on all devices! 7 The World’s Leading 8-bit Architecture R • RISC architecture with CISC instruction set − Easy to learn and powerful instruction set for C and Assembly • Single cycle execution − One instruction per external clock − Low power consumption • 32 Working Registers − All registers are directly connected to ALU • Harvard Architecture − Simultaneous, fast access to memories 8 AVR Benefits with C R • Up to 50% smaller code size compared to other architectures • No code size penalty over assembly, at a fraction of the development time • Maintainable code with less engineering cost • Write code the way code should be written • Reusable code for future projects saves even more development time 9 ANSI C-Code Size Benchmarks R • 13 Customer Code Applications compiled • Averaged and accumulated indexes from all applications • All applications count evenly • Code Size compared in Kbytes 300 265 250 218 200 156 150 139 122 123 130 104 Codesize [%] Codesize 100 100 50 0 AVR HC12 MSP 430 HC11 H8/300H 78K/O 80C51 COP8 PIC18 Devices 10 AVR –Single-Chip Solution R TWI USART SPI EEPROM Analog Hardware OTP Memory Reference Multiplier Analog CPU CORE SRAM Temperature Comparator Sensor A/D Converter Register File I/O pins Brown Out Detector Output Driver Watchdog Many uC only give you this In- Circuit Emulator Programming Circuitry Test LCD driver Fixtures 11 AVR –Single-Chip Solution R TWI USART SPI Hardware Flash EEPROM Multiplier Analog CPU CORE SRAM Temperature Comparator Sensor A/D Converter Register File I/O pins Brown Out Analog Pull-Ups Detector Reference On Demand Reset High Current Output Circuitry Outputs Driver Programmable Calibrated Watchdog Oscillator On-Chip In System Debug Programming Boundary LCD JTAG Scan Interface LCD driver AVR Integrates Much More! 12 AVR Tools Overview R Starter Kits Compilers ••IARIAR Systems Systems ••CodeVisionCodeVision •ImageCraft •ImageCraft STK500 STK501 STK502 ••GCC-AVRGCC-AVR AVR Studio In System Programmers JTAGICE AVRISP JTAGICE mkII New AVR Device Emulator Platforms JTAGICE ICE40/50 JTAGICE mkII 14 AVR – Number One! R • Shortest Time to Market • Highest System Integration • Highest CPU Performance • Smallest Code Size • Most Secure Program Memory • Excellent Development tools This makes the AVR the World’s best selling Flash MCU! 15 Roadmap R Mega256¾ 256K Mega256¾ Mega2560Mega2560¾¾ Mega1281Mega1281¾¾ Mega1280Mega1280¾¾ CAN128CAN128¾¾ 128K Mega128Mega128 Mega649¾ Mega649¾ Mega6490¾ mega645mega645¾¾ Mega6490¾ CAN64¾ Mega6450¾ Mega644Mega644¾¾ CAN64¾ Mega6450¾ 64K Mega641Mega641¾¾ Mega64 Mega640Mega640¾¾ 40K Mega64 Mega406Mega406¾¾ CAN32CAN32¾¾ Mega3290¾ 32K Mega32Mega32¾¾ Mega3290¾ Mega3250Mega3250¾¾ Mega329Mega329¾¾ Mega325¾ Mega16¾ Mega325¾ Mega168¾ Mega16¾ Mega169¾ 16K Mega168¾ Mega162¾ Mega169¾ Mega162¾ Mega165Mega165¾¾ Mega8535Mega8535¾¾ PWM2PWM2¾¾ Mega8515¾ 8K Tiny85Tiny85¾¾ Tiny84Tiny84¾¾ Tiny86Tiny86¾¾ PWM1PWM1¾¾ Mega8515¾ Mega88Mega88¾¾ Mega8Mega8¾¾ Tiny45¾ Tiny44¾ Tiny46¾ PWM0¾ 4K Tiny45¾ Tiny44¾ Tiny46¾ PWM0¾ Mega48Mega48¾¾ Tiny25¾ Tiny24¾ Tiny28¾ FUTURE PARTS PART 2K Tiny25¾ Tiny24¾ Tiny26Tiny26¾¾ Tiny28¾ PART Tiny15Tiny15 Tiny13¾ EXISTING PARTS PARTPART 1K Tiny13¾ T2313T2313¾¾ Tny11Tny11 8641420 24 32 44 48 10016 Need Help? R • www.atmel.com/avr − Selection Guides, Flyers, Datasheets, Application Notes, FAQ, and Errata Sheets • 3rd party web sites like www.AVRfreaks.net − Atmel and Third Party Tools − AVR Experts Discussion Forum − Software, User Guides and Links − Design Notes and Reference Designs − Consultants, Distributors and Atmel Representatives • [email protected] − Customer Technical Support • [email protected] − Distributor and Atmel Technical Support 17.
Load more

Recommended publications
  • Buku Ajar Mikrokontroler Dan Interface.Pdf
    i BUKU AJAR MIKROKONTROLER DAN INTERACE Sutarsi Suhaeb, S.T., M.Pd. Yasser Abd Djawad, S.T., M.Sc., Ph.D. Dr. Hendra Jaya, S.Pd., M.T. Ridwansyah, S.T., M.T. Drs. Sabran, M.Pd. Ahmad Risal, A.Md. |||||||||||||||||||||||||||||| UNM ii MIKROKONTROLER DAN INTERFACE Universitas Negeri Makassar Fakultas Teknik Pendidikan Teknik Elektronika Penulis: Ahmad Risal Desain Sampul: Ahmad Risal Pembimbing: 1. Sutarsi Suhaeb, S.T., M.Pd. 2. Yasser Abd Djawad, S.T., M.Sc., Ph.D. Penguji: 1. Dr. Hendra Jaya, S.Pd., M.T. 2. Ridwansyah, S.T., M.T. Validator Konten/Materi: Drs. Sabran, M.Pd. Validator Desain/Media: Dr. Muh. Ma'ruf Idris, S.T., M.T. @Desember2017 Kata Pengantar Puji dan syukur penulis panjatkan atas kehadirat Allah SWT, yang telah memberikan rahmat dan karuniaNya, sehingga Buku Ajar Mikrokontroler dan Interface ini dapat diselesaikan dengan baik. Pembahasan materi pada buku ajar ini dilakukan dengan cara memaparkan landasan teori elektronika dan instrumentasi digital khususnya tentang mikrokontroler. Mikrokontroler adalah bidang ilmu keteknikan yang mempelajari tentang pengontrolan alat elektronika yang mengkombinasikan hardware (rangkai- an elektronika) dengan software (pemrograman). Interface adalah model pengaplikasian mikrokontroler dengan perangkat lain ( Perangkat Antar- muka). Mata Kuliah Mikrokontroler dan Interface adalah mata kuliah yang memberikan ilmu pengotrolan berbasis program yang dapat dirubah setiap saat untuk mengontrol bermacam-macam perangkat lewat berbagai macam media komunikasi. Isi buku ajar ini mencakup materi pokok mikrokontroler dan interfa- ce yang mencakup: Sejarah dan Pengenalan Mikrokontroler, Pemrograman Mikrokontroler AVR dan Mikrokontroler Arduino, Interface Data Digital, Interface Dengan LCD, Interface Input Analog (ADC), Interface Output PWM, Interface Serial USART, Interface Serial SPI, Interface Serial I2C.
    [Show full text]
  • Natalia Nikolaevna Shusharina Maxin.Pmd
    BIOSCIENCES BIOTECHNOLOGY RESEARCH ASIA, September 2016. Vol. 13(3), 1523-1536 Development of the Brain-computer Interface Based on the Biometric Control Channels and Multi-modal Feedback to Provide A Human with Neuro-electronic Systems and Exoskeleton Structures to Compensate the Motor Functions Natalia Nikolaevna Shusharina1, Evgeny Anatolyevich Bogdanov1, Stepan Aleksandrovich Botman1, Ekaterina Vladimirovna Silina2, Victor Aleksandrovich Stupin3 and Maksim Vladimirovich Patrushev1 1Immanuel Kant Baltic Federal University (IKBFU), Nevskogo Str., 14, Kaliningrad, 236041, Russia 2I.M. Sechenov First Moscow State Medical University (First MSMU), Trubetskaya str, 8, Moscow, 119991, Russia 3Pirogov´s Russian National Research Medical University (RNRMU), Ostrovityanova str, 1, Moscow, 117997, Russia http://dx.doi.org/10.13005/bbra/2295 (Received: 15 June 2016; accepted: 05 August 2016) The aim of this paper is to create a multi-functional neuro-device and to study the possibilities of long-term monitoring of several physiological parameters of an organism controlled by brain activity with transmitting the data to the exoskeleton. To achieve this goal, analytical review of modern scientific-and-technical, normative, technical, and medical literature involving scientific and technical problems has been performed; the research area has been chosen and justified, including the definition of optimal electrodes and their affixing to the body of the patient, the definition of the best suitable power source and its operation mode, the definition of the best suitable useful signal amplifiers, and a system of filtering off external noises. A neuro-device mock-up has been made for recognizing electrophysiological signals and transmitting them to the exoskeleton, also the software has been written.
    [Show full text]
  • CPE 323 Introduction to Embedded Computer Systems: Introduction
    CPE 323 Introduction to Embedded Computer Systems: Introduction Instructor: Dr Aleksandar Milenkovic CPE 323 Administration Syllabus textbook & other references grading policy important dates course outline Prerequisites Number representation Digital design: combinational and sequential logic Computer systems: organization Embedded Systems Laboratory Located in EB 106 EB 106 Policies Introduction sessions Lab instructor CPE 323: Introduction to Embedded Computer Systems 2 CPE 323 Administration LAB Session on-line LAB manuals and tutorials Access cards Accounts Lab Assistant: Zahra Atashi Lab sessions (select 4 from the following list) Monday 8:00 - 9:30 AM Wednesday 8:00 - 9:30 AM Wednesday 5:30 - 7:00 PM Friday 8:00 - 9:30 AM Friday 9:30 – 11:00 AM Sign-up sheet will be available in the laboratory CPE 323: Introduction to Embedded Computer Systems 3 Outline Computer Engineering: Past, Present, Future Embedded systems What are they? Where do we find them? Structure and Organization Software Architectures CPE 323: Introduction to Embedded Computer Systems 4 What Is Computer Engineering? The creative application of engineering principles and methods to the design and development of hardware and software systems Discipline that combines elements of both electrical engineering and computer science Computer engineers are electrical engineers that have additional training in the areas of software design and hardware-software integration CPE 323: Introduction to Embedded Computer Systems 5 What Do Computer Engineers Do? Computer engineers are involved in all aspects of computing Design of computing devices (both Hardware and Software) Where are computing devices? Embedded computer systems (low-end – high-end) In: cars, aircrafts, home appliances, missiles, medical devices,..
    [Show full text]
  • Development Board for Embedded Systems
    PEPEonBOARD Development board for embedded systems Pedro Guilherme Antunes Diogo Thesis to obtain the Master of Science Degree in Electrical and Computer Engineering Examination Committee Chairperson: Prof. Nuno Cavaco Gomes Horta Supervisor: Prof. Rui Manuel Rodrigues Rocha Co-supervisor: Prof. Carlos Nuno da Cruz Ribeiro Member of the Committee: Prof. Nuno Filipe Valentim Roma April 2013 ii Dedicado em memoria´ do meu pai... iii iv Agradecimentos Em primeiro lugar gostaria agradecer aos meus orientadores de tese, Professor Rui Rocha, que durante um ano me acompanhou neste processo, pela imensa disponibilidade e pela capacidade de exigir o melhor de mim e das minhas decisoes.˜ Ao Professor Carlos Ribeiro pelo apoio prestado e porque sem ele nao˜ existiria simulador. Nao˜ posso deixar de agradecer ao Instituto Superior Tecnico,´ a todos os professores que me acom- panharam nestes quase 6 anos e ajudaram no meu desenvolvimento enquanto aluno. A todos os elementos do grupo GEMS, o meu obrigado pelas reunioes˜ de quarta-feira. Um especial agradecimento ao Professor Carlos Almeida, por me ter ensinado os fundamentos dos sistemas embebidos que tao˜ uteis´ me foram neste trabalho e pelas ideias nas reunioes˜ de quarta-feira. Ao Jose´ Catela pelas chatices que lhe causei e por todo o apoio no laboratorio´ e com o MoteIST. Ao Sr. Joao˜ Pina por toda a ajuda com os componentes e montagem da placa. Nao˜ seria justo referir nomes, mas a todos os amigos que fiz durante esta jornada, o meu grande obrigado. Vocesˆ fizeram com que fosse mais facil´ ultrapassar os momentos menos bons e tornaram os bons melhores ainda.
    [Show full text]
  • Introduction to 8051 Microcontroller Ntfmi/Tllnecessary Parts of Any Microprocessor/Controller
    Introduction to 8051 microcontroller NtfMi/tllNecessary parts of any Microprocessor/controller • CPU: Centra l Process ing Un it • I/O: Input /Output • Bus: Address bus , Data bus , Control bus • Memory: RAM & ROM • Timer • Interrupt • Serial Port • Parallel Port 2 Microprocessor • General-purpose digital computer Central Processing Unit • CPU for Computers • No RAM, ROM, I/O on CPU chip itself • Example：Intel’s x86, Motorola’s 680x0 Data Bus CPU General- Serial Purpose RAM ROM I/O Timer COM Micro- Port Port processor 4 Microcontroller • A smaller computer • On-chip RAM, ROM, I/O ports... • Example：Motorola’s 6811, Intel’s 8051, Zilog’s Z8 and PIC 16X CPU RAM ROM A single chip Serial I/O Timer COM Port Port Microcontroller 5 Microprocessor Vs . Microcontroller 1. Most microprocessors have 1. Micro controllers have one or many operational codes two. (opcodes) for moving external memory to the CPU. 2. µp have one or two type of bit 2.µc have many handling instruction 3. µp concerned with rapid 3. µc concerned with rapid movement of code and data movement of bits within the chip from external address to chip 4. µp needs many additional parts 4. µc can function as computer tbto become opera tiltional with no additional parts On the hardware point of view….. Microprocessor Microcontroller • CPU is stand-alone • CPU, RAM, ROM, I/O and timer are all on a single chip • RAM, ROM, I/O, timer are • Fix amount of on-chip ROM, separate so designer can decide on RAM, I/O ports the amount of ROM, RAM and I/O ports • Expansive • For applications in which
    [Show full text]
  • Design of the Hardware Platform for the Flight Control System in an Unmanned Aerial Vehicle
    Institutionen för systemteknik Department of Electrical Engineering Examensarbete Design of the Hardware Platform for the Flight Control System in an Unmanned Aerial Vehicle Examensarbete utfört i Elektroniksystem vid Tekniska högskolan i Linköping av Mårten Svanfeldt LiTH-ISY-EX--10/4366--SE Linköping 2010 Department of Electrical Engineering Linköpings tekniska högskola Linköpings universitet Linköpings universitet SE-581 83 Linköping, Sweden 581 83 Linköping Design of the Hardware Platform for the Flight Control System in an Unmanned Aerial Vehicle Examensarbete utfört i Elektroniksystem vid Tekniska högskolan i Linköping av Mårten Svanfeldt LiTH-ISY-EX--10/4366--SE Handledare: Jonas Lindqvist Inopia AB Kent Palmkvist ISY, Linköpings universitet Examinator: Kent Palmkvist ISY, Linköpings universitet Linköping, 3 September, 2010 Avdelning, Institution Datum Division, Department Date Division of Electronics Systems Department of Electrical Engineering 2010-09-03 Linköpings universitet SE-581 83 Linköping, Sweden Språk Rapporttyp ISBN Language Report category — Svenska/Swedish Licentiatavhandling ISRN Engelska/English Examensarbete LiTH-ISY-EX--10/4366--SE C-uppsats Serietitel och serienummer ISSN D-uppsats Title of series, numbering — Övrig rapport URL för elektronisk version http://urn.kb.se/resolve?urn=urn:nbn:se:liu:diva-58985 Titel Design av hårdvaruplatformen för flygkontrollsystemet i en obemannad flygande Title farkost Design of the Hardware Platform for the Flight Control System in an Unmanned Aerial Vehicle Författare Mårten Svanfeldt Author Sammanfattning Abstract This thesis will present work done to develop the hardware of a flight control sys- tem (FCS) for an unmanned aerial vehicle (UAV). While as important as mechan- ical construction and control algorithms, the elecronics hardware have received far less attention in published works.
    [Show full text]
  • Chapter 1 Microcontrollers
    Chapter 1 Microcontrollers: Yesterday, Today, and Tomorrow 1.1 Defining Microcontrollers It is said that from the definition everything true about the con- cept follows. Therefore, at the outset let us take a brief review of how the all-pervasive microcontroller has been defined by various technical sources. A microcontroller (or MCU) is a computer-on-a-chip used to con- trol electronic devices. It is a type of microprocessor emphasizing self-sufficiency and cost-effectiveness, in contrast to a general-purpose microprocessor (the kind used in a PC). A typical microcontroller con- tains all the memory and interfaces needed for a simple application, whereas a general purpose microprocessor requires additional chips to provide these functions. .(Wikipedia [1]) A highly integrated chip that contains all the components compris- ing a controller. Typically this includes a CPU, RAM, some form of ROM, I/O ports, and timers. Unlike a general-purpose computer, which also includes all of these components, a microcontroller is designed for a very specific task – to control a particular system. As a result, the parts can be simplified and reduced, which cuts down on production costs. (Webopedia [2]) A {microprocessor} on a single {integrated circuit} intended to ope- rate as an {embedded} system. As well as a {CPU}, a microcontroller typically includes small amounts of {RAM} and {PROM} and timers and I/O ports. .(Define That [3]) A single chip that contains the processor (the CPU), non-volatile memory for the program (ROM or flash), volatile memory for input and output (RAM), a clock and an I/O control unit.
    [Show full text]
  • 9 Microcontrollers in Embedded Systems 9
    Embedded Systems Chapter – 9 Microcontrollers in Embedded Systems 9. Microcontrollers in Embedded Systems [3 Hrs.] 9.1 Intel 8051 microcontroller family, its architecture and instruction sets 9.2 Programming in Assembly Language 9.3 A simple interfacing example with 7 segment display Microcontroller is a Highly integrated chip that contains a CPU, scratchpad RAM, special and general purpose register arrays and integrated peripherals. Among 8 bit microcontroller 8051 family is most popular: cost effective & versatile device offering extensive support in the embedded application domain. 1st popular model: 8031AH built by Intel in 1977 Microprocessor Microcontroller • A Si chip representing • Is a highly integrated chip a CPU, which is capable that contains a CPU, of performing scratchpad RAM, special arithmetic as well as and general purpose logical operations register arrays, on chip according to a pre ROM/FLASH memory for defined set of program storage, timer & instructions. interrupt control units and dedicated I/O ports. • CPU is stand-alone, • CPU, RAM, ROM, I/O RAM, ROM, I/O, and timer are all on a timer are separate single chip Microprocessor Microcontroller • is a dependent unit. It • Is a self-contained unit & it requires the combination of doesn’t require external other chip like timers, interrupt controller, timer, program and data memory UART (Universal chips, interrupt controllers, Asynchronous Receiver etc. for functioning Transmitter), etc. for its • Most of the time general functioning purpose in design and • Mostly application – operation oriented or domain-specific • Targeted for high end • Targeted for embedded market where market where performance performance is important is not so critical ( At present this demarcation is invalid ) Microprocessor Microcontroller • doesn’t contain a built •Most of the processors in I/O port.
    [Show full text]
  • Circuit Cellar#248 March 2011
    Cover - 248_Layout 1 2/9/2011 2:34 PM Page 1 IMPLEMENTATION: DSP for Lighting Apps INSIGHT: Understand & Control Current Consumption DESIGN TIP: Timekeeping with an RTCC ORIGIN: Italy ORIGIN: United States ORIGIN: United States PAGE: 38 PAGE: 60 PAGE: 66 THE wORLD’S SOURCE fOR EMBEDDED ELECTRONICS ENGINEERING INfORMATION MARCH 2011 ROBOTICS ISSUE 248 PLUS MCU-Based Digital Designer Competency Pan Head Controller Project-Essential Concepts // Scheduling // State Machines Computer-Controlled // Simulation Machining // Code Validation Build a Remotely Operated Vehicle Super-Regenerative Receiver $7.50 U.S. ($8.50 Canada) www.circuitcellar.com C2_Layout 1 2/9/2011 10:45 PM Page 1 Low-cost Industrial Serial to Ethernet Solutions t*OTUBOUMZOFUXPSLFOBCMFBOZTFSJBMEFWJDF t/PQSPHSBNNJOHJTSFRVJSFEGPSTFSJBMUP&UIFSOFUBQQMJDBUJPO t$VTUPNJ[FUPTVJUBOZBQQMJDBUJPOXJUIBEFWFMPQNFOULJU SBL2e 100 SBL2e Chip SBL2e 200 QPSUTFSJBMUP&UIFSOFUTFSWFS QPSUTFSJBMUP&UIFSOFUTFSWFS QPSUTFSJBMUP&UIFSOFUTFSWFS XJUIGPVS"%DPOWFSUFSJOQVUT XJUIFJHIU"%DPOWFSUFSJOQVUT XJUIGPVS"%DPOWFSUFSJOQVUT PQUJPOBM*$QFSJQIFSBMTVQQPSU BOEPQUJPOBM41* *$QFSJQIFSBM PQUJPOBM*$QFSJQIFSBMTVQQPSU BOE3+DPOOFDUPS EFWJDFTVQQPSU BOEQJOIFBEFS Hardware Features SBL2e 6QUPUISFFTFSJBMQPSUT .CQT&UIFSOFU VQUPEJHJUBM*0 CJU"%DPOWFSUFST PQFSBUJOHUFNQFSBUVSFUP$ CJUQFSGPSNBODF Serial-to-Ethernet server with RS-232 support Software Features 5$16%15FMOFU)551NPEFT %)$14UBUJD*1TVQQPSU XFCCBTFEPS "5DPNNBOEDPOöHVSBUJPO Low Prices 4#-F$IJQ 2UZL %FWJDF1/4#-F$)*1*3 4#-F 2UZ %FWJDF1/4#-F*3 4#-F 2UZ %FWJDF1/4#-F*3 4#-F9
    [Show full text]
  • Ic3000gt Theactiveemulator Compact Development System
    iC3000GT TheActiveEmulator Compact Development System The iC3000GT ActiveEmulatorTM is a development tool for high performance microcontroller based embedded application development. It supports all famous on-chip emulation technologies like BDM, SDI, Once, JTAG and Nexus for on-chip debugging. For on- chip trace ETM, Nexus and proprietary trace solutions are available. It may also be configured to support comprehensive, real-time high-speed in-circuit emulation up to 100MHz bus speed using iSYSTEM's uniqueActivePODTM technology. The “swap the card" technology preserves the investment in the iC3000GT unit while providing iC3000GT - For High-Speed Upload and Upload While Sampling (see adaptability to a wide range of target MCUs and next page) debug methodologies. iC3000GT ActiveEmulatorFeatures: > On-ChipDebug > On-ChipTrace > In-CircuitEmulation > Real-TimeTrace > Uploadwhilesampling > Hardware&Softwarebreakpoints > Variableclockspeed > Multiplevoltageinterface(1.8V-5V) > Multiprocessorsupport > Flashprogramming > winIDEA - the powerful Integrated PC-Hostinterface:USB2.0,Ethernet Development Environment TCP/IP (100Mbit/s) > Powersupply:8-24VDC/90-240V AC > Idealformobileoperation iC3000GT-thecompactemulator > Compactsize:26*92*120mm The iC3000GT ActiveEmulator is the latest in a > winIDEA IntegratedDevelopment long line of universal development tools from Environment iSYSTEM. Utilizing SMD technology and highly integrated FPGAs, the iC3000GT packs plenty of powerful innovations in a small, compact pack- age. It is the ideal solution for mobile applica- tions and desktop use as well. V3.1 www.isystem.com iC3000GT TheActiveEmulator Compact Development System iC3000GT accepts direct input of DC 24V, or AC Uploadwhilesampling power 90 - 240V with the supplied external auto The ‘Upload while sampling’ feature enables the user to sensing power supply. High speed communication to upload trace data continuously with a maximum speed the host PC is essential for optimum performance.
    [Show full text]
  • Introduction to 8051 Microcontroller Ntfmi/Tllnecessary Parts of Any Microprocessor/Controller
    Introduction to 8051 microcontroller NtfMi/tllNecessary parts of any Microprocessor/controller • CPU: Centra l Process ing Un it • I/O: Input /Output • Bus: Address bus , Data bus , Control bus • Memory: RAM & ROM • Timer • Interrupt • Serial Port • Parallel Port 2 Microprocessor • General-purpose digital computer Central Processing Unit • CPU for Computers • No RAM, ROM, I/O on CPU chip itself • Example：Intel’s x86, Motorola’s 680x0 Data Bus CPU General- Serial Purpose RAM ROM I/O Timer COM Micro- Port Port processor 4 Microcontroller • A smaller computer • On-chip RAM, ROM, I/O ports... • Example：Motorola’s 6811, Intel’s 8051, Zilog’s Z8 and PIC 16X CPU RAM ROM A single chip Serial I/O Timer COM Port Port Microcontroller 5 Microprocessor Vs . Microcontroller 1. Most microprocessors have 1. Micro controllers have one or many operational codes two. (opcodes) for moving external memory to the CPU. 2. µp have one or two type of bit 2.µc have many handling instruction 3. µp concerned with rapid 3. µc concerned with rapid movement of code and data movement of bits within the chip from external address to chip 4. µp needs many additional parts 4. µc can function as computer tbto become opera tiltional with no additional parts On the hardware point of view….. Microprocessor Microcontroller • CPU is stand-alone • CPU, RAM, ROM, I/O and timer are all on a single chip • RAM, ROM, I/O, timer are • Fix amount of on-chip ROM, separate so designer can decide on RAM, I/O ports the amount of ROM, RAM and I/O ports • Expansive • For applications in which
    [Show full text]
  • Application Note 1150 COP8 FLASH ISP HANDBOOK-Intro To
    COP8 FLASH ISP HANDBOOK — Intro to ISP AN-1150 National Semiconductor COP8™ FLASH ISP Application Note 1150 Wallace Ly HANDBOOK—Intro to ISP March 2001 ABSTRACT simplified block diagram. The factory installed ISP that uses This application note describes the COP8 In System MICROWIRE/PLUS is located in the Boot ROM. The size of Programming (ISP) Software. ISP method of programming the Boot ROM is 1K bytes and also includes the ICE™ the flash memory are thoroughly discussed. monitor code. If a user chooses to write his own ISP routine, it must be located in the flash program memory. INTRODUCTION In the next section, ADVANCED ISP SOFTWARE TOPICS, In-System Programming (ISP) allows the user to re-program a discussion regarding the FLEX bit is presented. The FLEX a microcontroller without physical removal. The COP8 ISP bit controls whether the device exits RESET executing from Software allows the user to program the flash memory in the flash memory or the Boot ROM. The user must program three ways. A user may choose to program the flash memory this Configuration Register bit as appropriate for the by using the Boot ROM’s user support portion, the application. In the erased state, the FLEX bit = 0 and the MetaLink™ support portion (via the Flash emulator module) device will power-up executing from Boot ROM. When FLEX or the MICROWIRE/PLUS™ support portion. The use of a = 0, this assumes that either the MICROWIRE/PLUS ISP user and/or MICROWIRE/PLUS support portions are fully routine or external programming is being used to program documented and their requirements are specified.
    [Show full text]