)'0'4# '+06')4#6'& /+%41241%'5514

Similar documents
Freescale Semiconductor, Inc. Product Brief Integrated Portable System Processor DragonBall ΤΜ

Atmel Norway XMEGA Introduction

DAC Digital To Analog Converter

Develop a Dallas 1-Wire Master Using the Z8F1680 Series of MCUs

Am186ER/Am188ER AMD Continues 16-bit Innovation

Hello, and welcome to this presentation of the STM32L4 reset and clock controller.

STM32 F-2 series High-performance Cortex-M3 MCUs

ontroller LSI with Built-in High- Performance Graphic Functions for Automotive Applications

AN LPC1700 timer triggered memory to GPIO data transfer. Document information. LPC1700, GPIO, DMA, Timer0, Sleep Mode

PAC52XX Clock Control Firmware Design

Chapter 1 Lesson 3 Hardware Elements in the Embedded Systems Chapter-1L03: "Embedded Systems - ", Raj Kamal, Publs.: McGraw-Hill Education

Chapter 13. PIC Family Microcontroller

DEPARTMENT OF COMPUTER SCIENCE & ENGINEERING Question Bank Subject Name: EC Microprocessor & Microcontroller Year/Sem : II/IV

Old Company Name in Catalogs and Other Documents

Block 3 Size 0 KB 0 KB 16KB 32KB. Start Address N/A N/A F4000H F0000H. Start Address FA000H F8000H F8000H F8000H. Block 2 Size 8KB 16KB 16KB 16KB

Interfacing Analog to Digital Data Converters

USER GUIDE EDBG. Description

AN4646 Application note

8-Bit Flash Microcontroller for Smart Cards. AT89SCXXXXA Summary. Features. Description. Complete datasheet available under NDA

DK40 Datasheet & Hardware manual Version 2

AND8336. Design Examples of On Board Dual Supply Voltage Logic Translators. Prepared by: Jim Lepkowski ON Semiconductor.

Voice Dialer Speech Recognition Dialing IC

Implementing SPI Master and Slave Functionality Using the Z8 Encore! F083A

DS1104 R&D Controller Board

ES_LPC4357/53/37/33. Errata sheet LPC4357/53/37/33. Document information

ARM Thumb Microcontrollers. Application Note. Software ISO 7816 I/O Line Implementation. Features. Introduction

8741A UNIVERSAL PERIPHERAL INTERFACE 8-BIT MICROCOMPUTER

Lab Experiment 1: The LPC 2148 Education Board

AVR131: Using the AVR s High-speed PWM. Introduction. Features. AVR 8-bit Microcontrollers APPLICATION NOTE

APPLICATION NOTE. Atmel AVR134: Real Time Clock (RTC) Using the Asynchronous Timer. Atmel AVR 8-bit Microcontroller. Introduction.

Simplifying System Design Using the CS4350 PLL DAC

32-bit ARM Cortex -M0+ FM0+ Microcontroller

AVR151: Setup and Use of the SPI. Introduction. Features. Atmel AVR 8-bit Microcontroller APPLICATION NOTE

PIC-MAXI-WEB development board Users Manual

AVR1321: Using the Atmel AVR XMEGA 32-bit Real Time Counter and Battery Backup System. 8-bit Microcontrollers. Application Note.

Bandwidth Calculations for SA-1100 Processor LCD Displays

Advanced Microcontrollers Grzegorz Budzyń Lecture. 3: Electrical parameters of microcontrollers 8051 family

AN3252 Application note

Command Processor for MPSSE and MCU Host Bus Emulation Modes

FEATURES DESCRIPTION. PT6321 Fluorescent Display Tube Controller Driver

RETRIEVING DATA FROM THE DDC112

Open Architecture Design for GPS Applications Yves Théroux, BAE Systems Canada

COMPUTER HARDWARE. Input- Output and Communication Memory Systems

Microtronics technologies Mobile:

General Porting Considerations. Memory EEPROM XRAM

Design of a High Speed Communications Link Using Field Programmable Gate Arrays

Z8018x Family MPU User Manual

2.0 Command and Data Handling Subsystem

AT15007: Differences between ATmega328/P and ATmega328PB. Introduction. Features. Atmel AVR 8-bit Microcontrollers APPLICATION NOTE

Z8 Encore! XP F082A Series Development Kit

POCKET SCOPE 2. The idea 2. Design criteria 3

Z8 Encore! XP F64xx Series Flash Microcontrollers. In-Circuit Emulator. User Manual UM

EMC6D103S. Fan Control Device with High Frequency PWM Support and Hardware Monitoring Features PRODUCT FEATURES ORDER NUMBERS: Data Brief

AVR1510: Xplain training - XMEGA USART. 8-bit Microcontrollers. Application Note. Prerequisites. 1 Introduction

MICROPROCESSOR AND MICROCOMPUTER BASICS

AVR1301: Using the XMEGA DAC. 8-bit Microcontrollers. Application Note. Features. 1 Introduction

AVR134: Real Time Clock (RTC) using the Asynchronous Timer. 8-bit Microcontrollers. Application Note. Features. 1 Introduction

PART B QUESTIONS AND ANSWERS UNIT I

8051 hardware summary

Single Phase Two-Channel Interleaved PFC Operating in CrM

Fairchild Solutions for 133MHz Buffered Memory Modules

SKP16C62P Tutorial 1 Software Development Process using HEW. Renesas Technology America Inc.

How To Fix An Lmx9838 Bluetooth Serial Port Module With Bluetooth (Bluetooth 2) From A Bluetooth Bluetooth 4.2 Device With A Bluembee 2.2 Module

AVR305: Half Duplex Compact Software UART. 8-bit Microcontrollers. Application Note. Features. 1 Introduction

8031AH 8051AH 8032AH 8052AH NMOS SINGLE-CHIP 8-BIT MICROCONTROLLERS

AN974 APPLICATION NOTE

8051 MICROCONTROLLER COURSE

Palaparthi.Jagadeesh Chand. Associate Professor in ECE Department, Nimra Institute of Science & Technology, Vijayawada, A.P.

System-on-a-Chip with Security Modules for Network Home Electric Appliances

Implementing a Real-Time Clock on the MSP430

It should be corrected as indicated by the shading below.

AN3155 Application note

7a. System-on-chip design and prototyping platforms

8-bit Microcontroller. Application Note. AVR134: Real-Time Clock (RTC) using the Asynchronous Timer. Features. Theory of Operation.

MICROPROCESSOR. Exclusive for IACE Students iacehyd.blogspot.in Ph: /422 Page 1

CH7525 Brief Datasheet

USB2.0 <=> I2C V4.4. Konverter Kabel und Box mit Galvanischetrennung

AN108 IMPLEMENTING A REALTIME CLOCK. Relevant Devices. Introduction. Key Points. Overview

AVR125: ADC of tinyavr in Single Ended Mode. 8-bit Microcontrollers. Application Note. Features. 1 Introduction

Introduction the Serial Communications Huang Sections 9.2, 10.2 SCI Block User Guide SPI Block User Guide

Software engineering for real-time systems

Thermostat Application Module Kit

IP Phone Solutions TNETV1050/1055

ADVANCED PROCESSOR ARCHITECTURES AND MEMORY ORGANISATION Lesson-17: Memory organisation, and types of memory

CH7101A. CH7101A HDMI to VGA Converter GENERAL DESCRIPTION

OpenSPARC T1 Processor

Comparison of MC9S08QE128 and MCF51QE128 Microcontrollers Scott Pape and Eduardo Montanez Systems Engineering, Freescale Microcontroller Division

Implementing a Data Logger with Spansion SPI Flash

SEC2410/SEC4410 HS Endpoint Processor with USB 2.0, Smart Card, & FMC for Secure Token & Storage

AVR1309: Using the XMEGA SPI. 8-bit Microcontrollers. Application Note. Features. 1 Introduction SCK MOSI MISO SS

C8051F020 Utilization in an Embedded Digital Design Project Course. Daren R. Wilcox Southern Polytechnic State University Marietta, Georgia

SC14404 Complete Baseband Processor for DECT Handsets

AUTOMATIC NIGHT LAMP WITH MORNING ALARM USING MICROPROCESSOR

SMARTCARD XPRO. Preface. SMART ARM-based Microcontrollers USER GUIDE

Web Site: Forums: forums.parallax.com Sales: Technical:

Lesson-16: Real time clock DEVICES AND COMMUNICATION BUSES FOR DEVICES NETWORK

AVR126: ADC of megaavr in Single Ended Mode. Introduction. Features. AVR 8-bit Microcontrollers APPLICATION NOTE

AN3332 Application note

AN2658 Application note

Transcription:

2$</2 )'0'4.274215'+06')46' /+%41241%'5514 2417%6$.1%-+)4/ 96 5%27 EJ 46% //7 DKV +1 (.. %6 <+ / 746 %5+1-41/ - 54/ $KV 21) Wait State Generator Low Power Modes Low EMI modes 32-bit GPIO 8 Channels 10-bit A/D 8 Bit Programmable Output Generator (POG) 10-bit Digital to Analog Converter 2K Static SRAM 1K Boot ROM (Virtual Loader) Real Time Clock ('674'5 Z8S180 Macrocell Improved CPU performance. Extended instructions. Code-compatible with Z80 core. Up to 33Mhz speed 5V 3.3V operation 2 DMA Channels 2 Enhanced UARTs (512Kbps) 2 16-Bit Timers CSIO On-chip MMU (1MByte) Edge/Level Triggered Interrupt Controller Low Power PLL Oscillator Watch-Dog Timer Economical 100-pin VQFP package )'0'4.'5%4+26+10 The Z80S183 is a highly integrated general purpose controller. It consists of the full featured Z80S180 microprocessor, 32-bits of General Purpose I/O, an Analog-to-Digital channel with eight multiplexed inputs, Eight POG channels, a Digital to Analog converter, Watch-Dog Timer, 8K SRAM, a Real-Time Clock, and 1K Boot ROM. The Z80S183 is an economical 100-pin VQFP package and is available Q499. <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/

2+0176502+0+4'%6+10 +1%5 +1%5 29459+6%* 6:5 8 26$4:5 26$4: 26$6: 26$4: 26$6: 26$%6529472 26$% )0 26$%-5 4/94 4/4 8 1 )0 8 )0 41/4 41/94 12/1' 12/1' 4'5'6 176 )0 96'0$.' %'176 8 26 26 26 26 )0 26 26 26 2684'( 26%4'3 26%4'3 26% 26% 8 26% 26% 26% 26%.(':6..(:6. +194 )0 +14 5 5%. 2*+ ':6. :6. / 8 0/+ +06 +06 +06 '6+.''5%4+26+10 /+%41241%'5514 %14' The enhanced Z8S180 significantly improves on the previous Z8S180 models while still providing full backward compatibility with existing ZiLOG Z80 devices. The Z8S180/Z8L180 now offers faster execution speeds, power-saving modes, and EMI noise reduction. Not only does the Z8S180 core consume less power during normal operations than the previous Z80180 models, it has also been designed with three modes intended to further reduce the power consumption. ZiLOG reduced I cc power core consumption during 560$; Mode to a minimum of 10µA by stopping the external oscillators and internal clock. The SLEEP mode reduces power by placing the CPU into a stopped state, thereby consuming less current while the on-chip I/O device is still operating. The 5;56'/5612 mode places both the CPU and the on-chip peripherals into a stopped mode, thereby reducing power consumption even further 2GTKRJGTCNGUETKRVKQP (56 5%+ With the addition of ESCC-like Baud Rate Generators (BRGs), the two ASCIs now have the flexibility and capability to transfer data asynchronously at rates of up to 512 Kbps. In addi- <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/

tion, the ASCI receiver has added a 4-byte First In First Out (FIFO) which can be used to buffer incoming data to reduce the incidence of overrun errors. / The DMAs have been modified to allow for a chain-linking of the two DMA channels when set to take their DMA requests from the same peripherals device. This feature allows for nonstop DMA operation between the two DMA channels, reducing the amount of CPU intervention. %1706'46+/'45Two separate, 16-bit programmable reload counter/timers (246) are provided. 246 provides an optional output to allow for wave-form generation. %5+1 The clock serial I/O provides a half-duplex serial transmitter and receiver. This channel can be used for simple high speed data connection to another microprocessor or microcomputer $+6)'0'4.274215'+1 Four 8- bit ports are provided for general purpose I/O. These pins are individually programmable for input or output mode. Each I/O is capable of sourcing and sinking 15mA 96%*1) 6+/'4. A Watch-Dog timer is provided to prevent code runaway and possible resulting system damage. The range of time constants is up to 4s. The 4'5'6 input can be forced as an output upon the terminal count of the Watch-Dog Timer. This action allows external peripherals to be reset along with the Z80S183. '+)*6%*00'.0.1) 61+)+6.%108'46'45 There is a single Analog to Digital converter that has eight multiplexed pins. The Analog to Digital Converter is a 10-bit half-flash converter that uses two references resistor ladders for its upper 5 bits (MSB) and lower 5 bits (LSB) conversion. Two reference voltage pins AVCC and AGND are provided for external reference voltage supplies. The minimum conversion time is 8µs +)+6. 610.1)%108'46'4 There is a 10-bit Digital to Analog converter on board to support applications that require an Analog input. The DAC is a 10-bit register string. The DAC out voltages settles after the internal data is latched into the DAC Data register. 21) The POG is a memory-mapped programmable event generator which can be used to create complex wave forms, trigger A/D and D/A conversions, and generates processor interrupts. POG events are timed relative to a high-speed clock, creating high speed performance. The POG consumes minimal processor overhead. A POG event is generated by programming event data, a next- event address pointer, and an event timer into POG RAM. The POG can handle up to 64 events. When a POG event begins, the POG event data and next address bytes are loaded into internal holding buffers and the POG even tim is loaded into the POG countdown timer. Once the timer counts to 0, the POG event occurs and POG next address points to the next PGO even block. <+ A ZiLOG Debug Interface is included. ZDBI incorporates most of the functions of an In-Circuit Emulate on the IC. ZDBI allows the user (with an ICEBOX) to single step code, change registers, edit programs and view status of internal registers. - $;6'5 1( 54/ There is 2K bytes of Static RAM. It resides at Address E000H-FFFFH. This RAM can be used for stack, read/write data storage, and POG events. - $116 41/ The Z80S183 contains 1K boot ROM. 4'.6+/'%.1%- The Z80S183 RTC provides a time and calendar function of seconds, minutes, hours, 12/24, AM/PM, day of week, day of month, month and year. It features a 24 hour alarm facility capable of generating an interrupt. 219'4(+.5'05+0) A power-fail trigger is implemented by detecting missed mains frequency cycles. This feature ensures the earliest possible warning of power failure. Once this event occurs, the systems generate an NMI interrupt if enabled, as well as a status bit in the System Status Register. This feature allows the application software to provide a graceful shutdown. <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/

$.1%-+)4/5 6176 $+6246 //7 5%+ /% %5+1 5;56'/$75 $KV%27 6KOKPI %NQEM )GPGTCVQT %14'241%'5514$.1%-+)4/ 0.1) %*00'. $KV $KV)2+1 +1 $KV 96-54/ -41/ 5;56'/$75 $KV21) 1762 46%.+0' <$+ $.1%-+)4/ <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/

22.+%6+10505722146611.5 The following development tools are available for the programming and debug of this device: Orion emulators ZiLOG Development Suite (ZDS) Numerous 3rd party software support (Visit http://www.zilog.com/support/z80_z185.html) 4'.6'2417%65 Other Integrated Controllers of interest are: Z84C00 Z84C15 Z80S180 Z80181 Z80182 Z80189 Z80S188 Z80S190 Z84C00 Z80 CPU (up to 20 MHz) Z80 + 2 SIO + 4x8 CTC + 2 PIO + WDT (up to 16 MHz) Improved Z80 + 1MByte MMU + 2 DMA +2-16bit PRT + 2 UARTs + CSIO (up to 33MHz) Z8S180 (see above) + SCC+CTC+ 16 GPIO (up to 33MHz) Z8S180 (see above) + 2 ESCC + 24 bit GPIO+ 16550 Mimic interface (up to 33MHz) Z8S180 (see above) + 24 GPIO + 16550 Mimic interface (up to 33MHz) Z8S180 (see above) + 2 SIO + 4x8 CTC + 2 PIO + WDT+ POR + 4K Boot ROM + 1K SRAM ez80 enhanced CPU (single cycle instruction fetch, 16Mbyte Linear Address) + Multiply and Accumulate, 2 UARTs, 6 C/T, CSIO, 2 DMA, 32 GPIO. (Up to 40MHz). Available Q1, 00 Z80 CPU (up to 20 MHz) '.'%64+%.('674'557//4; 50 µa maximum Supply Current 4.75V to 5.25V Operating Range 14'4+0)+0(14/6+10 2CTV 25+ GUETKRVKQP Analog 180 Z80S18333ASC 100 VQFP, Standard temp Low voltage analog 180 Z80L18320ASC 100 VQFP, Standard temp, low power <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/

2TG%JCTCEVGTK\CVKQP2TQFWEV The product represented by this Product Brief is newly introduced and ZiLOG has not completed the full characterization of the product. The Product Brief states what ZiLOG knows about this product at this time, but additional features or nonconformance with some aspects of the CPS may be found, either by ZiLOG or its customers in the course of further application and characterization work. In addition, ZiLOG cautions that delivery may be uncertain at times, due to start-up yield issues..qy/ctikp Customer is advised that this product does not meet ZiLOG s internal guardbanded test policies for the specification requested and is supplied on an exception basis. Customer is cautioned that delivery may be uncertain and that, in addition to all other limitations on ZiLOG liability stated on the front and back of the acknowledgment, ZiLOG makes no claim as to quality and reliability under the Product Brief. The product remains subject to standard warranty for replacement due to defects in materials and workmanship. 1999 by ZiLOG, Inc. All rights reserved. No part of this document may be copied or reproduced in any form or by any means without the prior written consent of ZiLOG, Inc. The information in this document is subject to change without notice. Devices sold by ZiLOG, Inc. are covered by warranty and patent indemnification provisions appearing in ZiLOG, Inc. Terms and Conditions of Sale only. ZiLOG, Inc. makes no warranty, express, statutory, implied or by description, regarding the information set forth herein or regarding the freedom of the described devices from intellectual property infringement. ZiLOG, Inc. makes no warranty of merchantability or fitness for any purpose. ZiLOG, Inc. shall not be responsible for any errors that may appear in this document. ZiLOG, Inc. makes no commitment to update or keep current the information contained in this document. ZiLOG s products are not authorized for use as critical components in life support devices or systems unless a specific written agreement pertaining to such intended use is executed between the customer and ZiLOG prior to use. Life support devices or systems are those which are intended for surgical implantation into the body, or which sustains life whose failure to perform, when properly used in accordance with instructions for use provided in the labeling, can be reasonably expected to result in significant injury to the user. ZiLOG, Inc. 910 East Hamilton Avenue, Suite 110 Campbell, CA 95008 Telephone:(408) 558-8500 FAX:(408) 58-8300 Internet: http://www.zilog.com <K.1)914.9+'*'3746'45 '*/+.6108'07' %/2$'..% 6'.'2*10' (: +06'40'6*662999<+.1)%1/