80C186 SPECIFICATION UPDATE Search Results

Contextual Info: intJ 80C187 80-BIT MATH COPROCESSOR • High Performance 80-Bit Internal Architecture ■ Implements ANSI/IEEE Standard 7541985 for Binary Floating-Point Arithmetic ■ Upward Object-Code Compatible from 8087 ■ Fully Compatible with 387DX and 387SX Math Coprocessors. Implements all 387

IN6AG

Abstract: 28F020 intel 28F020
Contextual Info: 28F020 2048K 256K x 8 CMOS FLASH MEMORY • Flash Electrical Chip-Erase — 2 Second Typical Chip-Erase ■ Quick-Pulse Programming Algorithm — 10 ¡is Typical Byte-Program — 4 Second Chip-Program ■ 100,000 Erase/Program Cycles ■ 12.0V ± 5 % Vpp

Contextual Info: ir v tJ . 28F256A 256K 32K x 8 CMOS FLASH MEMORY • Flash Electrical Chlp-Erase — 1 Second Typical Chip-Erase ■ Command Register Architecture for Microprocessor/Microcontroller Compatible Write Interface ■ Quick-Pulse Programming Algorithm — 10 /j.8 Typical Byte-Program

Contextual Info: in te l 28F020 2048K 256K x 8 CMOS FLASH MEMORY Flash Electrical Chip-Erase — 2 Second Typical Chip-Erase Quick-Pulse Programming Algorithm — 10 jas Typical Byte-Program — 4 Second Chip-Program 100,000 Erase/Program Cycles 12.0V ± 5 % Vpp High-Performance Read

Contextual Info: A28F010 1024K 128K x 8 CMOS FLASH MEMORY (Automotive) a Extended Automotive Temperature Range: -40°C to + 125°C • Flash Memory Electrical Chip-Erase — 1 Second Typical Chip-Erase ■ Integrated Program/Erase Stop Timer B command Register Architecture for

Contextual Info: 28F256A 256K 32K x 8 CMOS FLASH MEMORY • Flash Electrical Chip-Erase — 1 Second Typical Chip-Erase ■ Quick-Pulse Programming Algorithm — 10 fis Typical Byte-Program — 0.5 Second Chip-Program ■ 100,000 Erase/Program Cycles ■ 12.0V ± 5 % Vpp

8155 intel microcontroller architecture

Contextual Info: A28F010 1024K 128K x 8 CMOS FLASH MEMORY (Automotive) a Automotive Temperature Range: —40°C to + 125°C • Flash Memory Electrical Chip-Erase — 1 Second Typical Chip-Erase ■ Quick-Pulse Programming Algorithm — 10 jus Typical Byte-Program — 2 Second Chip-Program

Contextual Info: Elan SC400 and ElanSC410 AMDÎ! Single-Chip, Low-Power, PC/AT-Compatible Microcontrollers DISTINCTIVE CHARACTERISTICS Elan™SC400 and ElanSC410 Microcontrollers • ■ ■ Standard PC/AT system logic PICs, DMACs, timer, RTC - DOS, ROM-DOS, Windows, and industrystandard BIOS support

m8087 intel

Contextual Info: p R iy iM O B y w in te i M80C187 80-BIT NUMERIC PROCESSOR EXTENSION Military High Perform ance 80-Bit Internal Architecture Tw o to Three Tim es M8087 Perform ance at Equivalent Clock Speed Im plements A N S I/IE E E Standard 7541985 fo r Binary Floating-Point

Contextual Info: in te i 80C188EB-20,-16,-13, -8 16-BIT HIGH-INTEGRATION EMBEDDED PROCESSOR • Full S ta tic O p e ra tio n • T ru e C M O S In p u ts an d O u tp u ts • 40°C to + 85°C O p e ra tin g T e m p e ra tu re R ang e • L o w S y s te m C o s t 8-B it In te rfa c e

psd4xx

Abstract: TQFP68 PSD411A2-C-70J CLDCC68 psd403a2-c-90
Contextual Info: PSD4XX ZPSD4XX Low Cost Field Programmable Microcontroller Peripherals NOT FOR NEW DESIGN FEATURES SUMMARY • Single Supply Voltage: Figure 1. Packages – 5 V±10% for PSD4XX – 2.7 to 5.5 V for PSD4XX-V ■ Up to 1 Mbit of UV EPROM ■ Up to 16 Kbit SRAM

53CF96

Contextual Info: FINAL Advanced Micro Devices Am53CF94/Am53CF96 Enhanced SCSI-2 Controller ESC DISTINCTIVE CHARACTERISTICS • ■ ■ ■ ■ ■ ■ ■ ■ ■ ■ ■ ■ ■ ■ Pin/function compatible with Emulex FAS216/236 AMD’s Patented programmable GLITCH EATER Circuitry on REQ and ACK inputs

AD0-AD15

Abstract: AD10 AD11 AD12 AD14 PSD4235G2 TQFP80 psd4xx
Contextual Info: PSD4235G2 Flash In-System Programmable ISP Peripherals For 16-bit MCUs (5V Supply) PRELIMINARY DATA FEATURES SUMMARY PSD provides an integrated solution to 16-bit MCU based applications that includes configurable memories, PLD logic and I/O: • Dual Bank Flash Memories

cmps a44

Contextual Info: 13 13.1 INSTRUCTION SET OVERVIEW The instruction set used by the Am186EM and Am188EM microcontrollers is identical to the 80C186/188 instruction set. An instruction can reference from zero to several operands. An operand can reside in a register, in the instruction itself, or in memory.