Lect 5
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The document discusses specifications and pinouts of the 8086 and 8088 microprocessors. It describes that both are 16-bit processors packaged in 40-pin DIP packages, with the 8086 having a 16-bit data bus and the 8088 having an 8-bit data bus. It also discusses the 8284A clock generator chip used with these processors, providing clock signals, reset synchronization and ready synchronization. The document outlines the bus timing of the processors over four clock cycles and how the ready pin inserts wait states for slower memory and I/O components.
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This document discusses different categories of application software, including media and graphics applications, internet-based applications, and home and educational applications. Media and graphics applications are used for tasks like desktop publishing, image editing, 3D rendering, audio editing and video editing. Internet-based applications include email clients, web browsers, instant messaging, video conferencing, and web-hosted applications. Home and educational applications contain software for tasks like personal finance management, home and landscaping design, educational games, and tax preparation.
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Minimum Modes and Maximum Modes of 8086 Microprocessor
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The 8086 microprocessor was Intel's first 16-bit microprocessor released in 1978. It had several improvements over previous processors including being 16-bit instead of 8-bit, having an instruction queue to improve performance, and supporting segmented memory addressing to access more than 64KB of memory. The 8086 had a 16-bit external data bus, 20-bit address bus, and could address up to 1MB of memory. It operated at clock speeds between 5-10MHz and had around 29,000 transistors.
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8086 Microprocessor,programming with 8086,pin diagram,all pins details and brief explanation, architecture,functional diagram, comparison 8086 and 8088,
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The document describes the architecture and pin configuration of the 8086 microprocessor. It discusses the various pins and signals of the 8086 chip. It explains that the pins can be categorized into three groups - signals common to minimum and maximum mode, signals with special functions in minimum mode, and signals with special functions for maximum mode. The document then proceeds to describe each of the important pins and signals of the 8086 microprocessor.
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This document provides an overview of the 8086 microprocessor, including its functional blocks, generations, pins and signals, architecture, and registers. Some key points:
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The 8086 microprocessor is Intel's first 16-bit microprocessor released in 1978. It has an internal architecture that includes a bus interface unit (BIU) and execution unit (EU). The BIU fetches instructions and data from memory and handles the segment registers. The EU decodes and executes instructions using its ALU and registers including AX, BX, CX, DX, stack pointer, base pointer, and index registers. The 8086 can address up to 1MB of memory using 20 address lines generated by combining a segment register and offset register.
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The document discusses the architecture and components of the Intel 8086 microprocessor. It describes the microprocessor as having a Bus Interface Unit (BIU) that fetches instructions and data from memory and I/O ports, and an Execution Unit (EU) that executes the instructions. The BIU uses four 16-bit segment registers - code, data, stack, and extra - to access different segments of memory and compute physical addresses. It multiplies the code segment register by 16 and adds the instruction pointer to generate addresses.
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The document provides an overview of the 8086 microprocessor, which was Intel's first 16-bit microprocessor released in 1978. It describes the five generations of microprocessors leading up to the 8086. It then discusses the functional blocks, pins and signals, architecture, and registers of the 8086 microprocessor. The 8086 used a 20-bit address bus to access up to 1MB of memory. It had four 16-bit segment registers to access different segments of memory and used multiplexed address and data lines to reduce the number of pins.
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The 8086 microprocessor is a 16-bit processor released by Intel in 1978. It has approximately 29,000 transistors and a 40-pin DIP package. The 8086 uses separate 16-bit registers to address up to 1 megabyte of memory across four segments of 64KB each. It can operate in minimum or maximum mode depending on the state of the MN/MX pin. The 8086 has an execution unit that executes instructions fetched by the bus interface unit, which handles fetching from memory and I/O.
8086.pptx
The 8086 microprocessor is Intel's first 16-bit microprocessor released in 1978. It has approximately 29,000 transistors, operates at 5V, and can address up to 1 megabyte of memory space through its 20-bit address bus. The 8086 uses separate 16-bit address spaces for memory and I/O devices and can operate in minimum or maximum modes depending on the state of its MN/MX pin. It has an execution unit that performs arithmetic and logic operations and a bus interface unit that fetches instructions and data from memory and I/O ports.
8086slide
The 8086 microprocessor is Intel's first 16-bit microprocessor released in 1978. It has approximately 29,000 transistors, operates at 5V, and can address up to 1 megabyte of memory space using 20 address lines. The 8086 uses separate 16-bit addresses for I/O devices, allowing it to access 64k I/O addresses. It can operate in minimum or maximum mode depending on the state of the MN/MX pin. In maximum mode, additional pins are used for bus requests and status signals to support multi-processor systems. The 8086 architecture separates execution and bus interface functions, using segment registers and an instruction pointer to generate physical addresses across 1MB of memory divided into segments.
8086 microprocessor
The 8086 microprocessor is Intel's first 16-bit microprocessor, released in 1978. It has approximately 29,000 transistors, operates at 5V, and can address up to 1 megabyte of memory using 20 address lines. The 8086 uses separate 16-bit registers to access up to four segments of memory or I/O space at a time. It can operate in minimum or maximum mode depending on the state of the MN/MX pin, with maximum mode allowing bus sharing with other devices.
8086 micro processor
The document discusses the 8086 microprocessor. It has a 16-bit data bus (8086) or 8-bit data bus (8088). The 8086 has a 40-pin design while the 8088 has a pin that is either SSO or a regular pin. The document describes the pinouts, bus cycles, memory organization, and differences between minimum and maximum mode systems for both chips.
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This document discusses the 8086 system bus structure. It begins by describing the basic configurations of minimum and maximum mode 8086 systems, including the system bus timing diagrams for read and write operations. It then discusses multiprocessor configurations using the 8086, including coprocessor configurations with the 8087 and closely/loosely coupled multiprocessor configurations. The document provides detailed information on the 8086 pin descriptions and signals in both minimum and maximum mode.
8086 Microprocessor
The document summarizes key details about the 8086 microprocessor:
1. It has 29,000 transistors and is housed in a 40-pin DIP package.
2. It can operate in two modes - MIN mode for a single processor system and MAX mode for a multiprocessor system.
3. It has separate execution and bus interface units that allow parallel processing for improved performance over the 8085.
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The document provides information about microprocessors and the Intel 8086 microprocessor. It discusses the following:
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Lect 5
- 1. Microprocessor Systems EE351 8086 Chipset Badar-ul-Islam Department of Electrical Engineering NFC-IEFR [email_address]
- 14. 8086/88 Pinout
- 19. Pinouts
- 20. Connection of the 8284 and the 8086
- 28. BUS Buffering and Latching
- 32. BUS Timing
- 47. Maximum Mode Interface through 8288
- 50. MAX Mode 8086 System