Modul ini memperkenalkan software simulasi jaringan Packet Tracer untuk mensimulasikan berbagai protokol jaringan secara real-time maupun simulasi. Modul ini mendemonstrasikan cara membuat jaringan peer-to-peer sederhana menggunakan Packet Tracer dengan menghubungkan dua PC melalui kabel cross serta melakukan ping antar-PC, serta cara membuat simulasi jaringan gabungan antar-PC menggunakan fitur multi-user pada Packet Tracer.
The document discusses various data addressing modes used in microprocessors, including register, immediate, direct, indirect, base-plus-index, register relative, base relative-plus-index, and scaled-index addressing. It also covers program addressing modes like direct, relative, and indirect jumping and calling. Finally, it discusses stack addressing and how the push and pop instructions are used to place data onto and remove data from the stack.
Modul ini memperkenalkan software simulasi jaringan Packet Tracer untuk mensimulasikan berbagai protokol jaringan secara real-time maupun simulasi. Modul ini mendemonstrasikan cara membuat jaringan peer-to-peer sederhana menggunakan Packet Tracer dengan menghubungkan dua PC melalui kabel cross serta melakukan ping antar-PC, serta cara membuat simulasi jaringan gabungan antar-PC menggunakan fitur multi-user pada Packet Tracer.
The document discusses various data addressing modes used in microprocessors, including register, immediate, direct, indirect, base-plus-index, register relative, base relative-plus-index, and scaled-index addressing. It also covers program addressing modes like direct, relative, and indirect jumping and calling. Finally, it discusses stack addressing and how the push and pop instructions are used to place data onto and remove data from the stack.
The document discusses different addressing modes used in computer instructions. It explains that the addressing mode specifies how the operands are chosen during program execution. Some key addressing modes are direct, indirect, register, register indirect, and relative addressing. The addressing mode determines the effective address, which is the actual memory location of the operand.
The document is an academic guidebook for the International Undergraduate Program at the Faculty of Engineering, University of Indonesia for 2008-2011 that provides information on the general academic system and regulations, departments and study programs, syllabus of subjects, email lists, and maps of the FTUI campus. It introduces the history and background of the University of Indonesia and FTUI and describes the double degree programs available with Australian universities.
Modul ini membahas subnetting dan pengaturan IP pada jaringan lokal. Tujuannya adalah memahami format alamat IP versi 4, subnetting classful dan classless, serta mengkonfigurasi IP pada jaringan lokal. Subnetting dilakukan untuk mengurangi lalu lintas jaringan, meningkatkan kinerja, dan menghemat alamat IP. CIDR dan VLSM merupakan metode subnetting classless yang memberikan fleksibilitas dalam pembagian alamat IP.
Rencana Proyek Divisi Komputer EXERCISE 2010 membahas dua rencana proyek yaitu pembuatan animasi 3D untuk diikutsertakan dalam berbagai lomba dan pembuatan aplikasi Augmented Reality dengan menggunakan teknologi ARToolkit atau Android. Proyek-proyek ini diharapkan dapat diselesaikan pada tahun 2011.
Modul ini memperkenalkan software simulasi jaringan Packet Tracer untuk mendemonstrasikan konfigurasi jaringan peer-to-peer sederhana dan jaringan multi-user. Packet Tracer dapat digunakan untuk mensimulasikan berbagai protokol jaringan secara real-time atau simulasi. Contohnya, modul ini menunjukkan cara membuat dan menguji konektivitas jaringan peer-to-peer dengan menggunakan perintah ping. Juga ditunjukkan cara menghubungkan
The cisco networking academy net riders indonesia 2010 competitionteknik komputer ui
This document outlines the terms and conditions for the Cisco Networking Academy NetRiders Indonesia 2010 Competition. The competition will take place from September 1, 2010 to October 20, 2010 and is sponsored by Cisco Systems International B.V. The competition consists of a registration period, practice test period, and two rounds. Round one will be a qualifying exam taken on October 7, 2010. The top two scoring contestants from each academy will advance to round two on October 20, 2010. Round two will determine the top three scoring contestants who will represent Indonesia in the international competition on October 28, 2010.
This document describes troubleshooting three network connectivity problems at OCP Enterprises. Problem 1 was that PC1 could not reach PC4, which was caused by R2 missing a route to network 1 in its routing table. Problem 2, that PC1 could not reach devices on network 3, was also due to this missing route. Problem 3, that only PC1 and PC3 but not PC2 could reach network 3, was found to be due to PC2 having an incorrect default gateway and IP address configuration.
The document contains a Cisco CCNA Security practice exam with 20 multiple choice questions about implementing Cisco IOS network security. The questions cover topics such as security goals, threats, vulnerabilities, encryption, firewalls, and router hardening. The answer key is provided on the last page.
The document discusses different types of computer memory. It explains that memory is where programs and data are stored before and during computation. Modern computers rely on semiconductor memory like RAM, as they are cheaper and easier to interface than older core memories. The document describes Read Only Memory (ROM) as the simplest type, where data can only be read from permanently stored locations. It also mentions other non-volatile memory technologies like PROM, EPROM, and EEPROM.
This document discusses arithmetic logic units and binary addition and subtraction. It covers binary addition rules and cases, half adders, full adders, binary adders, and examples. It also discusses signed binary numbers represented using sign magnitude and two's complement, noting that two's complement requires less hardware than sign magnitude for arithmetic operations.
This document discusses data transfer instructions in microprocessors. It explains that instructions are the commands a microprocessor understands and that instruction sets define the complete vocabulary for each chip. It notes that common instructions from the 8080, 8085, and 8086/8088 will be studied, but not loop or string instructions. The NO operation and Halt instructions are described as control instructions that waste time or stop the microprocessor. Data transfer instructions move data between registers and memory using terms like "Move", "Load", "Store", and "Transfer" to duplicate the data in the target or destination. Specific examples from the 6502 family are also mentioned.
This document provides an overview of computer architecture and microprocessor architecture. It discusses memory, addressing, address and data buses. It then describes the components of common microprocessor families including the 6502, 6800/6808, 8080/8085/Z80, and 8086/8088. These components include accumulators, general purpose registers, program counters, index registers, status registers, and stack pointers. The document explains how these components work and their roles in the microprocessor.
Registers are memory elements that store binary words. Counters are registers that count clock pulses. There are different types of registers like buffer registers, shift registers, and controlled shift registers. Ripple counters count clock pulses using JK flip flops but have propagation delays. Synchronous counters clock all flip flops simultaneously, eliminating propagation delays. Ring counters sequentially activate devices by having only one high bit in the stored word.
This document discusses addressing modes in digital computers and microprocessors. It covers basic addressing modes like implied, register, immediate, and direct addressing. It also discusses addressing modes for specific microprocessor families like the 6502, 6800/6808, and 8080/8085/Z80 families. The document examines how addressing modes are used to specify the location of operands in a computer's memory and how different processors implement various addressing modes.
This chapter discusses programming languages and microprocessor programming. It covers the relationship between electronics and programming, how the invention of computers led to programming, and how microprocessors are programmed. The chapter also introduces fundamental programming concepts like flow charts, different types of programming languages (machine language, assembly language, high-level languages), and assembly language programming. It uses a simple example of taking a bus ride to demonstrate basic programming techniques.
This document discusses programming techniques for microprocessors including modular programming using assemblers, linkers, macros, and libraries. It also covers using the keyboard, video display, and mouse through DOS and BIOS function calls. Specific techniques are illustrated through examples such as reading and displaying individual keys, reading a line of text, and using the mouse interrupt to control the pointing device.
This chapter discusses arithmetic and flag operations in digital computers. It covers binary addition and subtraction methods used in arithmetic logic units, including half and full adders. The chapter also explains status flags that indicate results such as carries, zeros, negatives, and overflow from arithmetic operations to help computers perform tasks.
The document discusses different types of instructions and addressing modes used in computer processors. It begins by explaining the basic operations of load/store, arithmetic/logic, and test/branch instructions. It then describes several common addressing modes including direct, immediate, and indirect addressing. Direct addressing specifies the exact memory location or register. Immediate addressing embeds a constant value within the instruction itself. Indirect addressing provides the address of where the target address or operand is located.
The document discusses different addressing modes used in computer instructions. It explains that the addressing mode specifies how the operands are chosen during program execution. Some key addressing modes are direct, indirect, register, register indirect, and relative addressing. The addressing mode determines the effective address, which is the actual memory location of the operand.
The document is an academic guidebook for the International Undergraduate Program at the Faculty of Engineering, University of Indonesia for 2008-2011 that provides information on the general academic system and regulations, departments and study programs, syllabus of subjects, email lists, and maps of the FTUI campus. It introduces the history and background of the University of Indonesia and FTUI and describes the double degree programs available with Australian universities.
Modul ini membahas subnetting dan pengaturan IP pada jaringan lokal. Tujuannya adalah memahami format alamat IP versi 4, subnetting classful dan classless, serta mengkonfigurasi IP pada jaringan lokal. Subnetting dilakukan untuk mengurangi lalu lintas jaringan, meningkatkan kinerja, dan menghemat alamat IP. CIDR dan VLSM merupakan metode subnetting classless yang memberikan fleksibilitas dalam pembagian alamat IP.
Rencana Proyek Divisi Komputer EXERCISE 2010 membahas dua rencana proyek yaitu pembuatan animasi 3D untuk diikutsertakan dalam berbagai lomba dan pembuatan aplikasi Augmented Reality dengan menggunakan teknologi ARToolkit atau Android. Proyek-proyek ini diharapkan dapat diselesaikan pada tahun 2011.
Modul ini memperkenalkan software simulasi jaringan Packet Tracer untuk mendemonstrasikan konfigurasi jaringan peer-to-peer sederhana dan jaringan multi-user. Packet Tracer dapat digunakan untuk mensimulasikan berbagai protokol jaringan secara real-time atau simulasi. Contohnya, modul ini menunjukkan cara membuat dan menguji konektivitas jaringan peer-to-peer dengan menggunakan perintah ping. Juga ditunjukkan cara menghubungkan
The cisco networking academy net riders indonesia 2010 competitionteknik komputer ui
This document outlines the terms and conditions for the Cisco Networking Academy NetRiders Indonesia 2010 Competition. The competition will take place from September 1, 2010 to October 20, 2010 and is sponsored by Cisco Systems International B.V. The competition consists of a registration period, practice test period, and two rounds. Round one will be a qualifying exam taken on October 7, 2010. The top two scoring contestants from each academy will advance to round two on October 20, 2010. Round two will determine the top three scoring contestants who will represent Indonesia in the international competition on October 28, 2010.
This document describes troubleshooting three network connectivity problems at OCP Enterprises. Problem 1 was that PC1 could not reach PC4, which was caused by R2 missing a route to network 1 in its routing table. Problem 2, that PC1 could not reach devices on network 3, was also due to this missing route. Problem 3, that only PC1 and PC3 but not PC2 could reach network 3, was found to be due to PC2 having an incorrect default gateway and IP address configuration.
The document contains a Cisco CCNA Security practice exam with 20 multiple choice questions about implementing Cisco IOS network security. The questions cover topics such as security goals, threats, vulnerabilities, encryption, firewalls, and router hardening. The answer key is provided on the last page.
The document discusses different types of computer memory. It explains that memory is where programs and data are stored before and during computation. Modern computers rely on semiconductor memory like RAM, as they are cheaper and easier to interface than older core memories. The document describes Read Only Memory (ROM) as the simplest type, where data can only be read from permanently stored locations. It also mentions other non-volatile memory technologies like PROM, EPROM, and EEPROM.
This document discusses arithmetic logic units and binary addition and subtraction. It covers binary addition rules and cases, half adders, full adders, binary adders, and examples. It also discusses signed binary numbers represented using sign magnitude and two's complement, noting that two's complement requires less hardware than sign magnitude for arithmetic operations.
This document discusses data transfer instructions in microprocessors. It explains that instructions are the commands a microprocessor understands and that instruction sets define the complete vocabulary for each chip. It notes that common instructions from the 8080, 8085, and 8086/8088 will be studied, but not loop or string instructions. The NO operation and Halt instructions are described as control instructions that waste time or stop the microprocessor. Data transfer instructions move data between registers and memory using terms like "Move", "Load", "Store", and "Transfer" to duplicate the data in the target or destination. Specific examples from the 6502 family are also mentioned.
This document provides an overview of computer architecture and microprocessor architecture. It discusses memory, addressing, address and data buses. It then describes the components of common microprocessor families including the 6502, 6800/6808, 8080/8085/Z80, and 8086/8088. These components include accumulators, general purpose registers, program counters, index registers, status registers, and stack pointers. The document explains how these components work and their roles in the microprocessor.
Registers are memory elements that store binary words. Counters are registers that count clock pulses. There are different types of registers like buffer registers, shift registers, and controlled shift registers. Ripple counters count clock pulses using JK flip flops but have propagation delays. Synchronous counters clock all flip flops simultaneously, eliminating propagation delays. Ring counters sequentially activate devices by having only one high bit in the stored word.
This document discusses addressing modes in digital computers and microprocessors. It covers basic addressing modes like implied, register, immediate, and direct addressing. It also discusses addressing modes for specific microprocessor families like the 6502, 6800/6808, and 8080/8085/Z80 families. The document examines how addressing modes are used to specify the location of operands in a computer's memory and how different processors implement various addressing modes.
This chapter discusses programming languages and microprocessor programming. It covers the relationship between electronics and programming, how the invention of computers led to programming, and how microprocessors are programmed. The chapter also introduces fundamental programming concepts like flow charts, different types of programming languages (machine language, assembly language, high-level languages), and assembly language programming. It uses a simple example of taking a bus ride to demonstrate basic programming techniques.
This document discusses programming techniques for microprocessors including modular programming using assemblers, linkers, macros, and libraries. It also covers using the keyboard, video display, and mouse through DOS and BIOS function calls. Specific techniques are illustrated through examples such as reading and displaying individual keys, reading a line of text, and using the mouse interrupt to control the pointing device.
This chapter discusses arithmetic and flag operations in digital computers. It covers binary addition and subtraction methods used in arithmetic logic units, including half and full adders. The chapter also explains status flags that indicate results such as carries, zeros, negatives, and overflow from arithmetic operations to help computers perform tasks.
The document discusses different types of instructions and addressing modes used in computer processors. It begins by explaining the basic operations of load/store, arithmetic/logic, and test/branch instructions. It then describes several common addressing modes including direct, immediate, and indirect addressing. Direct addressing specifies the exact memory location or register. Immediate addressing embeds a constant value within the instruction itself. Indirect addressing provides the address of where the target address or operand is located.
Greateri – Business PowerPoint TemplateZahraCreative
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Qualitative Market Research Report for Del Taco Created by MICHAEL BLANCO DES...Michael Blanco Designs
OWLSMART Research contacted me to help them design a deck for their client Del Taco. The client was in need of a Qualitative Market Research deck that would illustrate the Pros and Cons of a new menu items they would be launching. This is an example of the deck with Lorem Ipsum sample text.
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The document discusses the role and functions of the data link layer in networking. It describes how the data link layer prepares data for transmission by encapsulating packets into frames. It also describes different media access control methods for shared and non-shared media, including full and half duplex. Common logical network topologies like point-to-point, multi-access, and ring are also covered, along with how they determine the appropriate media access control method. Key concepts like frame structure, addressing, and error checking are also summarized.
The document discusses IPv4 network fundamentals including:
1) The structure of IPv4 addressing and how to convert between binary and decimal.
2) The different types of IPv4 addresses and how they are used.
3) How addresses are assigned to networks by ISPs and administrators, including the role of subnet masks.
4) Calculating network portions, host addresses, and subnets given an IP address and subnet mask.
5) Using ping and traceroute to test network connectivity and verify IP protocol functionality.
The document discusses the network layer and Internet Protocol (IP). It describes the basic role of the network layer in data networks and the characteristics of IP, including being connectionless, unreliable, and media independent. It also covers hierarchical addressing, routing, and packet forwarding between networks and subnetworks using routers and routing tables. Key concepts covered include IP header fields, grouping devices into logical subnetworks, and the use of routes, next hop addresses, and gateways to transport packets across networks.
This document discusses the Transport layer and protocols TCP and UDP. It explains that the Transport layer supports reliable communication across networks by implementing protocols that handle segmentation, reassembly, and reliability. TCP provides reliable, ordered delivery using sequence numbers, acknowledgements, and retransmissions to handle lost data. UDP is simpler and does not guarantee delivery, making it better for streaming media. Port numbers are used to direct segments to the proper application process on servers or clients.
The document discusses application layer functionality and protocols. It defines the application layer as the source and destination of data across networks. It explains how applications, services, and protocols allow the conversion of communication to network-transferable data. Specifically, it describes several commonly used TCP/IP application layer protocols like HTTP, DNS, SMTP, and their roles in supporting functions such as web pages, email, and file sharing.
The document discusses key concepts in network fundamentals including:
- The structure of networks including devices, media, protocols, and layered models like TCP/IP and OSI.
- How messages are communicated across networks in segments using hardware, software, end devices, and intermediary devices.
- The roles of protocols in allowing different devices to communicate successfully in a standardized way.
- How layered models and encapsulation allow messages to be broken into packets and routed between sources and destinations.
This document provides an overview of data networking fundamentals and how networks impact daily life. It describes how networks allow for instant communication, sharing, collaboration and connectivity that improves how we work, learn and play. The key components of networks are identified as devices, medium, messages and rules. Converged networks can carry voice, video and data over the same network. Network architecture aims to provide fault tolerance, scalability, quality of service and security. Packet switching, hierarchical structures and common standards help networks scale. Quality of service ensures priority for time-sensitive traffic through mechanisms like traffic shaping. Security measures include authentication, encryption, signatures, firewalls and redundancy. The document instructs the reader to install and use IRC clients and a
This document discusses configuring and testing a network. It covers defining the role of the Internetwork Operating System (IOS) and using Cisco CLI commands to perform basic router and switch configuration and verification. It also discusses selecting, applying, and verifying appropriate addressing parameters for a host, using common utilities to verify network connectivity between hosts, and using utilities to establish a baseline for network performance.
This document provides information about an Object Oriented Programming course, including its objectives, schedule, references, and an introduction to OOP. The course aims to help students understand OOP design principles and be able to design, develop, and implement OOP software systems. It will cover topics like inheritance, polymorphism, Java packages and networking over several weeks. Students are provided reading assignments from listed references to prepare for lectures.
This document discusses Java documentation and language elements. It covers the purpose of documentation, guidelines for documenting classes, and generating API documentation using javadoc tags. It also describes Java keywords, identifiers, braces/semicolons/whitespace usage. Additionally, it outlines Java data types including primitives and references, and defines elements like classes, methods, and constructors. Finally, it discusses object creation in five steps and concepts like mutability, garbage collection, and finalizers.
The document discusses a lecture on object-oriented programming principles given by Dr. Kalamullah Ramli, where he defines objects as combining properties and behaviors through encapsulation, explains how objects interact through passing messages to each other's methods, and outlines some of the key benefits of object-oriented programming such as code reuse and easier maintenance.
This document provides an introduction to object-oriented programming concepts including the differences between procedural and OOP languages, basic Java terminology like classes, objects, attributes, methods, and encapsulation. It discusses what objects are, how to identify, define, create and operate on objects. It also covers object relationships like association, inheritance and mutability. Finally, it discusses modeling languages/symbols like UML, class definition, creating objects, object methods, and the Java System class.
This document discusses requirement engineering and contains a presentation by Prof. Dr.-Ing. Kalamullah Ramli on the topic. Some key points discussed include:
1) Requirement analysis is important to understand user needs and limit costs, but users may not clearly articulate their wants and the requirements can change over time.
2) Poor requirement analysis can lead to system failures and wasted design costs even if the system is not a complete failure.
3) Gathering requirements involves methods like interviews, observations, questionnaires and document analysis to understand user contexts and needs.
4) Requirements specification documentation structures user needs, system functions and constraints in a clear manner for designers.
This document discusses various object operations, data types, operators, and control structures in Java including arithmetic, comparison, conditional, and bitwise operators; casting and conversions; strings and string buffers; if/else, switch, and loop statements; and the java.lang.System class. It provides details on how these various elements work and examples of their usage in Java programs. In particular, it covers topics like operator precedence, associativity, conditional logic, looping, breaking and continuing flow, and string manipulation.
This document provides an overview of Chapter 3 from the textbook "IT Essentials: PC Hardware and Software v4.0". The chapter covers the assembly of computer components including installing the power supply, motherboard, drives, adapter cards, cables, and booting the computer for the first time. It describes the objectives and contents of the chapter, including labs and virtual desktop activities for students.
This chapter provides an introduction to personal computers. It outlines the chapter objectives which include explaining industry certifications and describing the various internal and external computer components. The chapter contents are overviewed, including potential misconceptions. Additional resources for instructors are also listed.
This chapter overview document summarizes the contents and objectives of Chapter 8 from the IT Essentials textbook on networking principles, standards, and purposes. The chapter covers topics like network topologies, protocols, hardware components, configuration, troubleshooting, and more. It includes student worksheets, activities, and labs to help instructors teach the material.
The document discusses the hardware specifications of the Intel 8086 and 8088 microprocessors. It describes the differences in their data bus widths and a minor difference in one control signal. Both require a 5V power supply. It also provides details on the pin connections and functions of the clock generator chip 8284A used with these microprocessors. The document explains bus buffering, demultiplexing, timing and the use of wait states for interfacing with slower memory and I/O components. It contrasts the minimum and maximum operating modes of the 8086/8088 and the need for an external 8288 bus controller in maximum mode.
The document describes data conversions between binary and ASCII formats in microprocessors. It discusses algorithms for converting binary to ASCII using division and remainders, as well as converting ASCII to binary using multiplication and remainders. Examples of programs are provided to illustrate converting numbers, hexadecimal values, and using lookup tables for conversions. File input/output using DOS interrupt calls are also summarized, including creating, writing, moving the file pointer, and random access of files. An example calculator and sorting program are described to demonstrate data conversion applications.
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Johnny B. Goodgrades
Mr. Wilson | Period 3
Introduction
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