PRE FINAL EXAM. .

Chipset - A number of integrated circuits designed to perform one or more related functions. For example, one chipset may provide the basic functions of a modem while another provides the CPU functions for a computer. Newer chipsets generally include functions provided by two or more older chipsets. In some cases, older chipsets that required two or more physical chips can be replaced with a chipset on one chip.

Kinds of Intel Chipsets
Desktop Chipsets - Get enhanced capabilities for audio, digital video and communications with Intel® chipset technologies for desktop PCs.

DIFFERENT KINDS OF CHIPSET

Intel® 975X Express Chipset - Platforms based on the Intel® 975X Express Chipset and Intel® Pentium® processor Extreme Edition deliver incredible high performance for gaming, multimedia entertainment and demanding business applications of today and tomorrow.

The Intel 975X Express Chipset enables Intel's highest desktop performance platforms, with support for the latest Intel dual-core processors, adding intelligence to help manage and prioritize multiple (quad) threads received from the processor.

In addition to multiple thread support, the Intel 975X Express Chipset enables key performance-optimized capabilities such as support for multiple 2x8 graphics cards, Intel® Memory Pipeline Technology (Intel® MPT), 8GB memory addressability to enable 64-bit computing, and ECC memory support.

Intel® 955X Express Chipset - Platforms based on the Intel® 955X Express Chipset and Intel® Pentium® processor Extreme Edition deliver incredible digital entertainment experiences and meet the most demanding business applications of today and tomorrow. The Intel 955X Express Chipset enables Intel's highest performance platforms, with support for the new Intel dual-core processor supporting Hyper-Threading Technology†, adding intelligence to help manage and prioritize four software threads simultaneously for the first time on desktop PCs. Additionally, this chipset supports key performance-optimized capabilities such as Intel® Memory Pipeline Technology (Intel® MPT), up to 8 GB memory addressability to help enable 64-bit computing, and ECC memory support.

Intel® 925XE Express Chipset - The Intel® 925XE Express chipset and the Intel® Pentium® 4 processor Extreme Edition supporting Hyper-Threading Technology† create a platform optimized to deliver exceptional system performance, providing advanced technology and new levels of efficiency to help meet the demands of advanced computer users.The features of the Intel 925XE Express chipset deliver a compelling solution for the most demanding high-end multimedia creator, media user or gamer.

Intel® 925X Express Chipset - Intel® 925X Express chipset-based platforms are optimized to deliver exceptional system performance, providing advanced technology and new levels of efficiency to help meet the demands of advanced computer users.The Intel 925X Express chipset was designed to support the Intel® Pentium® 4 processor Extreme Edition supporting Hyper-Threading Technology† and the Intel® Pentium® 4 processor supporting Hyper-Threading Technology†. Additionally, the Intel 925X Express chipset is specifically designed to support Intel® Extended Memory 64 TechnologyΦ (Intel® EM64T) enabling 64-bit memory addressability.

Intel® G35 Express Chipset - The Intel G35 Express Chipset continues the Intel chipset legacy and extends it to new levels with purpose-built capabilities designed specifically to address the key needs of the home user. With advancements in graphics, video, and system responsiveness, the Intel G35 Express Chipset allows your PC to be the center of home computing, communication, and entertainment.Desktop PC platforms based on the Intel G35 Express Chipset, combined with either the Intel Core 2 Duo or Intel Core 2 Quad processor, and with support for next-generation 45nm Intel® Core™2 processor family, deliver innovative capabilities and usages for digital home consumers and new levels of 3D and media performance while enabling lower power and quieter systems.

Intel® Q35 and Q33 Express Chipsets - The Intel Q35 and Q33 Express Chipsets will deliver support for Intel's upcoming 45nm processors. Intel is also bringing higher performance in combination with greater energy efficiency and supplying critical building blocks for continued Energy Star* support. The Intel Q35 and Q33 Express Chipsets are continuously advancing capabilities of the Intel® vPro™ processor technology by providing leading security and manageability.Desktop PC platforms based on the Intel Q35 and Q33 Express Chipsets, combined with either the Intel Core 2 Duo or Intel Core 2 Quad processor, and with support for next-generation 45nm Intel® Core™2 processor family, deliver innovative capabilities and usages for digital home consumers and new levels of 3D and media performance while enabling lower power and quieter systems.

Intel® P31 Express Chipset - The Intel® P31 Express Chipset supports Intel's upcoming 45nm processors, enabling a scalable discrete platform for value conscious consumers. With a 1066MHz system bus and DDR2 memory technology, the Intel® P31 Express chipset enables a scalable discrete platform for value conscious consumers.

Intel® 845PE Chipset - The Intel® 845PE chipset is a discrete graphics chipset developed with DDR333 and optimized to support the Intel® Pentium® 4 processor supporting Hyper-Threading Technology†.

Intel® 845GV Chipset - The Intel® 845GV chipset is an innovative integrated graphics chipset developed with DDR266 memory and optimized to support the Intel® Pentium® 4 processor supporting Hyper-Threading (HT) Technology†. The Intel® 845GV chipset features Intel® Extreme Graphics technology, running at 266 MHz core speed.

Intel® 845GE Chipset - The Intel® 845GE chipset is optimized for the Intel® Pentium® 4 processor supporting Hyper-Threading (HT) Technology†. Highlights include DDR333 memory and Intel® Extreme Graphics technology, running at 266 MHz core speed, which enables even better performance than previous generation chipsets

Latest Video Card

Radeon™ X1950 Graphics Technology

With the Radeon™ X1950, your graphics performance will never be compromised.

Imagine games with hyper realistic light blooms, lifelike skin textures, and silky smooth hair. Now imagine the non-stop action packed gaming on a CrossFire™ platform – the only choice for hardcore gamers.

That’s what it’s like with the Radeon X1950, ATI’s fastest and most flexible 3D processor. All gaming, all the time. Radeon™ graphics. Never compromise.

Radeon™ X1950 Graphics Technology - GPU Specifications

Features

384 million transistors on 90nm fabrication processUp to 48 pixel shader processors8 vertex shader processorsUp to 256-bit 8-channel GDDR4 memory interfaceNative PCI Express x16 bus interface

Ring Bus Memory Controller

Up to 512-bit internal ring bus for memory readsFully associative texture, color, and Z/stencil cache designsHierarchical Z-buffer with Early Z testLossless Z Compression (up to 48:1)Fast Z-Buffer ClearOptimized for performance at high display resolutions, including widescreen HDTV resolutions

Ultra-Threaded Shader Engine

Support for Microsoft® DirectX® 9.0 Shader Model 3.0 programmable vertex and pixel shaders in hardwareFull speed 128-bit floating point processing for all shader operationsUp to 512 simultaneous pixel threadsDedicated branch execution units for high performance dynamic branching and flow controlDedicated texture address units for improved efficiency3Dc+ texture compression o High quality 4:1 compression for normal maps and two-channel data formatsHigh quality 2:1 compression for luminance maps and single-channel data formatsComplete feature set also supported in OpenGL® 2.0

Advanced Image Quality Features

64-bit floating point HDR rendering supported throughout the pipelineIncludes support for blending and multi-sample anti-aliasing32-bit integer HDR (10:10:10:2) format supported throughout the pipelineIncludes support for blending and multi-sample anti-aliasing2x/4x/6x Anti-Aliasing modesMulti-sample algorithm with gamma correction, programmable sparse sample patterns, and centroid samplingNew Adaptive Anti-Aliasing feature with Performance and Quality modesTemporal Anti-Aliasing modeLossless Color Compression (up to 6:1) at all resolutions, including widescreen HDTV resolutions2x/4x/8x/16x Anisotropic Filtering modesUp to 128-tap texture filteringAdaptive algorithm with Performance and Quality optionsHigh resolution texture support (up to 4k x 4k)

Avivo™ Video and Display Platform

High performance programmable video processorAccelerated MPEG-2, MPEG-4, DivX, WMV9, VC-1, and H.264 decoding and transcodingDXVA supportDe-blocking and noise reduction filteringMotion compensation, IDCT, DCT and color space conversionVector adaptive per-pixel de-interlacing3:2 pulldown (frame rate conversion)Seamless integration of pixel shaders with video in real timeHDR tone mapping accelerationMaps any input format to 10 bit per channel outputFlexible display supportDual integrated dual-link DVI transmittersDVI 1.0 compliant / HDMI interoperable and HDCP ready*Dual integrated 10 bit per channel 400 MHz DACs16 bit per channel floating point HDR and 10 bit per channel DVI outputProgrammable piecewise linear gamma correction, color correction, and color space conversion (10 bits per color)Complete, independent color controls and video overlays for each displayHigh quality pre- and post-scaling engines, with underscan support for all outputsContent-adaptive de-flicker filtering for interlaced displaysXilleon™ TV encoder for high quality analog outputYPrPb component output for direct drive of HDTV displaysSpatial/temporal dithering enables 10-bit color quality on 8-bit and 6-bit displaysFast, glitch-free mode switchingVGA mode support on all outputsDrive two displays simultaneously with independent resolutions and refresh ratesCompatible with ATI TV/Video encoder products, including Theater 550* Playing HDCP content requires additional HDCP ready components, including but not limited to an HDCP ready monitor, disc drive, multimedia application and computer operating system.

CrossFire™

Multi-GPU technologyFour modes of operation:Alternate Frame Rendering (maximum performance)Supertiling (optimal load-balancing)Scissor (compatibility)Super AA 8x/10x/12x/14x (maximum image quality

EXERCISE 2

Memory Chips

Ram Chips- is a type of data storage used in computers. It takes the form of integrated circuits that allow the stored data to be accessed in any order — that is, at random and without the physical movement of the storage medium or a physical

reading head.

Rom Chips-is a computer file which contains a copy of the data from a read-only memory chip, often from a video game cartridge, a computer's firmware, or from an arcade game's main board. The term is frequently used in the context of emulation, whereby older games or computer firmware are copied to ROM files on modern computers and can, using a piece of software known as an emulator, be run on the newer computer.

Prom Memory Chips - Short for programmable read-only memory, a memory chip on which data can be written only once. Once a program has been written onto a PROM, it remains there forever. Unlike RAM, PROMs retain their contents when the computer is turned off.
The difference between a PROM and a ROM (read-only memory) is that a PROM is manufactured as blank memory, whereas a ROM is programmed during the manufacturing process. To write data onto a PROM chip, you need a special device called a PROM programmer or PROM burner. The process of programming a PROM is sometimes called burning the PROM.

Eprom Memory Chips- An EPROM, or erasable programmable read-only memory, is a type of computer memory chip that retains its data when its power supply is switched off. In other words, it is non-volatile. It is an array of floating-gate transistors individually programmed by an electronic device that supplies higher voltages than those normally used in electronic circuits. Once programmed, an EPROM can be erased only by exposing it to strong ultraviolet light. That UV light usually has a wavelength of 235nm (for optimum erasure time) and belongs to the UVC range of UV light. EPROMs are easily recognizable by the transparent fused quartz window in the top of the package, through which the silicon chip can be seen, and which permits UV light during erasing.

EEPROM MEMORY CHIP - Electrically Erasable Programmable Read-Only Memory, is a non-volatile storage chip used in computers and other devices to store small amounts of volatile (configuration) data. When larger amounts of more static data are to be stored (such as in USB flash drives) other memory types like flash memory are more economical.

Port - is a facility for receiving ships and transferring cargo. They are usually situated at the edge of an ocean, sea, river, or lake. Ports often have cargo-handling equipment such as cranes (operated by longshoremen) and forklifts for use in loading/unloading of ships, which may be provided by private interests or public bodies. Often, canneries or other processing facilities will be located very close by. Harbour pilots , barges and tugboats are often used to safely maneuver large ships in tight quarters as they approach and leave the docks. Ports which handle international traffic will have customs facilities.

Serial Port - A serial port transmit data one bit at a time. Typically on older PCs, a modem, mouse, or keyboard would be connected via serial ports. Serial cables are cheaper to make than parallel cables and easier to shield from interference.







Parallel Port - The parallel port of older PCs could transmit 8 bits of data at a time, so it was faster than the old serial port (just as more traffic can move along a multi-lane highway than can move along a one-lane road). The parallel port was typically used to connect a printer to the computer.




USB Port - USB (Universal Serial Bus) is a newer type of serial connection that is much faster than the old serial ports. USB is also much smarter and more versatile since it allows the “daisy chaining” of up to 127 USB peripherals connected to one port.
USB ports can support the connection of many kinds of devices (keyboard, mouse, printer, audio in/out, external floppy or Zip drives, scanner, flash drive, etc.). Newer PCs and Macs include several USB ports, some often located in handy spots on the front panel of the computer case or the side of the keyboard. USB connections are hot-swappable (they can be connected and disconnected while the devices are turned on; this is not always true for older connection methods).
An updated version, called USB 2.0 has a speed of 480 Mbits/sec, which is 40 times faster than the older USB port’s high-speed mode (the connectors look the same).





Ethernet Port - Connecting your computer to a network requires a network adapter. This circuitry and port could be built into the motherboard (as is often the case in laptops and Macs), or your computer may have a network interface card (NIC) in one of its expansion slots. Your computer also needs the necessary networking software installed.
The most commonly used networking technology is Ethernet (we use it to connect together the PCs, Macs, and server computers on the UNM-LA Local Area Network).











PS/2 Ports - PS/2 ports are special ports for connecting the keyboard and mouse to some PC systems. This type of port was invented by IBM.





Audio Ports - The three small connectors shown at the right are for connecting sound input (from a tape player, for example), sound out (to connect you PC’s sound output to your stereo system of external speakers), and a microphone input port.





Bus Analyzer - is a computer bus analysis tool, often a combination of hardware and software, used during development of hardware or device drivers for a specific bus, diagnosing bus or device failures, or reverse engineering.
A bus analyzer is a type of protocol analyzer, which is designed for use with certain specific parallel and serial bus architectures. It differs from other protocol analyzers which analyze traffic running across non-bus-based mediums ranging from ethernet networks to wireless LANs or PANs.

NETWORK TOPOLOGY

NETWORK TOPOLOGY

Network topology is the study of the arrangement or mapping of the elements (links, nodes, etc.) of a network, especially the physical (real) and logical (virtual) interconnections between nodes [1] [2] [3].
A local area network (LAN) is one example of a network that exhibits both a physical and a logical topology. Any given node in the LAN will have one or more links to one or more other nodes in the network and the mapping of these links and nodes onto a graph results in a geometrical shape that determines the physical topology of the network. Likewise, the mapping of the flow of data between the nodes in the network determines the logical topology of the network. It is important to note that the physical and logical topologies might be identical in any particular network but they also may be different.
Any particular network topology is determined only by the graphical mapping of the configuration of physical and/or logical connections between nodes - Network Topology is, therefore, technically a part of graph theory. Distances between nodes, physical interconnections, transmission rates, and/or signal types may differ in two networks and yet their topologies may be identical[2

RING TOPOLOGY

A local-area network (LAN) whose topology is a ring. That is, all of the nodes are connected in a closed loop. Messages travel around the ring, with each node reading those messages addressed to it. One of the advantages of ring networks is that they can span larger distances than other types of networks, such as bus networks, because each node regenerates messages as they pass through it.

MESH TOPOLOGY

A mesh network is a local area network (LAN) that employs one of two connection arrangements, full mesh topology or partial mesh topology. In the full mesh topology, each node (workstation or other device) is connected directly to each of the others. In the partial mesh topology, some nodes are connected to all the others, but some of the nodes are connected only to those other nodes with which they exchange the most data.
The illustration shows a full mesh network with five nodes. Each node is shown as a sphere, and connections are shown as straight lines. The connections can be wired or wireless.

STAR TOPOLOGY

Star networks are one of the most common computer network topologies. In its simplest form, a star network consists of one central switch, hub or computer which acts as a conduit to transmit messages. If the central node is passive, the originating node must be able to tolerate the reception of an echo of its own transmission, delayed by the two-way transmission time (i.e. to and from the central node) plus any delay generated in the central node. An active star network has an active central node that usually has the means to prevent echo-related problems.
The star topology reduces the chance of network failure by connecting all of the systems to a central node. When applied to a bus-based network, this central hub rebroadcasts all transmissions received from any peripheral node to all peripheral nodes on the network, sometimes including the originating node. All peripheral nodes may thus communicate with all others by transmitting to, and receiving from, the central node only. The failure of a transmission line linking any peripheral node to the central node will result in the isolation of that peripheral node from all others, but the rest of the systems will be unaffected

FULLY CONNECTED TOPOLOGY
A fully connected network is a mesh network in which each of the nodes is connected to each other. A fully connected network doesn't need to use switching nor broadcasting. However, its major disadvantage is that the number of connections grows quadratically with the number of nodes, per formula

and so it is extremely impractical for large networks. A two-node network, one of the most common network types, is technically a fully connected network.

LINE TOPOLOGY

A line can be described as an infinitely thin, infinitely long, perfectly straight curve (the term curve in mathematics includes "straight curves") containing an infinite number of points. In Euclidean geometry, exactly one line can be found that passes through any two points. The line provides the shortest connection between the points.
In two dimensions, two different lines can either be parallel, meaning they never meet, or may intersect at one and only one point. In three or more dimensions, lines may also be skew, meaning they don't meet, but also don't define a plane. Two distinct planes intersect in at most one line. Three or more points that lie on the same line are called collinear.

TREE TOPOLOGY

Also known as a star bus topology, tree topology is one of the most common types of network setups that is similar to a bus topology and a star topology. A tree topology connects multiple star networks to other star networks. Below is a visual example of a simple computer setup on a network using the star topology.

BUS TOPOLOGY

A type of network setup where each of the computers and network devices are connected to a single cable or backbone. Below is a visual example of a simple computer setup on a network using the bus topology.

PRELIM EXAM

Autobiography

hi! i'm jayson rey viovicente. i was born on december 14,1990. i graduated high school from davao city national high school just last march. i am presently enrolled at AMA with the course BSIT.

i am living with my mom and dad with two younger sisters (i'm the eldest). i love playing online games with friends, basketball, table tennis and badminton, climbing or trecking...and i'm proud to say i've already been to Epol and Puting Bato at Samal Island. during saturdays, it's my gimik time with my friends. i am usually found at Autoshop or at Halo. i have no "love life" for now. kapoy pa!

PRELIM EXAM

SAMPLE PROGRAM OF C++

#include
using namespace std;

int main()
{
cout << "Welcome to the wonderful world of C++!!!\n";
return 0;
}

OUTPUT:

Welcome to the wonderful world of C++!!!

Parts of Computer system

Computer System

Monitor
Another term for display screen. The term monitor, however, usually refers to the entire box, whereas display screen can mean just the screen. In addition, the term monitor often implies graphics capabilities. There are many ways to classify monitors. The most basic is in terms of color capabilities, which separates monitors into three classes:


RAM
Pronounced ramm, acronym for random access memory, a type of computer memory that can be accessed randomly; that is, any byte of memory can be accessed without touching the preceding bytes. RAM is the most common type of memory found in computers and other devices, such as printers.

CPU
Abbreviation of central processing unit, and pronounced as separate letters. The CPU is the brains of the computer. Sometimes referred to simply as the processor or central processor, the CPU is where most calculations take place. In terms of computing power, the CPU is the most important element of a computer system.

MOUSE
A device that controls the movement of the cursor or pointer on a display screen. A mouse is a small object you can roll along a hard, flat surface. Its name is derived from its shape, which looks a bit like a mouse, its connecting wire that one can imagine to be the mouse's tail, and the fact that one must make it scurry along a surface. As you move the mouse, the pointer on the display screen moves in the same direction. Mice contain at least one button and sometimes as many as three, which have different functions depending on what program is running. Some newer mice also include a scroll wheel for scrolling through long documents.

HARD DISK
A magnetic disk on which you can store computer data. The term hard is used to distinguish it from a soft, or floppy, disk. Hard disks hold more data and are faster than floppy disks. A hard disk, for example, can store anywhere from 10 to more than 100 gigabytes, whereas most floppies have a maximum storage capacity of 1.4 megabytes.

KEYBOARD
The set of typewriter-like keys that enables you to enter data into a computer. Computer keyboards are similar to electric-typewriter keyboards but contain additional keys. The keys on computer keyboards are often classified as follows:

MOTHERBOARD
The main circuit board of a microcomputer. The motherboard contains the connectors for attaching additional boards. Typically, the motherboard contains the CPU, BIOS, memory, mass storage interfaces, serial and parallel ports, expansion slots, and all the controllers required to control standard peripheral devices, such as the display screen, keyboard, and disk drive. Collectively, all these chips that reside on the motherboard are known as the motherboard's chipset.