Eight of the troubleshooting flowcharts for PC hardware from my book "Computer Repair with Diagnostic Flowcharts Third Edition" are excerpted on this site and linked below. The non-active links are for charts that are included in the book but not available online. The Third Edition is 170 pages and includes seventeen flowcharts for troubleshooting PCs plus explanatory text for every decision symbol on every flowchart. The troubleshooting process is the same for an expensive Sony or IBM, or a cheaper eMachines or Acer. Dell and HP (who purchased Compaq) manufacture desktop PC's in a wide range of price points, but you have to go through the same troubleshooting steps for the cheap ones as the expensive ones if you want to correctly identify and repair the failure.
computer
Wednesday, 16 September 2015
Thin Clients
THIN CLIENTS
- Although the term thin client usually refers to software, it is increasingly used for computers, such as network computers and Net PCs, that are designed to serve as the clients for client/server architectures. A thin client is a network computer without a hard disk drive, whereas a fat client includes a disk drive.
Video Graphics Performance
VIDEO GRAPHICS
Virtually all current video cards are built with either AMD-sourced or Nvidia-sourced graphics chips.[2] Most video cards offer various functions such as accelerated rendering of 3Dscenes and 2D graphics, MPEG-2/MPEG-4 decoding, TV output, or the ability to connect multiple monitors (multi-monitor). Video cards also have sound card capabilities to output sound along with the video for connected TVs or monitors with integrated speakers
High End
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High to Mid Range
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Low to Mid Range
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Low End
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Best Value
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Common
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Direct Compute
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Comparison between INTEL & AMD Processor
INTEL Processor
Significantly newer manufacturing process | 22 nm | vs | 28 nm | A newer manufacturing process allows for a more powerful, yet cooler running processor |
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Much higher Maximum operating temperature | 100 °C | vs | 71.3 °C | More than 40% higher Maximum operating temperature |
Higher turbo clock speed | 2.6 GHz | vs | 2.4 GHz | Around 10% higher turbo clock speed |
Better PassMark (Single core) score | 1,389 | vs | 881 | Around 60% better PassMark (Single core) score |
Better PassMark score | 3,274 | vs | 2,517 | More than 30% better PassMark score |
Slightly better geekbench (64-bit) score | 4,720 | vs | 3,702 | More than 25% better geekbench (64-bit) score |
Significantly more l2 cache | 2 MB | vs | 0.5 MB | 4x more l2 cache; more data can be stored in the l2 cache for quick access later |
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Much higher GPU clock speed | 800 MHz | vs | 200 MHz | 4x higher GPU clock speed |
Higher clock speed | 2 GHz | vs | 1.6 GHz | Around 25% higher clock speed |
More cores | 4 | vs | 2 | Twice as many cores; run more applications at once |
Supports trusted computing | Yes | vs | No | Somewhat common; Allows for safer, more reliable computing |
Significantly more l2 cache per core | 0.5 MB/core | vs | 0.25 MB/core | 2x more l2 cache per core |
Newer | Jul, 2014 | vs | Jul, 2013 | Release date over 1 years later |
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