
This lecture gives you an overview of what to expect in the course.
Explain how a closed loop liquid cooling system keeps high-demand hardware cool, with the pump, tubes, radiator, and fan, using the Corsair H60 as an example.
Identify the motherboard sockets and prep for a closed loop liquid cooling installation. Clean and inspect the radiator, then connect the three-pin pump connector, USB port, and power cables.
Plan the liquid cooling unit placement by choosing tube orientation and radiator facing, avoiding tangles and restricted flow; then install the radiator and set the pump safely.
Line up the radiator screw slots with the case and secure it; closed-loop radiators use the same pattern as a 120 mm fan, mount back or top, then install pump.
Apply Thermaltake T.G. 7 thermal paste evenly on the cpu for better conductivity, then secure the pump to the motherboard and install two 120 mm fans.
Position the first fan, insert long screws through the fan into the radiator, and tighten, ensuring airflow into the radiator and out the vent; then wire up the pump.
Connect the fans to the pump to power and control their speeds with a four-pin connector, then wire sata power, three-pin motherboard, and usb headers for a closed-loop cpu cooler.
Explore how the redundant array of inexpensive disks combines multiple storage devices into a faster, more reliable drive. Understand the basics of raid 0 and what you gain.
Explore RAID 0, also known as desk striping, by combining four 500 GB drives into a 2 TB volume to boost read and write speeds; note it has no redundancy.
Explore raid 1, using disk mirroring for redundancy, where two drives keep identical data so a failure leaves data intact, at the cost of half usable storage.
Explain raid 5, a parity-based striped set that blends raid 0 speed with raid 1 redundancy using at least three disks, distributing data and parity to protect against drive failure.
Learn how raid 6 uses parity with eight or more drives to tolerate two drive failures, offering redundancy at the cost of an extra drive, unlike raid 5.
RAID 10 uses a mirror of two RAID 5 setups, illustrated with six 500 GB drives in two three-drive groups, highlighting reliability, RAID 6 resilience, and hardware versus software RAID.
Set up hardware raid with PCI Express card, connecting storage to a controller that handles reads for faster performance, near boot time, and added redundancy to protect the operating system.
Explore software-based raid setup through the operating system, compare ease and cost savings of software raid with Windows Server 2012 against hardware controllers, and discuss performance trade-offs and risks.
Explains how mixing drive sizes in RAID affects usable storage, advises using same-sized disks, and outlines safe recovery practices during system crashes to protect data.
Explore the theory of multi-GPU setups with SLI and Crossfire, why adding second to fourth cards yields about 170% gains, GPUs must match, and high-resolution monitors boost onscreen rendering.
Learn how to set up multi-gpu configurations with an sli or crossfire motherboard, bridging connectors, a sufficient power supply, and a multi-gpu enabled operating system, while monitoring heat and performance.
Explore how multi-gpu co-rendering works, with one gpu rendering a frame while the other computes the next. Increase fps from 20 to 30–35, about a 170 percent gain.
Explore real-world multi-GPU usage, highlighting improved gaming and rendering performance on high-resolution displays, balanced against higher costs, heat, power, space, and partial game support.
Install a second graphics card into a compatible PCIe slot, secure and power it, then enable communication. Two cards may yield 170 percent, and three cards could reach 240–300 percent.
Test your enhanced machine by gaming and evaluating performance, noting that two GPUs share work but only one card’s memory stays active, with multi-GPU gains and Crossfire potential.
Conclude by planning economical computer upgrades that focus on space, heat generation, and energy use, avoid overclocking beyond necessity, and buy from reputable retailers to keep systems cooler and faster.
Colder Temps, Faster Storage Speeds, and Performance Graphics Rendering; All crucially important points in an enthusiast's computer user experience.
Looking to upgrade your computer hardware to achieve any of the points mentioned above?
If yes, you've come to the right course.
For those of you out there who already have a little know-how about computer hardware (or have taken my course; How to Build a Computer from Scratch: Complete Blueprint), you know there's more out there that you can do to enhance your hardware's performance.
Extreme heat might be keeping you from overclocking to that next level.
--> I'll be going over the most effective method of CPU Cooling; Closed-loop Liquid Cooling
Hard drive fails might have caused you lots of headache in the past. (Or you're trying to take pre-cautionary steps against one!)
--> Learn about the various tricky aspects about RAID setups. I'll show you how you can increase data read/write speeds AND / OR prepare your computer so that you won't loose data if a drive crashes!
Can't play that new game on MAX settings?
--> Learn about the workings of Multi-GPU technology (Multiple Graphics Processing Units) to massively enhance your computer's rendering capabilities.
Take your computer build to the next level.