This summary of the video was created by an AI. It might contain some inaccuracies.
00:00:00 – 00:10:26
The video focuses on the thin mini ITX motherboard format for compact desktop PCs, highlighting its benefits and drawbacks. It compares different fanless thin mini ITX heatsink cases to prevent thermal throttling in CPUs. Testing involved adjusting CPU power limits and monitoring temperatures of different computer cases to assess their cooling efficiency. Theoretical maximum CPU power usage and thermal performance of each case were analyzed, with conclusions drawn on design influences. The installation difficulty of various PC coolers was also discussed. The video suggests alternative options such as larger mini ITX heatsink cases and custom-built fanless PCs for those interested.
00:00:00
In this segment of the video, the focus is on the thin mini ITX motherboard format. This format was introduced by Intel in 2011 and was primarily designed for compact desktop PCs. The format has seen a decline in popularity, but some motherboards have been announced for Intel’s 10th generation CPUs and one for AMD’s Ryzen platform. Thin mini ITX motherboards have benefits like on-board DC power conversion and the use of smaller memory modules, but they also have drawbacks such as limited power delivery for higher wattage CPUs. The video compares different fanless thin mini ITX heatsink cases to determine their ability to prevent thermal throttling in CPUs under various power levels.
00:03:00
In this segment of the video, the speaker discusses the testing process for different computer cases using an Intel i3 9100 CPU. They adjusted CPU power limits to minimize heat loss, monitored CPU core temperatures with Hardware Info 64, and recorded over 17,000 temperature readings. The test system included components such as an ASUS Prime H310T motherboard and a 500 gigabyte Crucial MX500 SSD. Results show temperature changes for different cases (Streetcom FC2, Acasa Euler S, Acosa Galileo T, Tor Metal Up2) under various power limits. Each case performed differently during the tests, with varying degrees of throttling and temperature increases. The results indicate that cases with better cooling solutions lead to lower temperatures. Additionally, it is mentioned that CPUs with soldered heat spreaders may provide better thermal results.
00:06:00
In this segment of the video, the speaker calculates the theoretical maximum CPU power usage for several cases at different temperatures. The Stracom FC2 uses 42 watts, Akasa Euler S uses 48 watts, Akasa Galileo T uses 49 watts, and Tormentel Up2 uses 52 watts. Differences in VR throttling behavior and motherboard temperatures are observed between the Akasa cases and the Tormentel case, with conclusions drawn regarding design elements influencing these results. The Tormentel Up2 case is highlighted as performing the best thermally, while the Stracom FC2 performs the worst. Details on the design of each case and a comparison of their theoretical maximum powers and thermal resistances are provided. The speaker notes that despite the Stracom FC2 being thermally inferior, its compact size may make it suitable for low-power applications. The Akasa and Tormentel cases are similar in overall volume, with the Tormentel case being lighter than the Akasa cases.
00:09:00
In this part of the video, the speaker discusses the installation difficulty of various PC coolers. The Streetcom FC2 and Acasa Oiler are the easiest to install, while the Galileo T and Tor Metal UP2 are somewhat more difficult due to tricky disassembly and reassembly processes. The Streetcom FC2 and Tor Metal UP2 have been discontinued but are still worth evaluating. The Acasa Oiler S and Galileo T are available for purchase. The video also mentions that the CPU, motherboard, and room temperature significantly affect CPU temperatures. Alternative options to thin mini ITX cases are larger mini ITX heatsink cases from various brands. Additionally, custom-built fanless PCs are available at fullysilentpcs.com.