Second, Turbo Boost allowed overclocking to move into the server arena – where the consequences of hardware failure are even higher. Thus the risk of overheating the processor was mitigated. Once the processor cooled down, overclocking could resume. This allowed the processor to stop overclocking if it became too warm. First, it provided intelligent, dynamic overclocking. Then, along came Turbo Boost, which did several significant things.
So, if you were going to overclock your home system, you had to have confidence that you were doing it correctly otherwise, your very expensive computer could become a very expensive brick. An overclocked CPU could execute instructions more quickly, but if heat wasn’t correctly managed the processor could overheat and cook itself. Several years ago, overclocking home computers was a significant point of pride among technology enthusiasts – i.e. Intel Turbo Boost Technology & Overclocking Before we start our deep dive, let me share a quick overview of Turbo Boost. In other words, there are a lot of underlying bits and pieces that make this whole thing work. To better understand what Turbo Boost is, we’re going to need to spend some time talking about CPU clocks, overclocking, heat management, etc. It is on by default, and unless they are actively monitoring CPU frequency on their systems, they probably have no idea whether Turbo Boost is helping their system performance or not. Intel Turbo Boost Technology 2.0 (hereafter “Turbo Boost”) is usually one of those features that administrators don’t think about. One of Dasher’s most popular blog posts of all time discusses the question, “ Will Hyper-Threading Improve Processing Performance? ” Bill Jones spent some time looking at the related topic of Intel Turbo Boost technology… get ready to really geek out to start 2017!
0 kommentar(er)
