•It is 87C average with 88C current. 93C was just the maximum spike and likely occurred when the cpu tried to briefly boost to its TV boost of 4.9GHz before downclocking to 4.8GHz.
•It was cooled by a 240mm water cooler with a thin rad. This 240mm watercooler is no better than a decent air-cooler and inferior to many good air-coolers like the Noctua NH U14S (and certainly inferior to the best air-coolers like the Noctua NH D15 that trade blows with the best 280mm watercoolers).
•It was tested with a load equivalent to Prime 95 small FFTs with AVX. That is like testing a building for an earthquake of 12degrees in the Richter scale, an earthquake that will never ever happen (well not until the sun goes nova or comets fell on Earth or some other such cataclysmic event occurs)
•It is with power-limits removed. Had power limits been enabled the CPU would be forced to downclock to a lower frequency where power consumption would stay at 125W. For this workload that frequency would be 4.0GHz-4.3GHz.
•As shown, with power limits removed, the CPU has no problem to turbo indefinitely at its all-core turbo 2.0 speed of 4.8GHz. And had temps stayed below 70C it would be turboing indefinitely to 4.9GHz.
•The 5.3GHz is the turbo with only 1 or 2 cores active. Turbo depends on the workload’s needs. The nature of most workloads only requires brief frequency boosts. If the workload is 1-2core and bursty the turbo will be bursty. If the workload is 1-2core and sustained then the 5.3GHz turbo will be sustained too (i.e. for as long as the workload is active). If for example you run Cinebench R15/R20 single- threaded (or dual-threaded) this CPU will have no problem maintaining that 5.3GHz speed for the entire duration of the test, even without removing power limits and even just having a simple 212EVO to cool it. In the worst-case scenario, temps will be above 70C in which case you will get a sustained 5.2GHz (which is the turbo boost 3.0 frequency which is not depended on temperature – other than TJmax that is).