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150 MHz – 200 MHz Socket 8: 350 nm, 500 nm 29.2 W – 47 W 1 60 MHz, 66 MHz 16 KiB 256 KiB, 512 KiB, 1024 KiB N/A Pentium II: 52x Klamath Deschutes Tonga Dixon: 1997–1999 233 MHz – 450 MHz Slot 1 MMC-1 MMC-2 Mini-Cartridge: 250 nm, 350 nm 16.8 W – 38.2 W 1 66 MHz, 100 MHz 32KiB 256 KiB – 512 KiB N/A Pentium III: 52x 53x Katmai Coppermine
The following is a partial list of Intel CPU microarchitectures. The list is incomplete, additional details can be found in Intel's tick–tock model, process–architecture–optimization model and Template:Intel processor roadmap.
0.35 μm process technology, (two die, a 0.35 μm CPU with 0.6 μm L2 cache) 5.5 million transistors; 512 KB or 256 KB integrated L2 cache; 60 or 66 MHz system bus clock rate; Variants 150 MHz (60 MHz bus clock rate, 256 KB 0.6 μm cache) introduced November 1, 1995
Windows NT processor scheduling refers to the process by which Windows NT determines which job (task) should be run on the computer processor at which time. Without scheduling, the processor would give attention to jobs based on when they arrived in the queue, which is usually not optimal. As part of the scheduling, the processor gives a ...
The scheduler is an operating system module that selects the next jobs to be admitted into the system and the next process to run. Operating systems may feature up to three distinct scheduler types: a long-term scheduler (also known as an admission scheduler or high-level scheduler), a mid-term or medium-term scheduler, and a short-term scheduler.
Optimal job scheduling is a class of optimization problems related to scheduling.The inputs to such problems are a list of jobs (also called processes or tasks) and a list of machines (also called processors or workers).
Zen 3 is the name for a CPU microarchitecture by AMD, released on November 5, 2020. [2] [3] It is the successor to Zen 2 and uses TSMC's 7 nm process for the chiplets and GlobalFoundries's 14 nm process for the I/O die on the server chips and 12 nm for desktop chips. [4]
The nodes are indexed by processor "execution time" in nanoseconds. [3] A "maximum execution time" is also calculated for each process to represent the time the process would have expected to run on an "ideal processor". This is the time the process has been waiting to run, divided by the total number of processes.