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  2. Bottleneck (engineering) - Wikipedia

    en.wikipedia.org/wiki/Bottleneck_(engineering)

    In engineering, a bottleneck is a phenomenon by which the performance or capacity of an entire system is severely limited by a single component. The component is sometimes called a bottleneck point. The term is metaphorically derived from the neck of a bottle, where the flow speed of the liquid is limited by its neck.

  3. Bottleneck (software) - Wikipedia

    en.wikipedia.org/wiki/Bottleneck_(software)

    The bottleneck has the lowest throughput of all parts of the transaction path. [1] System designers try to avoid bottlenecks through direct effort towards locating and tuning existing bottlenecks in a software application. Some examples of engineering bottlenecks that appear include the following: a processor, a communication link, and disk IO. [2]

  4. Northbridge (computing) - Wikipedia

    en.wikipedia.org/wiki/Northbridge_(computing)

    The overall trend in processor design has been to integrate more functions onto fewer components, which decreases overall motherboard cost and improves performance. The memory controller , which handles communication between the CPU and RAM, was moved onto the processor die by AMD beginning with their AMD K8 processors and by Intel with their ...

  5. Platform Controller Hub - Wikipedia

    en.wikipedia.org/wiki/Platform_Controller_Hub

    Under the Hub Architecture, a motherboard would have a two piece chipset consisting of a northbridge chip and a southbridge chip. Over time, the speed of CPUs kept increasing but the bandwidth of the front-side bus (FSB) (connection between the CPU and the motherboard) did not, resulting in a performance bottleneck. [2]

  6. Amdahl's law - Wikipedia

    en.wikipedia.org/wiki/Amdahl's_law

    Each new processor added to the system will add less usable power than the previous one. Each time one doubles the number of processors the speedup ratio will diminish, as the total throughput heads toward the limit of 1/(1 − p). This analysis neglects other potential bottlenecks such as memory bandwidth and I/O bandwidth. If these resources ...

  7. CPU multiplier - Wikipedia

    en.wikipedia.org/wiki/CPU_multiplier

    For CPU-bound applications, clock doubling will theoretically improve the overall performance of the machine substantially, provided the fetching of data from memory does not prove a bottleneck. In more modern processors where the multiplier greatly exceeds two, the bandwidth and latency of specific memory ICs (or the bus or memory controller ...

  8. Front-side bus - Wikipedia

    en.wikipedia.org/wiki/Front-side_bus

    The frequency at which a processor (CPU) operates is determined by applying a clock multiplier to the front-side bus (FSB) speed in some cases. For example, a processor running at 3200 MHz might be using a 400 MHz FSB. This means there is an internal clock multiplier setting (also called bus/core ratio) of 8. That is, the CPU is set to run at 8 ...

  9. Non-uniform memory access - Wikipedia

    en.wikipedia.org/wiki/Non-uniform_memory_access

    The motherboard of an HP Z820 workstation with two CPU sockets, each with their own set of eight DIMM slots surrounding the socket. Non-uniform memory access ( NUMA ) is a computer memory design used in multiprocessing , where the memory access time depends on the memory location relative to the processor.