what do you mean by bus speed & clock speed of computers?
107750
front side bus speed is the speed that the bus wil tranfer data from cpu to memory / bus speed is the speed to transfer to devices or device registers. clock speed is the speed of the cpu crystal. ie: 3.0 ghz processor (clock) with 266mhz front side bus.\n\nor the rate a bus travels vs the rate your watch is clicking
287338
for processor: between 1.6 GHz and 2.8 GHz is good for intel prcessors(Pentium 4,celeron, Pentium M), 400-533 MHz for bus speed.
476118
SDRAM (single data rate, older)\nDDR (double data rate)\nDDR2 (double data rate with enhanced clock frequencies)
41573
Generally, the CPU speed is set on the motherboard using jumpers.\n\nOne jumper sets the bus speed on the motherboard\nA second jumper sets the multiplier for the CPU\n\neg. J1=400 MHz J2=4\n-> CPU is 4*400 MHz = 1600 MHz = 1.6 GHz\n\nThe manual that came with the computer/motherboard should tell how to set the jumpers.
41304
Computers are very good at counting.\n\nThe clock inside the computer is just a counter.  The speed at which it counts is measured in Hertz (that is, cycles per second), or more commonly on computers GigaHertz (Billions of cycles per second).  For each cycle, a counter is incremented.  When the appropriate number of cycles have passed (based on the speed of the computer), then the computer knows that a second has passed.\n\nWhile machines CAN measure time very precisely, your typical PC will only measure it accurately to maybe the 100th of a second.  This is sufficient for most uses.
507056
what is the FSB (front side bus) of ur processor if it is 800 or less 512 will be great and u don't have to upgrade trust me I assembled more than 100 new generation PC and the difference is not obvious and i don't think that one or tow seconds will affect !
788392
Front Side Bus is very important and has a large impact in performance, a far greater impact than CPU speed does. It doesn't matter if your cpu is running at 10 billion GHZ, if you are using a slow FSB, your entire system is going to suffer from it. \n\nBus speed makes a huge difference for CPUs of the same type and speed. It is better to take a lower speed processor with a much higher FSB than a faster CPU with a slower FSB. You need to study up a bit more on how the CPU communicates ram and the motherboard.
179960
Well the Pentium has a larger cache and faster internal clock speed, but the Athlon has the faster bus speed.  Both have either HyperThreading or HyperTransport technology.  The bus speed is a major factor in performance, but also depends on the motherboard.  Obviously the boards you will use, either will have to be compatible, therefore should utilize the capable speed of either processor.  I'd say they're pretty even.  The larger cache of the Pentium will allow very quick access to more data, but the bus speed of the Athlon will allow faster data transfer.\n\nI try not to be partial, but I would have to agree that the Athlon is probably the better processor.
18943
This depends on the Type of RAM.\n\n\nDesktops\n \nEDO and FPM (very old) run at 25/33 Mhz\nSDRAM runs with the system bus at 66/100/133 Mhz\nI don't know about Rambus, but I think it's some 266,333, 400, 500, 667, and 800 Mhz.\nDDR has 266, 333, 400Mhz\nDDR2 has 400, 533, 667, and 800Mhz.\n\n\nNotebooks/laptops\nSODIMM has 100,133,266,and 333Mhz
955574
No, no and no.  This is and energy saving feature, it's like a car, when you need the extra horsepower going uphill the powerband kicks in and you go faster.  The frequency at which a processor (CPU) operates is determined by applying a clock multiplier to the front side bus (FSB) speed. For example, a processor running at 550 MHz might be using a 100 MHz FSB. This means there is an internal clock multiplier setting (also called bus/core ratio) of 5.5; the CPU is set to run at 5.5 times frequency of the front side bus: 100 MHz x 5.5 = 550 MHz. By varying either the FSB or the multiplier, different CPU speeds can be achieved.
318102
Hi, \n\nfirst of all, don't confuse DVD-ROM speed with CD-ROM speed, the notation is different.\n\nCDrom  speeds 1X, 2X, 4X etc is the number of times the drive is than the single-speed (1x) CD-ROM player.\n\n1X CDRom drive gives a data transfer rate of 150 kilobytes per second. (1x speed rating for DVDs 1.32 megabytes/s.)
439051
"A collection of wires through which data is transmitted from one part of a computer to another. You can think of a bus as a highway on which data travels within a computer. When used in reference to personal computers, the term bus usually refers to internal bus. This is a bus that connects all the internal computer components to the CPU and main memory. There's also an expansion bus that enables expansion boards to access the CPU and memory. \nAll buses consist of two parts -- an address bus and a data bus. The data bus transfers actual data whereas the address bus transfers information about where the data should go. \n\nThe size of a bus, known as its width, is important because it determines how much data can be transmitted at one time. For example, a 16-bit bus can transmit 16 bits of data, whereas a 32-bit bus can transmit 32 bits of data. \n\nEvery bus has a clock speed measured in MHz. A fast bus allows data to be transferred faster, which makes applications run faster. On PCs, the old ISA bus is being replaced by faster buses such as PCI. \n\nNearly all PCs made today include a local bus for data that requires especially fast transfer speeds, such as video data. The local bus is a high-speed pathway that connects directly to the processor."\n\n\nControl Bus - carries instructions such as ADD, Compare, Subtract, Move etc.\n\nData Bus - carries data to and from memory and CPU\n\nAddress Bus - carries address of data locations in memory
1167596
Yes some P-IV also use SDRAm but most of the use DDR-RAM of 333 , 500 ,533,667 bus speed. depending on your mainborad model.\n:);
456706
The formal abbreviation for "bit per second" is "bit/s" (not "bits/s"). In less formal contexts the abbreviations "b/s" or "bps" are often used, though this risks confusion with "bytes per second" ("B/s", "Bps"). Even less formally, it is common to drop the "per second", and simply refer to "a 128 kilobit audio stream" or "a 100 megabit network".\n\n"Bit rate" is sometimes used interchangeably with "baud rate", which is correct only when each modulation transition of a data transmission system carries exactly one bit of data (something not true for modern modem modulation systems, for example). Similarly, hertz, the SI unit of frequency, is not precise without some context, such as the number of bits carried per cycle.\n\nFor large bit rates, SI prefixes are used:\n\n1,000 bit/s = 1 kbit/s (one kilobit or one thousand bits per second) \n1,000,000 bit/s = 1 Mbit/s (one megabit or one million bits per second) \n1,000,000,000 bit/s = 1 Gbit/s (one gigabit or one billion bits per second) \n\nWhen describing bit rates, binary prefixes are almost never used and SI prefixes are almost always used with the standard, decimal meanings, not the computer-oriented binary meanings. There are exceptions in some specialty areas such as bus transfer rates. Binary usage is more often seen when the unit is the byte/s, and is not typical for telecommunication links. Sometimes it is necessary to seek clarification of the units used in a particular context.
1015179
ah there correct but 10% us okay to overclock maximum is about 20%... but i warn you if you overclock your cpu or your comptuer warranty will be cut off and it wont exist anymore for you.... here i can give you all the info. you need hold on....\n\n\n\n\nPC Hardware: Free Speed: Overclocking Your PC\nPerformance Boosting Basics\nWant a free speed boost for your computer? Try a little overclocking--an enthusiast trick that PC tweakers have been using for years to get free speed out of their systems. Many of today's CPUs can run faster than they're rated to do, and getting that added performance is simply a matter of carefully changing some settings. Overclocking won't turn an ancient PC into a powerhouse, but it can help you squeeze every drop of performance out of your machine.\nTwo variables set the speed at which your CPU runs: the system bus speed, and the CPU's clock multiplier. To determine the CPU's actual operating speed, those two values are multiplied together. For instance, a bus speed of 100 MHz and a multiplier value of 5.5 translate to a CPU running speed of 550 MHz. This simple formula works with most Intel Celeron, Pentium II, Pentium III, and Pentium 4 chips, as well as with AMD chips.\nSome motherboard and CPU combinations let you change one or both of those variables, setting a new speed for the CPU. Boost either setting and you're officially overclocking. In my experience, most CPUs and motherboards will run fine when overclocked 10 to 20 percent faster than the rated CPU speed. The bus speed setting may also affect the speed of the PCI or AGP bus, depending on which chip set the motherboard uses and how that chip set connects to all of the subsystems on the board.\nThe trick to overclocking is in knowing when to stop. Crank up the speed completely beyond the operating limits of the CPU, system bus, or RAM, and the PC will crash or freeze a lot. If you've set the clock too high on a system that holds the clock settings in BIOS, it may fail to boot, and you'll have to use the PC Setup program to reset the clock settings stored in CMOS RAM. (In some cases, you may have to reset the CMOS RAM more directly: Either remove the CMOS memory retention battery, typically a button-style cell, or move a jumper on the system board; that jumper is often marked 'clear CMOS'.) If your PC uses switches or jumpers to set clock and multiplier values, you'll simply need to reset them to a slower speed.\n\nCPU Overclocking the Easy Way\nThe PC Setup program screen in Figure 1 is from an Abit KA7 motherboard that offers lots of overclocking controls when the CPU Operating Speed is set to 'User Define'. The CPU FSB/PCI Clock setting also affects the speed of the PCI bus. I have found that most PCI cards will overclock about as well as the average CPU does.\nOverclocking the AMD Athlon XP+ 2600 processor on my ECS KT-600A motherboard involves just one setting. The multiplier in the Athlon XP+ 2600 processor is fixed at 11.5, allowing a CPU speed range between 1910 MHz (166 x 11.5) and 2288 MHz (199 x11.5). The Athlon XP+ 2600 runs at 1900 MHz typically, but the chip I tested worked well when overclocked to 2200 MHz.\nCPU Overclocking by the Bits\nBefore designers made CPU speed settings changeable via software, switches or jumpers on the motherboard controlled the speed. You'll find this arrangement typical of early (3 to 4 years old or older) AMD, Pentium I and II, and Celeron boards. Over clocking with switches and jumpers works in the same way as using settings in PC Setup: You simply increment the multiplier and bus speed settings to speed up the processor until you find a reliable running speed.\nThe CPU clock speed setting also affects the AGP bus speed on this board. Other motherboards use DIP switches (Figure 4) for both the CPU clock speed and the multiplier settings.\nVideo Overclocking Made Easy\nMost of the overclocking buzz is not about turning a PC into a superco
32272
well Bus B travels less distance in the same time, meaning the velocity is greater for bus B and since velocity is the slope on a distance time graph, the slope of the graph would be steeper for bus B than for bus A.\n\nif you need a numerical answer, the slope for bus A would be:\nv= d/t= 300/12= 25 m/s\nand the slope for bus B would be:\nv= d/t= 200/12= 16.67 m/s
225117
I don't know u r so complicated this thing.\nRAM Defines By Its Capacity.Not Speed At All\nIt is a Temporary Memory.\nThe System To Be Speed We Need Optimum RAM Capacity.\n\nIn the Case Of CPU Is A Engine That Should Be Speed,\nThe Speedy CPU Will work fine with high capacity RAM\nHave u got it