2ms or 8ms what is the difference?
371273
The human eye can't distinguish individual frames at 30 fps. Once you're talking about hundreds of fps, it's all effectively the same.
161214
. The \n60Hz standard adopted in the US comes from the use of the periodic voltage \nas a timing mechanism for electric clocks (60 minutes in an hour, 60 \nseconds in a minute, so 60 cycles in a second).
507292
12kms >-----> 12 kilo byre per sec\n480  >------> 480 mega byte per sec\n\nso the second on is better for high speed transmission rate
817632
c: 8cm.\n\njust look at the units!\n\n200N/2500N/m = .08 m\n\n.08m is 8cm.
678008
The frequency multiplier is what "adapts" the external frequency of the computer to the internal frequency of the cpu.  Modern cpu's run a extremely high rates (e.g. 2Ghz+).  However, the other components of the computer run significantly slower (e.g. memory at 166Mhz).  The external bus frequency of the computer is usually tied to it's memory interface, so to derive the actual internal speed it's external frequency is multiplied by some value.  For example, a computer running a 100Mhz memory bus and has a 8x multiplier would have a 800Mhz cpu (or more accurately, a cpu running at 800Mhz).  A more modern computer might be running it's memory at 200Mhz (the actual memory probably runs at 400Mhz if it's clock doubled, but the external freq is still 200Mhz) and might have a multiplier of 11.5x (this is what my Sempron system runs at), given the cpu a frequency of 2.3Ghz.
143763
a signal emmited in the band of the 2 GHz.
340444
Typically a 3 minute song will run you somewhere between 3,000 and 4,000 KB.    It shouldn't hurt your computer, although I'm thinking you probably have a small sample of a song, and not the full song. :p
626724
I have a 2G Nano right now. I used to have a 4G Mini. I definitely like the Nano better. The Mini was "alright," but it was kind of clunky and tempermental. The Nano is super small and easy to use.
501877
The 1800 has double the energy emission but both are pretty much negligable to the human anatomy\n\nAnd no, being near microwave-oven frequencies doesn't matter. Many many wireless consumer items use the 2.4ghz frequency and no ones brain is being fried.... unless you're infront of the tv 12 hours a day... but that's a differnet story
234122
MB is megabytes, a unit of storage space.  MH is nothing unless you mean MHz which is MegaHertz which is a unit of frequency.  In other words, apples and oranges
1012985
The advantage of DDR2 over DDR SDRAM is the ability for much higher clock speeds, due to design improvements. With a clock frequency of 100 MHz, "SDR-SDRAM" transfers data on every rising edge of the clock pulse, thus achieving an effective 100 MHz data transfer rate. Unlike SDR, both DDR and DDR2 are double pumped; they transfer data on the rising and falling edges of the clock, at points of 0.0 V and 2.5 V (1.8 V for DDR2), achieving an effective rate of 200 MHz (and a theoretical bandwidth of 1.6 GB/s) with the same clock frequency. DDR2's clock frequency is further boosted by electrical interface improvements, on-die termination, prefetch buffers and off-chip drivers. However, latency is greatly increased as a trade-off. The DDR2 prefetch buffer is 4 bits wide, whereas it's 2 bits wide for DDR and 8 bits wide for DDR3.\n\nPower savings are achieved primarily due to an improved manufacturing process, resulting in a drop in operating voltage (1.8 V compared to DDR's 2.5 V). The lower memory clock frequency could also help — DDR2 can use a real clock frequency 1/2 that of SDRAM whilst maintaining the same bandwidth.
456275
9.81 m/s² or 32.2 ft/s²
619838
MHz is power, honey.\nGB of memory are a different thing.\nyour hertz=Hz are like your computer's horsepower, you know, like a car's horsepower.\n\n533MHz means you've got more juice running through the caboose. (you know, juice=electricity)
744365
2 decimeters is two tenths of a meter, 18 cm is eighteen hundredths of a meter. So two decimeters is greater.
804155
a) T = 0.5 sec\n\nb) freq = 1/T = 2 Hz\n\nc) w = 2pi*freq = 4 pi\n\nd) w^2 = k/m\nk = m*w^2 = 0.5*16 pi^2 = 8*pi^2\n\ne)  V_max = A*2*pi*f = 0.35*2*pi*2 = 1.4 pi m/sec\n\nf) A_max = A*(2*pi*f)^2 = 0.35*(2*pi*2)^2 = 5.6*pi^2 m/sec^2
63937
i think its 2Gbps.not sure
510406
315mHz \n\nLove,\nKenneth Horowitz