20 nm = 500 × 10^-9 m
2 cm = 2 × 10^-2 cm
→ 2 cm ÷ 500 nm = (2×10^-2 m) ÷ (500 × 10^-9 m)
= (2÷500) × 10^(-2 - -9)
= 0.004 × 10^7 = 4 × 10^4
= 40,000
I'm assuming you mean "What is half of a centimeter?"A centimeter can be broken down into ten millimeters, so half of a centimeter would be five millimeters.
Get a centimeter ruler and then convert it to what measurement you want.
There are one million nanometers in one millimeter.A nanometer is one billionth of a meter.You would have to line up roughly 25,400,000 nanometers end-to-endin order to cover 1 inch.
a centimeter
metrics count by ten. 10 millimeters make up a centimeter which would make 8mm .8 of a centimeter
500 nanometers long waves fit along a 2 centimeters line
Convert everything to meters, then divide: 0.01 / 500 x 10-9 = 20,000.
Wavelength of infra red would be greater than that of ultra violet waves.
20 million 1-nanometer objects, arranged end-to-end,would form a line 2 centimeters long.
The SI prefix Nano- means one-billionth. The prefix centi- means one-hundredth. This means that there are one-billion divided by one-hundred nanometers in a centimeter, or ten million nanometers.
um it would be (approximately) the same wavelength of the green light in nanometers instead of any other color wavelength it would nanometers.
1 cm = 10 million nanometers ex: convert 2945.5nm into centimeters. 294.5nmn x 1cm 10,000,000 = .0000294 you put whatever # of nm you have and multiply it by 1 cm and put however # of nm are in one centimeter under the 1 centimeter. then you cancel out the nm and divide 294.5 by 10,000,000 and your answer should be .0000294 and in scientific notation, that would be 2.94x10-5 i hope that helps. :]
If it were changed into 1 centimeter it would be 1 centimeter.
that the California waters would get too high
The speed of a wave is calculated by multiplying its frequency by its wavelength. In this case, the speed of the waves along the string would be 1.0 meters per second (2.0 Hz * 0.50 m).
Yes, waves are a major force of erosion along coasts. The continuous impact of waves against the coastline wears away rock and sediment, leading to the erosion of coastal landforms. This erosion can result in the formation of cliffs, sea caves, and other coastal features.
Surface waves would appear below the S-wave curve on a seismic wave graph. They travel along the Earth's surface and are slower than body waves (P and S waves) but faster than Love waves and Rayleigh waves.