There isn't any. The amplitude gives no information about the
frequency or wavelength, and is completely unrelated to them.
The amplitude of the body is half of the distance covered in one vibration. In this case, the amplitude would be 10cm.
Microwaves are higher in energy than ultraviolet rays. As a result microwaves have smaller wavelength and higher frequency then UV rays. The speed of propagation of an electromagnetic radiation is same as the speed of light.
The density of the object is 35 g/cm^3. This is calculated by dividing the mass (350g) by the volume (10cm^3).
The density of the object is 2.5 g/cm^3. Density is calculated by dividing mass by volume, so in this case, 25g ÷ 10cm^3 = 2.5 g/cm^3.
A cube with sides 10cm long would have a volume of 1,000 cm3 = 1 Liter.The amount of liquid in it would depend on how much of that volume is hollow,and on how much liquid you had poured into the hollow volume. The cubecould be solid, hollow and empty, hollow and full etc., or anything in between
The amplitude of the body is half of the distance covered in one vibration. In this case, the amplitude would be 10cm.
10cm a year tuto
the average lenght of a pen can be about 10cm
A seahorse is on average 10cm of height
Yes 10cm is more or less 4 inches which is pretty average for a 14 year olds erection.
I expect you mean 10cm not inches ! No it is not too small it is average.
Gamma Rays-wavelength: 0.01 nm X-rays -1 nm Ultra-violet Rays-0.1 micrometres Visible Light- Red light: 0.7 micrometres - Violet Light: 0.4 micrometres Infrared Radiation- 0.01 mm Microwaves-less than 10 cm, usually 1cm Radiowaves- Long, Medium and Short Waves:2km-10m -Very High Frequency (VHF) and Ultra High Frequency (UHF): 10m-10cm
1litre
V = 1,000 cm3
A square that measures 10cm on each side has an area of 100 square centimeters. This is calculated by multiplying the length of one side by itself (10cm x 10cm = 100 sqcm). The unit for area is always squared, so the area of a 10cm x 10cm square is 100 sqcm.
Yes - a litre is 10cm by 10cm by 10cm, i.e. 1dm cubed.
Basically there are no physical limitations of wavelength where a RADAR unit may operate, thereby it can operate practically on any wavelength from ELF (extremely low frequency) where wavelength can be as high as several hundreds kilometers or in Optical band like Laser RADAR (LADAR) who have wavelength of some microns . The limitations of RADAR operating wavelength is in their geometrical size of devices (transmitters, antennas and Receivers) required to produce such wavelength and their utilization . The following list is typical wavelength used by RADAR applications Search and Early Warning RADAR : >1- 10cm wavelength (HF- C band) Target Tracking RADAR : <10 cm Wavelength (C-band till milimmetric waveband) hope this helps