There is a system of formal designation of the region of the electromagnetic
spectrum that we know how to generate and modulate for communication.
The naming system differentiates among arbitrary sections of "radio" based
on slices of decades (10 times) of frequency and wavelength. You'll recognize
some of the abbreviations, like VHF and UHF:
Very Low Frequency (VLF)
3 - 30 KHz
100,000 - 10,000 meters
Low Frequency (LF)
30 - 300 KHz
10,000 - 1,000 meters
Medium Frequency (MF)
300 KHz - 3 MHz
1,000 - 100 meters
High Frequency (HF)
3 - 30 MHz
100 - 10 meters
Very High Frequency (VHF)
30 - 300 MHz
10 - 1 meter
Ultra High Frequency (UHF)
300 MHz - 3 GHz
1 meter - 10 cm
Super High Frequency (SHF)
3 - 30 GHz
10 - 1 cm
Extreme High Frequency (EHF)
30 - 300 GHz
1 cm - 1 mm
They are both transverse waves, albeit having different wavelength and frequency. I think that velocity of the waves will also be different as x-rays travel at the speed of light.
had a chest xray, there was a shadow over my heart what is it
All earthquakes have a different resonant frequency that can range from 10-50Hz. The average frequency would be around 31Hz or equivalent to the low B string on a 5 string bass guitar.
If they are calcified, such as an aorta that has plaque build up. Abdominal aortic aneurysms can sometimes be seen on xray in this situation. However, in general, arteries do not show up on xray.
Electro-magnetic waves of many kinds travel through certain solids and liquids: radio waves (these are waves of relatively low frequency/high wavelength) can travel through almost anything. Microwaves - shorter wavelength, higher frequency - need particular materials to stop them. Gamma rays (a form of radioactivity) can pass through many solids, and need a very thick layer of a dense metal such as LEAD to stop them. Visible light, which is also a form of electro-magnetic radiation - can (obviously) travel through some liquids and solids; those which are to some extent transparent.Sound waves - which are pressure waves - can also travel through solids and liquids.Generally, the answer to the question varies according to which solids and liquids are being considered; and each of these will permit a different range of waves to pass through them.
As you move from left to right across the electromagnetic spectrum, the frequency increases, the wavelength decreases, and the energy of the electromagnetic waves increases. This means that on the left side, you have low-frequency, long-wavelength, low-energy waves like radio waves, while on the right side, you have high-frequency, short-wavelength, high-energy waves like gamma rays.
Energetic High-frequency Electromagnetic Radiation
High frequency waves will have more energy than low-frequency waves. This is because energy is directly proportional to frequency in waves - the higher the frequency, the higher the energy.
This is known as the frequency of the wave.
The frequency of the waves.
The highest frequency electromagnetic waves are gamma rays.
The highest frequency electromagnetic waves are gamma rays, which have wavelengths shorter than 10 picometers. The lowest frequency electromagnetic waves are radio waves, which have wavelengths longer than 1 millimeter.
The frequency of sound waves determines the pitch of the sound. Higher frequency waves create higher-pitched sounds, while lower frequency waves create lower-pitched sounds.
Pitch
The frequency of the waves is 0.20 HZ.
if wave amplitudes are equal ,will high frequency waves carry more or less energy than low frequency waves
High frequency waves also have high energy. This means that waves with shorter wavelengths (higher frequency) carry more energy than waves with longer wavelengths (lower frequency). Examples of high frequency, high energy waves include gamma rays and X-rays.