If wave A carries more energy than wave B, then wave B has a smaller amplitude, frequency, or wavelength compared to wave A. This means that the properties of wave B are lesser in magnitude than those of wave A.
The amplitude of the wave determines how much energy it is carrying. A wave with a greater amplitude carries more energy than a wave with a smaller amplitude.
Waves with large amplitude carry more energy because the energy of a wave is directly proportional to the square of its amplitude. This means that as the amplitude of a wave increases, the energy it carries also increases exponentially. So waves with large amplitudes have more energy compared to waves with smaller amplitudes.
Sound has two quantitative qualities that we usually measure and those are amplitude and frequency. So I am asuming you are referring to the loudness and softness as the amplitude quantity. The louder a sound, the more energy it carries. So, a loud sound, using your descriptive terms, has more energy than a soft sound, which has less amplitutde.
The amplitude and frequency of a wave are two properties that indicate how much energy it is carrying. A wave with larger amplitude or higher frequency typically carries more energy than a wave with smaller amplitude or lower frequency.
The amplitude of a wave is related to the energy it carries. In general, a wave with higher amplitude carries more energy than a wave with lower amplitude. This is because the amplitude represents the maximum displacement from equilibrium, which correlates with the energy of the wave.
The amplitude of the wave determines how much energy it is carrying. A wave with a greater amplitude carries more energy than a wave with a smaller amplitude.
Waves with large amplitude carry more energy because the energy of a wave is directly proportional to the square of its amplitude. This means that as the amplitude of a wave increases, the energy it carries also increases exponentially. So waves with large amplitudes have more energy compared to waves with smaller amplitudes.
Secondary seismic waves travel slower than primary waves but they are much more destructive. Thus it carries more energy.
Sound has two quantitative qualities that we usually measure and those are amplitude and frequency. So I am asuming you are referring to the loudness and softness as the amplitude quantity. The louder a sound, the more energy it carries. So, a loud sound, using your descriptive terms, has more energy than a soft sound, which has less amplitutde.
UV radiation carries more energy because it vibrates faster, i.e. it has a shorter wavelength. Because it carries more energy, it can do much more damage than visible light.
The amplitude and frequency of a wave are two properties that indicate how much energy it is carrying. A wave with larger amplitude or higher frequency typically carries more energy than a wave with smaller amplitude or lower frequency.
neutron
A neutron.
Yes, NADH possesses more energy than NAD because it carries an extra electron and a hydrogen atom, making it a more reduced form of the molecule.
The amplitude of a wave is related to the energy it carries. In general, a wave with higher amplitude carries more energy than a wave with lower amplitude. This is because the amplitude represents the maximum displacement from equilibrium, which correlates with the energy of the wave.
The type of seismic wave that carries the most energy is the primary (P) wave. P waves are the fastest and can travel through solids, liquids, and gases, making them the most efficient at transmitting energy.
the amplitude of a wave shows how much energy it has eg, a smaller voltage ac supply on an oscilloscope would be much smaller than say a higher voltage such as main electrical pylons. if you mean waves at sea then i would presume it would have to be measured in joules as this the standard SI unit for energy.