S-waves actually have a higher amplitude, despite being slower than P-waves. It is this amplitude that indicates stress, which is why S-waves can't travel through liquids, as liquids cannot support the stresses of S-waves
The wave amplitude of an 8.0 earthquake is 100 times larger than that of a 6.0 earthquake. This is because earthquake magnitude scales logarithmically, where each whole number increase represents a tenfold increase in amplitude.
P waves arrive first and are faster than S waves, so measuring the time difference between their arrivals at different seismographs can help determine the distance to the earthquake epicenter. By using data from multiple seismographs, it is possible to triangulate the epicenter of the earthquake. The direction of the waves' arrival can also help determine the location of the earthquake along with other factors like amplitude and frequency.
A 7.5 magnitude earthquake is 10 times larger in amplitude than a 6.5 magnitude earthquake on the Richter scale. Each whole number increase on the Richter scale represents a tenfold increase in amplitude.
A p wave because it can move so fast with more force. P waves cause little damage, they are compressional waves. They are at a higher frequency and a lower amplitude than surface waves which are shear waves. S-waves cause the most damage because they are slow moving and have an amplitude much greater than P-waves.
10 degrees higher than -16 is -6.
The earthquake in Japan had a higher amplitude than the one in California. Amplitude is the measure of the strength of the earthquake's seismic waves, and in this case, the Japanese earthquake had stronger seismic waves, leading to higher amplitude readings.
Wave with higher amplitude carry more energy than wave with lower amplitude. For simple consideration, no amplitude is no wave and thus no energy but just a flat surface of water. Wave with amplitude must have higher energy than the no wave.
The amplitude of a wave is directly proportional to its energy. Higher amplitude waves carry more energy than waves with lower amplitudes.
It is the same as why an object at higher place had more energy than one on the floor. Energy is the difference of potential, for kinetic energy example it is the height, greater height is greater energy. For the wave, energy could be stored in amplitude and frequency. Low amplitude or no amplitude is no energy and any amplitude higher than the zero amplitude would have more energy.
A gamma ray has a higher amplitude than a radio wave. Gamma rays have shorter wavelengths and higher frequencies compared to radio waves, resulting in higher energy and therefore higher amplitudes.
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 a sound wave directly affects its loudness – greater amplitude corresponds to louder sounds. The frequency of a sound wave can also affect loudness, as higher frequencies are generally perceived as louder than lower frequencies at the same amplitude.
Sounds with higher amplitude have greater energy than sounds with higher frequency. Amplitude corresponds to the intensity or loudness of a sound, while frequency relates to pitch. In general, the energy of a sound wave is proportional to its amplitude squared.
The intensity will increase if the energy increase. The intensity is proportional to the square of the amplitude of a wave.
Higher frequency sound waves are not necessarily louder than lower frequency sound waves. The perceived loudness of a sound is more dependent on the amplitude or intensity of the sound wave, rather than its frequency.
It results in a wave with an amplitude which is equal to the sum of the amplitudes of the waves passing at that point.
Amplitude can increase in an amplifier by boosting the strength of the input signal. This is typically achieved by providing additional power to the signal through the amplifier, causing the output to have a higher amplitude than the input. The amplifier amplifies the signal by multiplying it by a constant factor known as the gain, which determines how much the amplitude is increased.