Frequency and distance are directly proportional the higher the frequency the more distance for the sound to dissipate th lower the frequency th shorter the distance for the sound to dissipate
Recombination frequency is a measure of the likelihood of two genes being inherited together during reproduction. Genetic distance is the physical measure of the separation between two genes in a genome. There is a direct relationship between recombination frequency and genetic distance - as the genetic distance between two genes increases, the likelihood of recombination events between them also increases.
There is no factual relation between these, but there is a common rule known as the Nyquist-Shannon theorem, that states that to reproduce a waveform with only reasonably errors, the sampling frequency must be at least twice the wave frequency.
The shrillness of a sound is related to its frequency, with higher frequency sounds typically perceived as more shrill or piercing. This is because higher frequency sounds have more rapid vibrations, which our ears interpret as a higher pitch and increased sharpness in tone.
Miles is a measure of distance, not time. The relation between distance and time is the measurement of how much time it takes an object to travel a specific distance at a specific rate of travel (speed).
Scientists can determine the distance between genes on a chromosome using techniques like genetic mapping. By analyzing the frequency of genetic recombination events between genes, they can estimate the distance between them. Another method is to sequence the DNA and use physical mapping to measure the actual physical distance between genes on the chromosome.
The optimum frequency in wave propagation refers to the frequency at which a wave can travel with minimal loss and attenuation over a given medium. This frequency allows for efficient transmission of the wave without excessive absorption or scattering in the medium. Determining the optimum frequency involves considerations such as the properties of the medium, the distance of propagation, and potential interference from other waves.
the relation between frequency and time period is ''t=1/f''
Frequency = 1 / period
frequency = speed of light/wavelength
yes!
voltage and frequency both are different quantity.. don't mix it...
the lower the frequency the lower the pitch; higher pitch lower frequency
There is no such equation. The main reason is that there is no relationship between current and frequency.
The differences between the these two is that linear scale shows the relation between the map distance and the ground distance. The nonlinear scale do not show the relation between the map distance and the ground distance.
The relation between cut off frequency (fc) and band width is as follows: fc=Q*B.W where Q=(fL*fH)^1/2/(fH-fL) Q is quality factor. fL is low frequency. fH is high frequency.
In a longitudinal wave, the wavelength is the distance between two consecutive points that are in phase with each other. The propagation direction of the wave is the direction in which the wave is moving. The relationship between the wavelength and the propagation direction in a longitudinal wave is that the wavelength is parallel to the propagation direction.
Four characteristics of a wave that can change are amplitude (height of the wave), frequency (number of wave cycles per unit time), wavelength (distance between wave crests), and speed of propagation.