Sentence examples for whose masses from inspiring English sources
"whose masses" is correct and usable in written English
It is used as a possessive pronoun to mean belonging to someone or something. For example, "The scientist studied the galaxies whose masses were difficult to measure."
The other three whose masses are known are less dense, so presumably have more hydrogen.
The light output of stars rises as a rather high power of their mass according to a mass luminosity relation that is valid for the vast majority of stars whose masses are known, while their supply of nuclear energy is only directly proportional to the mass.
Insofar as it is possible to tell anything at all from this impressionistic splurge, it looks as if director JJ Abrams wishes to return to the verities of character and story and to move away from the inert digital gigantism of the last decade's prequel-trilogy whose masses of pointless minor characters seemed to be there simply to sell action figures.
More detailed analysis is, unfortunately, complicated by essential overlapping of broadened bands that is typical for solid solutions containing tetrahedral and octahedral complexes with central atoms whose masses are close to each other.
We consider two colliding grains whose masses are m1 and m2 (the former grain is called target grain), and estimate the total fragment mass in m1 as a result of this collision.
Newton also tested the principle for bodies whose masses differ greatly, by observing that Jupiter and its four moons all received precisely the same acceleration from the sun's gravitational field.
The astronomical object whose mass is growing is known as the accretor.
Henry Kissinger (whose mass bombing of Cambodia killed 500,000-plus civilians) won the Nobel Peace Prize in 1973.
The term heavy charged particle refers to those energetic particles whose mass is one atomic mass unit or greater.
The return is for the purpose of shaking down an old priest whose Mass he had served.
For a body whose mass m is constant, it can be written in the form F = ma, where F (force) and a (acceleration) are both vector quantities.
