 ... the charged particles. Now if we know the amount of expansion produced we can calculate the cooling of the gas, and therefore the amount of water deposited. Thus, we know the volume of water in the form of drops, so that if we know the volume of one...  Electricity and Matter - Page 76by Joseph John Thomson - 1904 - 162 pagesFull view - About this book
 | Joseph John Thomson - 1904 - 184 pages
...arising from the motion of these particles in the electric field. We have at the Cavendish Laboratory measured the charge of electricity carried by those...falls through the air is given by the equation 2 go? *=*-£'• when g is the acceleration due to gravity = 981 and /i, the coefficient of viscosity of... | |
 | Joseph John Thomson - 1904 - 184 pages
...arising from the motion of these particles in the electric field. We have at the Cavendish Laboratory measured the charge of electricity carried by those...it falls through the air is given by the equation when g is the acceleration due to gravity = 981 and jit the coefficient of viscosity of air = .00018;... | |
 | Henry Smith Williams - 1904 - 422 pages
...can deduce the number of drops. To find the size of a drop, we make use of the investigations made by Sir George Stokes on the rate at which small spheres...slowly, and the smaller they are the slower they fall." ' Professor Thompson gives us the formula by which Stokes made his calculation. It is a relatively... | |
 | Edmund Edward Fournier d'Albe - 1907 - 362 pages
...the volume of water in the form of drops, so that if we know the volume of one drop we can deduce tne number of drops. To find the size of a drop we make...it falls through the air is given by the equation where g is the acceleration due to gravity = 981, and /j, the coefficient of viscosity of air = 0-00018.... | |
 | Henry Smith Williams, Edward Huntington Williams - 1912 - 380 pages
...can deduce the number of drops. To find the size of a drop, we make use of the investigations made by Sir George Stokes on the rate at which small spheres...slowly, and the smaller they are the slower they fall." * Professor Thompson gives us the formula by which Stokes made his calculation. It is a relatively... | |
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