1.759 x 1011 Coulomb per Kilogram
J.J. Thomson determined the charge-to-mass ratio of the electron (e/m) using a cathode ray tube experiment. He measured the deflection of cathode rays (which are streams of electrons) in electric and magnetic fields. By analyzing the curvature of the electron's path and applying the equations of motion, he could calculate the ratio of the charge of the electron to its mass. This groundbreaking work led to the identification of the electron as a fundamental particle.
The electron has a charge of -1; but the electron has a mass.
The neutron has no charge, therefore the charge to mass ratio for the neutron is zero.
It is a simple ratio charge/mass or e/m .
The mass of an electron is much smaller than the mass of a proton. An electron has a charge of -1, while a proton has a charge of +1.
Modern Mass Spectrometry is the alternative method to measure the charge to mass ratio of an electron.
Compared to the (charge/mass) ratio of the electron:-- The (charge/mass) ratio of the proton is much smaller; although the proton charge is equal to the electron charge, the proton mass is much larger, by a factor of more than 1,800.-- The (charge/mass) ratio of the neutron is zero, because the neutron charge is zero.
The electron has the highest charge to mass ratio. This is because it has a tiny mass compared to its charge, making its ratio very high.
Millikan found the charge of an electron by his famous oil drop experiment. J J Thomson determined the specific charge of the electron. That means the ratio of the charge of an electron to its mass. With these two values one can find the mass of electron by dividing the charge value by its specific charge.
J.J. Thomson determined the charge-to-mass ratio of the electron (e/m) using a cathode ray tube experiment. He measured the deflection of cathode rays (which are streams of electrons) in electric and magnetic fields. By analyzing the curvature of the electron's path and applying the equations of motion, he could calculate the ratio of the charge of the electron to its mass. This groundbreaking work led to the identification of the electron as a fundamental particle.
The question is incorrect. (Either that, or I don't know what "specific charge" means.) The alpha particle has a charge of +2, while the proton is +1 and the electron is -1.If you are talking about charge to mass ratio, however, it is true that the alpha particle has a mass of about 4 amu, while the proton is 1 amu, and the electron is 1/1836 amu. This makes the charge to mass ratio of the alpha particle to only be about 0.25, while the proton is 1.0 and the electron is -1836.
The electron has a charge of -1; but the electron has a mass.
The neutron has no charge, therefore the charge to mass ratio for the neutron is zero.
Mass and charge are not connected. Negative charge is the charge carried by an electron.
Because its mass and charge are constant.
It is a simple ratio charge/mass or e/m .
The charge of an electron is -1. Specifically, it is about -1.602 x 10-19 coulombs. The mass of an electron is about 9.109 x 10-31 kilograms, or about one 1836th that of a proton.