An alpha particle, which is a 24He nucleus, has a mass of 4 and a charge of +2. A beta particle has a charge of +1 or -1, depending on whether it is a positron (beta +) or an electron (beta -). It's mass is minuscule compared to the alpha particle, and it will undergo a comparatively huge deflection in the same field as an alpha particle would. Though the alpha particle has twice the charge as a beta particle, it has several thousand times the mass of that beta particle. As it is so much more massive than the beta particle, its inertia will be much more difficult to overcome even though it has twice the charge.
Beta particles are deflected in a magnetic field due to their electric charge. Beta particles are either negative (beta-) or positive (beta+) charged, so they experience a force when passing through a magnetic field, causing them to be deflected from their original path.
The beam of alpha particles is deflected toward the negatively charged plate. This is because alpha particles are positively charged, and opposite charges attract each other.
Nothing. The gamma ray is not deflected by a magnetic field, which demonstrates that unlike the alpha and beta rays, the gamma is not a stream of charged particles, but is electromagnetic radiation.
Alpha particles are heavier and carry a positive charge, so they are more easily deflected by electromagnetic fields in a different direction than beta particles, which are lighter and negatively charged. This can occur if they pass through a medium that causes them to ionize and interact differently due to their mass and charge differences.
Alpha radiation is deflected from its original path when it strikes an object due to interactions with the atoms of the material. Alpha particles have a larger mass and positive charge, making them more likely to interact and be deflected by the electrons in the material.
Alpha and beta particles are deflected by a magnetic field because they have charge and, as such, are affected by the electromagnetic interaction or force.
Beta particles are deflected in a magnetic field due to their electric charge. Beta particles are either negative (beta-) or positive (beta+) charged, so they experience a force when passing through a magnetic field, causing them to be deflected from their original path.
some of alpha particles were deflected through an angle of 90 degree
The beam of alpha particles is deflected toward the negatively charged plate. This is because alpha particles are positively charged, and opposite charges attract each other.
The beam would be deflected to the negative plate, as alpha particles are Helium nuclei and are positively charged.
Nothing. The gamma ray is not deflected by a magnetic field, which demonstrates that unlike the alpha and beta rays, the gamma is not a stream of charged particles, but is electromagnetic radiation.
Alpha particles are heavier and carry a positive charge, so they are more easily deflected by electromagnetic fields in a different direction than beta particles, which are lighter and negatively charged. This can occur if they pass through a medium that causes them to ionize and interact differently due to their mass and charge differences.
Alpha radiation is deflected from its original path when it strikes an object due to interactions with the atoms of the material. Alpha particles have a larger mass and positive charge, making them more likely to interact and be deflected by the electrons in the material.
The opposite of an Alpha is an Omega. The counterpart to an Alpha male would of course be an Alpha Female.
Alpha particles ARE not a threat to humans. They can be deflected by nothing more than a sheet of paper.
An alpha particle is made up of two protons and two neutrons, giving it a positive charge. As opposite charges attract, the positive charge of the alpha particle is attracted to the negative charge of the plate.
Alpha particles deflect backwards due to repulsive electrostatic force between the particles and nucleus. They are all charged positively (like charges repel), hence the repulsive electrostatic force