because they have a positive and negative end
Yes, cathode rays are deflected towards a positively charged plate in an electric field. The negatively charged particles in the cathode rays are attracted to the positive plate, causing the deflection.
Neutral objects near charged objects will either be attracted or repelled depending on the charge of the nearby object. If the charged object is positive, neutral objects will be attracted towards it; if it is negative, neutral objects will be repelled. This is due to the redistribution of charges in the neutral object when it interacts with the charged object.
When J.J. Thomson placed a pair of charged metal plates on either side of the glass tube, the cathode ray beam (consisting of electrons) was deflected. The negatively charged electrons were repelled by the negatively charged plate and attracted towards the positively charged plate, causing the beam to bend towards the positive plate. This experiment demonstrated that cathode rays were made up of negatively charged particles, leading to the discovery of the electron.
Yes, anions are negatively charged particles that are attracted to the positively charged anode in an electrolytic cell. This is because opposite charges attract each other, causing the anions to move towards the anode during the electrolysis process.
The spherical magnet will experience a force that will try to align it with the magnetic field of the bar magnet. Depending on the orientation of the spherical magnet and the bar magnet, it may either be attracted or repelled. If the polarity of the two magnets is aligned, they will be attracted to each other; if the polarity is opposite, they will be repelled.
Yes, cathode rays are deflected towards a positively charged plate in an electric field. The negatively charged particles in the cathode rays are attracted to the positive plate, causing the deflection.
The electrons in the neutral object will be attracted towards the negatively charged balloon, causing them to move slightly towards the side of the object closest to the balloon. This redistribution of electrons creates a slight imbalance in charge on the object, resulting in a temporary induced charge separation.
Neutral objects near charged objects will either be attracted or repelled depending on the charge of the nearby object. If the charged object is positive, neutral objects will be attracted towards it; if it is negative, neutral objects will be repelled. This is due to the redistribution of charges in the neutral object when it interacts with the charged object.
When a charged rod is brought near an uncharged metal object, it induces a separation of charges within the metal object causing the electrons to move away from the charged rod. This separation of charges creates an attractive force between the charged rod and the metal object, leading to the repulsion of the metal object.
When a charged object is brought close to a neutral object, the electric field from the charged object can cause the electrons in the neutral object to be attracted or repelled. This movement of electrons results in the neutral object becoming polarized, as the electrons are pushed away from or pulled towards the charged object.
In a Van de Graaff generator, electrons are accelerated by being repelled by the negatively charged dome and attracted by the positively charged belt. This creates an electric field that accelerates the electrons as they move towards the dome. The higher the voltage applied to the generator, the greater the acceleration of the electrons.
When J.J. Thomson placed a pair of charged metal plates on either side of the glass tube, the cathode ray beam (consisting of electrons) was deflected. The negatively charged electrons were repelled by the negatively charged plate and attracted towards the positively charged plate, causing the beam to bend towards the positive plate. This experiment demonstrated that cathode rays were made up of negatively charged particles, leading to the discovery of the electron.
When a negatively charged surface approaches a piece of foil, electrons in the foil move to the far side, as they are repelled by the negative charge. This means that the side near the charged surface is positively charged while the far side is negatively charged. Since the electrical force decreases with increasing distance, the attraction experience by the positive near side of the foil will be slightly stronger than the repulsive force of the negative far side. As a result, the foil will experience a net attraction to the charged surface.
Cotton balls can fly or be attracted to a phone due to static electricity. When you rub the phone against certain materials, like fabric, it can generate static charges. This static electricity can cause lightweight objects like cotton balls to be attracted to or repelled by the charged phone, making them appear to "fly" towards it.
Electrons will move in response to an electric potential - also known as a voltage. The electron will be attracted towards, or repelled from, one direction, due to this voltage.
A charged object will be attracted to you if you have an opposite charge because opposite charges attract each other due to the electrostatic force. This force pulls the charged object towards you, resulting in an attractive interaction.
to actually get the electrons moving there needs to be an electric potential better known as voltage. the voltage allows the electrons to be attracted towards, repelled from in one direction across cables