The magnetic needle is deflected due to the presence of a magnetic field that acts on the needle's own magnetic field, causing it to align in the direction of the external field. This deflection is governed by the principles of magnetism and electromagnetism.
The magnetic needle gets deflected near a current-carrying wire due to the magnetic field generated by the current. The magnetic field induces a force on the needle, causing it to align or deflect towards or away from the wire. This phenomenon is a result of the interaction between the magnetic field and the magnetic properties of the needle.
A compass needle is deflected when placed near a current-carrying wire due to the magnetic field generated by the flow of electric current. The magnetic field produced by the current interacts with the Earth's magnetic field, causing the needle to align in a different direction.
Humphrey Davy noticed that when he brought a wire with electricity running through it near a compass, the needle of the compass deflected, indicating that the electric current produced a magnetic field around the wire. This discovery led to the understanding of the relationship between electricity and magnetism.
The needle in a compass is typically called a magnetic needle or magnetic pointer.
Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.
The magnetic needle gets deflected near a current-carrying wire due to the magnetic field generated by the current. The magnetic field induces a force on the needle, causing it to align or deflect towards or away from the wire. This phenomenon is a result of the interaction between the magnetic field and the magnetic properties of the needle.
The compass needle gets deflected when brought near a bar magnet because the magnet induces a magnetic field around it. This field interacts with the Earth's magnetic field, causing the needle to align itself with the magnetic field lines. This alignment results in the needle pointing towards the North and South poles of the bar magnet.
A compass needle is deflected when placed near a current-carrying wire due to the magnetic field generated by the flow of electric current. The magnetic field produced by the current interacts with the Earth's magnetic field, causing the needle to align in a different direction.
The magnetic effect of electric current is known as electromagnetic effect. It is observed that when a compass is brought near a current carrying conductor the needle of compass gets deflected because of flow of electricity. This shows that electric current produces a magnetic effect.
Humphrey Davy noticed that when he brought a wire with electricity running through it near a compass, the needle of the compass deflected, indicating that the electric current produced a magnetic field around the wire. This discovery led to the understanding of the relationship between electricity and magnetism.
The needle in a compass is typically called a magnetic needle or magnetic pointer.
Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.Because of the magnetic force. The compass needle is also magnetic.
A tangent galvanometer is called so because it uses the tangent of the angle through which a magnetic needle is deflected to measure electric current. The horizontal component of the Earth’s magnetic field and a coil carrying current creates a magnetic field that deflects the needle, making it tangent to the circle of the coil.
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Stroking a needle with a magnet aligns the magnetic domains in the needle material in the same direction, causing the needle to become magnetized. This alignment of domains creates a magnetic field in the needle, giving it magnetic properties.
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.
Yes, a neutron can be deflected by a magnetic field because it is a charged particle. The movement of the neutron will be influenced by the Lorentz force, which occurs when a charged particle moves through a magnetic field.