no idea man
Electric forces and magnetic forces are both fundamental forces in nature that act on charged particles. Electric forces are created by the presence of electric charges, either attracting opposite charges or repelling like charges. Magnetic forces, on the other hand, are created by moving electric charges or magnetic materials, attracting or repelling based on the orientation of the magnetic field. While both forces involve the interaction of charged particles, electric forces are static and act on stationary charges, while magnetic forces are dynamic and act on moving charges.
To know the direction of the torque acting on the coil, whether the coil is vertical or horizontal, you will compare the direction of the magnetic force or its rotation to the direction of the coil. If the coil is vertical and the magnetic force is in the direction of the coil rotation, then the direction of the torque will be the same.
A magnetic compass uses the poles of our planet to stay in alignment. A Gyroscopic compass is set to a particular direction and tends to try to stay that way. After time, even the best Gyro will start to precess (move). This means the you will need to compare your Gyro to the magnetic every 15 minutes or so. Some modern gyroscopic compasses are capable of auto resetting to do this update automatically
To compare the direction of your partner's force with your own, you can use vector addition. If the forces are in the same direction, you add their magnitudes to get the combined force. If they are in opposite directions, you subtract the magnitudes. If the forces are at an angle to each other, you can use trigonometry to determine the resultant force direction.
The information from the activity with the plotting compass provides a localized magnetic field direction at specific points on the surface, while the iron filings show the overall magnetic field pattern surrounding a magnet. The compass gives a more detailed point-wise analysis, while the iron filings demonstrate the overall field shape and direction. Both methods are complementary in understanding magnetic fields.
Particles move with and across magnetic fields: F= evb = -ev.B + evxB = -evBcos(VB) + evBsin(vB). Currently scientists ignore the scalar force f= -ev.B this is the cause of trapped ions in the Earth's magnetosphere.
Electric forces and magnetic forces are both fundamental forces in nature that act on charged particles. Electric forces are created by the presence of electric charges, either attracting opposite charges or repelling like charges. Magnetic forces, on the other hand, are created by moving electric charges or magnetic materials, attracting or repelling based on the orientation of the magnetic field. While both forces involve the interaction of charged particles, electric forces are static and act on stationary charges, while magnetic forces are dynamic and act on moving charges.
By knowing the precise orientation of the rocks magnetic field, you can compare its magnetic field direction to the known direction of the magnetic field over time since the "north pole" wanders over time. The rock locked in its magnetic field when it cooled from magma.
To know the direction of the torque acting on the coil, whether the coil is vertical or horizontal, you will compare the direction of the magnetic force or its rotation to the direction of the coil. If the coil is vertical and the magnetic force is in the direction of the coil rotation, then the direction of the torque will be the same.
They have opposite charges.
compare
A magnetic compass uses the poles of our planet to stay in alignment. A Gyroscopic compass is set to a particular direction and tends to try to stay that way. After time, even the best Gyro will start to precess (move). This means the you will need to compare your Gyro to the magnetic every 15 minutes or so. Some modern gyroscopic compasses are capable of auto resetting to do this update automatically
To compare the magnetic moments of two different bar magnets. To check the earth magetic moment. To verify inverse square law . Compare earth's magnetic induction . determine the horizontal component of the earth's magnetic induction .
To compare the direction of your partner's force with your own, you can use vector addition. If the forces are in the same direction, you add their magnitudes to get the combined force. If they are in opposite directions, you subtract the magnitudes. If the forces are at an angle to each other, you can use trigonometry to determine the resultant force direction.
To compare the magnetic moments of two magnets using a deflection magnetometer, you would place one magnet at a known distance from the magnetometer and measure the angle of deflection caused by its magnetic field. Then, you would repeat the process with the second magnet at the same distance and compare the angles of deflection. The magnetic moment of the magnets can be compared by the ratio of the sine of the angles to the distance and the Earth's magnetic field strength.
It is in most cases opposite to the direction of motion.
The information from the activity with the plotting compass provides a localized magnetic field direction at specific points on the surface, while the iron filings show the overall magnetic field pattern surrounding a magnet. The compass gives a more detailed point-wise analysis, while the iron filings demonstrate the overall field shape and direction. Both methods are complementary in understanding magnetic fields.