5H10.11 - Compass Needles and Magnet
... combinations of dipoles. Hence, the field lines must begin and end at opposite poles. The B-field vectors are tangent to the lines at all points. ...
... combinations of dipoles. Hence, the field lines must begin and end at opposite poles. The B-field vectors are tangent to the lines at all points. ...
Electromagnetic Induction
... Where F force on conductor (N), B = magnetic field strength (T), I = current in conductor (A) and L = length of conductor in magnetic field (m) A current flowing parallel to a magnetic field experiences no force. The formula has been generalised, noting that the force is zero when the angle is zero ...
... Where F force on conductor (N), B = magnetic field strength (T), I = current in conductor (A) and L = length of conductor in magnetic field (m) A current flowing parallel to a magnetic field experiences no force. The formula has been generalised, noting that the force is zero when the angle is zero ...
BC Example
... On the interaction referred in point A, there are more energy transferred to the electron. This curly track requires an energy about MeV’s. On the collision between K- and proton, the proton takes some energy from the K-. This proton loses its energy as it moves slowly creating a short dark path. ...
... On the interaction referred in point A, there are more energy transferred to the electron. This curly track requires an energy about MeV’s. On the collision between K- and proton, the proton takes some energy from the K-. This proton loses its energy as it moves slowly creating a short dark path. ...
Electric Circuits & Magnets
... Which of the following is a true statement about the magnetic field between two magnets? A. The south pole of one magnet is attracted to the south pole of the other magnet. B. The south pole of one magnet is attracted to the north pole of the other magnet. C. The north pole of one magnet is attract ...
... Which of the following is a true statement about the magnetic field between two magnets? A. The south pole of one magnet is attracted to the south pole of the other magnet. B. The south pole of one magnet is attracted to the north pole of the other magnet. C. The north pole of one magnet is attract ...
Magnetism - WordPress.com
... Magnetism was discovered more than 3000 years ago Certain rocks (magnetite) attracted bits of iron Magnetite formed from the slow hardening of the ...
... Magnetism was discovered more than 3000 years ago Certain rocks (magnetite) attracted bits of iron Magnetite formed from the slow hardening of the ...
Energy_Impact on Global - Saint Leo University Faculty
... Two Bar Magnets: Opposite Poles Attract ...
... Two Bar Magnets: Opposite Poles Attract ...
Magnetism and Electromagnetism Review Answers
... the compass will line up ( randomly / parallel / perpendicular ) to the magnetic field lines. parallel ...
... the compass will line up ( randomly / parallel / perpendicular ) to the magnetic field lines. parallel ...
Ferrofluid
A ferrofluid (portmanteau of ferromagnetic and fluid) is a liquid that becomes strongly magnetized in the presence of a magnetic field.Ferrofluid was invented in 1963 by NASA's Steve Papell as a liquid rocket fuel that could be drawn toward a pump inlet in a weightless environment by applying a magnetic field.Ferrofluids are colloidal liquids made of nanoscale ferromagnetic, or ferrimagnetic, particles suspended in a carrier fluid (usually an organic solvent or water). Each tiny particle is thoroughly coated with a surfactant to inhibit clumping. Large ferromagnetic particles can be ripped out of the homogeneous colloidal mixture, forming a separate clump of magnetic dust when exposed to strong magnetic fields. The magnetic attraction of nanoparticles is weak enough that the surfactant's Van der Waals force is sufficient to prevent magnetic clumping or agglomeration. Ferrofluids usually do not retain magnetization in the absence of an externally applied field and thus are often classified as ""superparamagnets"" rather than ferromagnets.The difference between ferrofluids and magnetorheological fluids (MR fluids) is the size of the particles. The particles in a ferrofluid primarily consist of nanoparticles which are suspended by Brownian motion and generally will not settle under normal conditions. MR fluid particles primarily consist of micrometre-scale particles which are too heavy for Brownian motion to keep them suspended, and thus will settle over time because of the inherent density difference between the particle and its carrier fluid. These two fluids have very different applications as a result.