A Magnetic Trap for Evaporative Cooling of Rb Atoms
... would not have been possible. I would also like to thank my high-school physics teacher, Mr. Zschernitz, for showing me the beauty of physics, as well as my professors at the University of Kaiserslautern, Prof. Hotop and Prof. Fleischhauer, for keeping my fascination alive and kindling my interest i ...
... would not have been possible. I would also like to thank my high-school physics teacher, Mr. Zschernitz, for showing me the beauty of physics, as well as my professors at the University of Kaiserslautern, Prof. Hotop and Prof. Fleischhauer, for keeping my fascination alive and kindling my interest i ...
Force on Moving Charges in a Magnetic Field
... When a particle with charge moves across a magnetic field of magnitude , it experiences a force to the side. If the proper electric field is simultaneously applied, the electric force on the charge will be in such a direction as to cancel the magnetic force with the result that the particle will tra ...
... When a particle with charge moves across a magnetic field of magnitude , it experiences a force to the side. If the proper electric field is simultaneously applied, the electric force on the charge will be in such a direction as to cancel the magnetic force with the result that the particle will tra ...
Electromagnet - Cascades Science Center Foundation
... current passes through the wire round around the nail, it creates a magnetic field that reaches out in expanding circles. The magnetic field magnetizes the metal as if it were a permanent magnet. While the regular magnets need to stay “on” all the times, the electromagnet may be turned off. The stre ...
... current passes through the wire round around the nail, it creates a magnetic field that reaches out in expanding circles. The magnetic field magnetizes the metal as if it were a permanent magnet. While the regular magnets need to stay “on” all the times, the electromagnet may be turned off. The stre ...
Wireless Inductive Charging for Low Power Devices
... The coupling factor is a dimensionless value that defines interaction between the primary and secondary coils of any wireless power transfer system. A higher coupling factor means a more efficient power transfer through reduced magnetic flux loss and less heating. A system could either be tightly or ...
... The coupling factor is a dimensionless value that defines interaction between the primary and secondary coils of any wireless power transfer system. A higher coupling factor means a more efficient power transfer through reduced magnetic flux loss and less heating. A system could either be tightly or ...
Specification for rigid coils
... a suitable integrator the rigid coils can be used to measure at frequencies below 0.2Hz (-3dB). High Frequencies: The upper frequency limit depends on the resonance properties of the coil. and the length of the output lead. For rigid coils resonant frequencies are in the range from about 20 - 95kHz ...
... a suitable integrator the rigid coils can be used to measure at frequencies below 0.2Hz (-3dB). High Frequencies: The upper frequency limit depends on the resonance properties of the coil. and the length of the output lead. For rigid coils resonant frequencies are in the range from about 20 - 95kHz ...
PHYS 1443 – Section 501 Lecture #1
... The three loops of wire shown in Fig. 29-1 are all subject to the same uniform magnetic field that does not vary with time. Loop 1 oscillates back and forth as the bob in a pendulum, loop 2 rotates about a vertical axis, and loop 3 oscillates up and down at the end of a spring. Which loop, or loops, ...
... The three loops of wire shown in Fig. 29-1 are all subject to the same uniform magnetic field that does not vary with time. Loop 1 oscillates back and forth as the bob in a pendulum, loop 2 rotates about a vertical axis, and loop 3 oscillates up and down at the end of a spring. Which loop, or loops, ...
Ideal Transformers File - Eastern Mediterranean University Open
... Winding resistance: Causing power to be dissipated in the windings. Hysteresis loss: Due to the continuous reversal of the magnetic field. Core losses: Due to circulating current in the core (eddy currents). Flux leakage: Flux from the primary that does not link to the secondary. Winding capacitance ...
... Winding resistance: Causing power to be dissipated in the windings. Hysteresis loss: Due to the continuous reversal of the magnetic field. Core losses: Due to circulating current in the core (eddy currents). Flux leakage: Flux from the primary that does not link to the secondary. Winding capacitance ...
electromagnetic induction
... account for the two experimentally symmetric cases. The symmetry has got lost. Maxwell was aware of the symmetry of the phenomenon. He tried to recover the kinematic invariance. He tried to proof that the equations for the electromotive force are invariant for a uniform motion. He acknowledged that ...
... account for the two experimentally symmetric cases. The symmetry has got lost. Maxwell was aware of the symmetry of the phenomenon. He tried to recover the kinematic invariance. He tried to proof that the equations for the electromotive force are invariant for a uniform motion. He acknowledged that ...
Sensing Earth`s magnetic field
... low-field sensors in the industry. Our magnetic sensors are designed to accurately detect the direction and magnitude of external magnetic fields for compassing and magnetometry applications. From discrete sensors for low-cost, high volume applications, to high performance solid-state compasses, mag ...
... low-field sensors in the industry. Our magnetic sensors are designed to accurately detect the direction and magnitude of external magnetic fields for compassing and magnetometry applications. From discrete sensors for low-cost, high volume applications, to high performance solid-state compasses, mag ...
