
No Slide Title - Electrical and Computer Engineering
... – John Zipp – John Larson – Rich Cottrell ...
... – John Zipp – John Larson – Rich Cottrell ...
1.2kV Class Super Energy Efficient K
... exceed efficiency levels defined in the U.S. Department of Energy, Energy Conservation Program for Commercial Equipment; Distribution Transformers Energy Conservation Standards DOE 10 CFR Part 431; (before DOE referred to as TP1) and/or CSA C802.2 as referenced in the Canadian Energy Efficiency Regu ...
... exceed efficiency levels defined in the U.S. Department of Energy, Energy Conservation Program for Commercial Equipment; Distribution Transformers Energy Conservation Standards DOE 10 CFR Part 431; (before DOE referred to as TP1) and/or CSA C802.2 as referenced in the Canadian Energy Efficiency Regu ...
Datasheet - Mouser Electronics
... 4. Full Secondary Load: 0.13 Amps RMS 5. Voltage Regulation: 20 % TYP @ full load to no load ...
... 4. Full Secondary Load: 0.13 Amps RMS 5. Voltage Regulation: 20 % TYP @ full load to no load ...
Test #3 – Electromagnetism
... oppose the change b) the right hand rule for a solenoid indicates where the north pole can be found c) the right hand rules are used for conventional current and the left hand rules for electron flow d) never touch a lens with your fingers ...
... oppose the change b) the right hand rule for a solenoid indicates where the north pole can be found c) the right hand rules are used for conventional current and the left hand rules for electron flow d) never touch a lens with your fingers ...
Course Objectives
... practical design problems. The course presents concepts, fundamental analysis tools, practical considerations for design, and a range of power electronics applications. The letter codes refer to the Department-wide program outcomes list. ...
... practical design problems. The course presents concepts, fundamental analysis tools, practical considerations for design, and a range of power electronics applications. The letter codes refer to the Department-wide program outcomes list. ...
How to Build Solid-State Electrical Over-Unity Devices
... the slope of LC. For example, if LC is "engineered" to be positive, then the power is positive, however, if LC is "engineered" to be negative, then the power is negative. So, integrating PSYS with respect to time is the total energy, ESYS or, ESYS = ...
... the slope of LC. For example, if LC is "engineered" to be positive, then the power is positive, however, if LC is "engineered" to be negative, then the power is negative. So, integrating PSYS with respect to time is the total energy, ESYS or, ESYS = ...
FERROMAGNETIC COILS FOR WIRELESS POWER TRANSFER
... The developed equation (5) shows that to achieve maximum power transfer under resonance frequency the designer has to increase inductance of the coil L, but keep minimal number of turns N, at the same time decrease capacitance C. The most usual solution for such systems is ferromagnetic core use in ...
... The developed equation (5) shows that to achieve maximum power transfer under resonance frequency the designer has to increase inductance of the coil L, but keep minimal number of turns N, at the same time decrease capacitance C. The most usual solution for such systems is ferromagnetic core use in ...
Resonant inductive coupling
Resonant inductive coupling or electrodynamic induction is the near field wireless transmission of electrical energy between two magnetically coupled coils that are part of resonant circuits tuned to resonate at the same frequency. This process occurs in a resonant transformer, an electrical component which consists of two high Q coils wound on the same core with capacitors connected across the windings to make two coupled LC circuits. Resonant transformers are widely used in radio circuits as bandpass filters, and in switching power supplies. Resonant inductive coupling is also being used in wireless power systems. Here the two LC circuits are in different devices; a transmitter coil in one device transmits electric power across an intervening space to a resonant receiver coil in another device. This technology is being developed for powering and charging portable devices such as cellphones and tablet computers at a distance, without being tethered to an outlet.Resonant transfer works by making a coil ring with an oscillating current. This generates an oscillating magnetic field. Because the coil is highly resonant, any energy placed in the coil dies away relatively slowly over very many cycles; but if a second coil is brought near it, the coil can pick up most of the energy before it is lost, even if it is some distance away. The fields used are predominately non-radiative, near fields (sometimes called evanescent waves), as all hardware is kept well within the 1/4 wavelength distance they radiate little energy from the transmitter to infinity.One of the applications of the resonant transformer is for the CCFL inverter. Another application of the resonant transformer is to couple between stages of a superheterodyne receiver, where the selectivity of the receiver is provided by tuned transformers in the intermediate-frequency amplifiers. The Tesla coil is a resonant transformer circuit used to generate very high voltages, and is able to provide much higher current than high voltage electrostatic machines such as the Van de Graaff generator. Resonant energy transfer is the operating principle behind proposed short range (up to 2 metre) wireless electricity systems such as WiTricity or Rezence and systems that have already been deployed, such as Qi power transfer, passive RFID tags and contactless smart cards.