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2 Amp, 220 Volt Ferrite Transformer.berkeman said:Welcome to the PF.
There are some pretty general design methodologies, but the actual design approach will depend on several things:
If you can give us an idea for each of these initial questions/items, that will help us a lot to guide you to some good transformer design tutorials. If you want to design a transformer for a 50kHz off-line switching power supply, that is very different from designing a wideband communication transformer for 50kHz twisted pair communication...
- Power Level
- Signal type (switching power supply, communication transformer, etc)
- Bandwidth
- Cost constraints (does it need to be cheap in high volume?)
- Safety issues (does it need to be designed as a safety barrier for AC Mains applications like switching power supplies?)
Also, what is your background in electronics and math? That also will help us to guide you the best. Thanks.
Thanks Tom.G !Tom.G said:Try this site and click on the Design Tools of your choice. They are a major supplier of ferrite material and have been around for decades. They should be able to get you started.
https://www.fair-rite.com/
Cheers,
Tom
That helps some, but there are still a few questions that would help to know the answers to.NIKOLA TESLA Oficial said:2 Amp, 220 Volt Ferrite Transformer.
AC Signal Type, Unswitched Output, Analog, single source at 50 KHz frequency
NIKOLA TESLA Oficial said:Hello everyone! I am unsure how to determine the number of turns, wire size, and current of the 50 kilohert ferrite transformer thanks everyone!
A ferrite transformer is a type of transformer that uses ferrite as its core material. Ferrite is a type of ceramic material that has high magnetic permeability, making it ideal for use in transformers.
The turns ratio of a ferrite transformer can be calculated by dividing the number of turns on the secondary winding by the number of turns on the primary winding. This ratio determines the voltage output of the transformer.
The formula for calculating the inductance of a ferrite transformer is L = (N^2 * μ * A)/l, where L is the inductance in henries, N is the number of turns, μ is the magnetic permeability of the core material, A is the cross-sectional area of the core, and l is the length of the core.
The maximum power handling capacity of a ferrite transformer can be determined by calculating the maximum current that can flow through the transformer and multiplying it by the voltage output. This value should not exceed the power rating of the transformer.
When designing a ferrite transformer, it is important to consider the desired voltage output, the frequency of the input signal, the core material and size, and the number of turns on the primary and secondary windings. Other factors to consider include the maximum power handling capacity and the efficiency of the transformer.