diy Physics Blog

  • Book
    • Book Contents
    • Adopt the Textbook
    • Back Cover
    • Instructor’s Guide
    • Software
    • Book Errata
  • About Us
  • Contact Us
  • Terms of Use
  • Privacy Policy

Adding Your Own Primary to High-Voltage Flyback Transformer for Resonant Driving

Posted on February 10, 2012 by David Prutchi Posted in Chapter 3 - Atoms and Radioactvity, High-Voltage Power Supply 3 Comments

High voltage flyback transformer by David and Shanni Prutchi www.diyphysics.com

Our two prior posts show how to build very high voltage power supplies using flybacks from old color TVs.  The advantage of the method we use is that any flyback can be driven, regardless of how its primary is wired.  This is because we wind our own primary using litz wire.

The term litz wire is derived from the German word litzendraht meaning woven wire. This wire is constructed of individual film-insulated wires bunched or braided together in a uniform pattern. The multistrand configuration minimizes the power losses otherwise encountered in a solid conductor due to the skin effect or tendency of radio-frequency current to be concentrated at the surface of a conductor. A good supplier of litz wire is WireTronic. You can download a free Windows utility from their Web site that will give you dimensional data for a wide range of wire sizes, insulation specifications, current-handling capacities, resistance calculation, break strength calculation, and ordering information.

If you can’t find a flyback from an old TV, you may want to consider new units sold by Information Unlimited.  Our favorite is their FLYPVM+ model that produces up to 40 KV peak at 10 mA.  It features a large ferrite core measuring 3 ¾ x 3 ½ x 5/8”  and has an operating frequency range of 15 kHz to 60 kHz.

 

 

Please visit www.prutchi.com and www.diyPhysics.com for other cutting-edge d.i.y. projects, and remember to check out our new d.i.y. Quantum Physics book:

« Universal Resonant Transformer Driver (High-Voltage Flyback Driver)
d.i.y. Quantum Dot Synthesis »

Comments are closed.

Buy our book at Amazon.com

Navigate diyphysics.com

  • Book
    • Book Contents
    • Adopt the Textbook
    • Back Cover
    • Instructor’s Guide
    • Software
    • Book Errata
  • About Us
  • Contact Us
  • Terms of Use
  • Privacy Policy

Categories

  • Administrative
  • Book Chapters
    • Chapter 1 – Light as a Wave
    • Chapter 2 – Light as Particles
    • Chapter 3 – Atoms and Radioactvity
    • Chapter 4 – The Priciple of Quantum Physics
    • Chapter 5 – Wave-Particle Duality
    • Chapter 6 – The Uncertainty Principle
    • Chapter 7 – Schrödinger's Wave Equation
    • Chapter 8 – Entanglement
  • Experiments
    • Attenuation of Radiation
    • Bell's Inequality Test
    • Compton Scattering
    • Doppler Effect
    • e/m Measurement
    • Emission Spectrometry
    • Entanglement
    • Glow Discharge
    • Ionizing Radiation Detection
    • Maltese Cross CRT
    • Plasma Physics
    • QKD
    • Quantum Dots
    • Quantum Random Number Generation
    • Quantum Tunneling
    • Radio-Isotope Identification
    • Relativistic Time Dilation
    • Rutherford Alpha-Particle Scattering
    • Single-Electron Experiments
    • Single-Photon Experiments
    • Single-Slit Diffraction
    • Two-Slit Interference
    • β-Particle Magnetic Deflection
  • Instrumentation
    • CDV700 Pro Geiger-Müller Counter
    • Electron-Beam Tube
    • Entangled-Photon Source
    • Gunnplexer Transceiver
    • High-Voltage Power Supply
    • Lasers
    • Mach-Zehnder Interferometer
    • Magneto-Optical Trap
    • Marx Generators
    • MCA/PHA
    • Photomultipliers
    • Photon/Coincidence Counter
    • PMT/Scintillation Processor
    • Polarimetric Imaging
    • Polymeric Radiation Detector
    • Precision Clocks and Timers
      • Atomic Clock
      • GPS-Disciplined
    • Radioisotopes
    • Scintillation Detector
    • Single-Photon Counting Modules (SPCMs)
    • Single-Photon Imaging
    • Spectrometer
    • Thermal Camera
    • Ultraviolet Illuminators
    • Vacuum System
  • Medium Wave Infrared Imaging
  • Nuclear Magnetic Resonance NMR
  • Physics Humor
  • Theoretical Physics
  • Ultraviolet Imaging
  • Uncategorized

Educational Resources

  • ALPhA Advanced Laboratory Physics Association
  • American Journal of Physics
  • Circuit Cellar
  • Dr. Enrique Galvez' Correlated-Photon Experiments Guide
  • Dr. Mark Beck's Undergraduate QM Experiments
  • The Bell Jar

Blogroll

  • Dorith Prutchi's Professional Website
  • More of our projects at prutchi.com
  • My Blog on Implantable Devices
  • My Infrared-to-UV Photography Site

Pages

  • Book
    • Book Contents
    • Adopt the Textbook
    • Back Cover
    • Instructor’s Guide
    • Software
    • Book Errata
  • About Us
  • Contact Us
  • Terms of Use
  • Privacy Policy

Archives

  • November 2023
  • September 2023
  • May 2021
  • March 2021
  • July 2019
  • November 2018
  • October 2018
  • April 2018
  • March 2018
  • November 2016
  • October 2016
  • September 2016
  • July 2016
  • March 2016
  • December 2015
  • November 2015
  • October 2015
  • September 2015
  • August 2015
  • July 2015
  • February 2014
  • December 2013
  • July 2013
  • May 2013
  • April 2013
  • March 2013
  • February 2013
  • January 2013
  • December 2012
  • October 2012
  • September 2012
  • August 2012
  • June 2012
  • May 2012
  • April 2012
  • March 2012
  • February 2012
  • January 2012
  • December 2011

Categories

  • Administrative (9)
  • Book Chapters (61)
    • Chapter 1 – Light as a Wave (2)
    • Chapter 2 – Light as Particles (10)
    • Chapter 3 – Atoms and Radioactvity (27)
    • Chapter 4 – The Priciple of Quantum Physics (3)
    • Chapter 5 – Wave-Particle Duality (13)
    • Chapter 6 – The Uncertainty Principle (2)
    • Chapter 7 – Schrödinger's Wave Equation (7)
    • Chapter 8 – Entanglement (18)
  • Experiments (57)
    • Attenuation of Radiation (2)
    • Bell's Inequality Test (8)
    • Compton Scattering (8)
    • Doppler Effect (2)
    • e/m Measurement (3)
    • Emission Spectrometry (2)
    • Entanglement (12)
    • Glow Discharge (1)
    • Ionizing Radiation Detection (18)
    • Maltese Cross CRT (1)
    • Plasma Physics (1)
    • QKD (3)
    • Quantum Dots (1)
    • Quantum Random Number Generation (3)
    • Quantum Tunneling (2)
    • Radio-Isotope Identification (7)
    • Relativistic Time Dilation (1)
    • Rutherford Alpha-Particle Scattering (1)
    • Single-Electron Experiments (1)
    • Single-Photon Experiments (22)
    • Single-Slit Diffraction (1)
    • Two-Slit Interference (4)
    • β-Particle Magnetic Deflection (2)
  • Instrumentation (79)
    • CDV700 Pro Geiger-Müller Counter (7)
    • Electron-Beam Tube (4)
    • Entangled-Photon Source (6)
    • Gunnplexer Transceiver (2)
    • High-Voltage Power Supply (10)
    • Lasers (3)
    • Mach-Zehnder Interferometer (1)
    • Magneto-Optical Trap (1)
    • Marx Generators (3)
    • MCA/PHA (10)
    • Photomultipliers (15)
    • Photon/Coincidence Counter (4)
    • PMT/Scintillation Processor (9)
    • Polarimetric Imaging (4)
    • Polymeric Radiation Detector (1)
    • Precision Clocks and Timers (3)
      • Atomic Clock (2)
      • GPS-Disciplined (1)
    • Radioisotopes (1)
    • Scintillation Detector (14)
    • Single-Photon Counting Modules (SPCMs) (12)
    • Single-Photon Imaging (3)
    • Spectrometer (1)
    • Thermal Camera (1)
    • Ultraviolet Illuminators (3)
    • Vacuum System (2)
  • Medium Wave Infrared Imaging (1)
  • Nuclear Magnetic Resonance NMR (3)
  • Physics Humor (9)
  • Theoretical Physics (1)
  • Ultraviolet Imaging (1)
  • Uncategorized (28)

WordPress

  • Log in
  • WordPress
© diy Physics Blog