Tesla's Experiment Troubleshooting

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The first is the electrostatic fluxmeter or electric field mill. This is an electro-mechanical device which measures the strength of a static electric field based on electrostatic induction. A grounded and segmented top plate rotates so as to cover and uncover a fixed , similarly segmented field-detecting plate beneath it. A quasi–static electric field is transformed into AC signals by means of periodic screening/unscreening of the sensor-based electrodes during rotation of thegrounded plate.In summary, the conversation discusses a person's amateur version of Tesla's experiment using potential difference between the positively charged sky and negatively charged earth. The person explains their setup, but is not seeing the expected results. They seek advice on how to increase the
  • #1
sodaboy7
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I am doing a very amateur version of Tesla's experiment of using potential difference between positively charged sky ( due to solar wind) and negatively charged earth. I took a piece of cardboard. Stapled aluminum foil to it to use as antenna. Stapled stripped end of wire to this foil and hung it over about 10 feet. Then I took another smaller piece of cardboard and buried it in wet ground. I attached one stripped end of another wire to it. Now I connected a capacitor between stripped end of wire from ground and antenna. As per theory, the capacitor should charge and develope some voltage. But this is not happening. Can anyone tell me where I am going wrong?
 
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  • #2
I think the charge developed will be very less and would require an accurate measuring instrument.
 
  • #3
How can I increase charge?
 
  • #4
Lookout for a rainy and humid day.This will help the potential of the sky and clouds to be conveyed closer to the surface of our Earth but be careful as there is a chance of lightning so don't touch any exposed wiring of your apparatus.
 
  • #5
sodaboy7 said:
I am doing a very amateur version of Tesla's experiment of using potential difference between positively charged sky ( due to solar wind) and negatively charged earth. I took a piece of cardboard. Stapled aluminum foil to it to use as antenna. Stapled stripped end of wire to this foil and hung it over about 10 feet. Then I took another smaller piece of cardboard and buried it in wet ground. I attached one stripped end of another wire to it. Now I connected a capacitor between stripped end of wire from ground and antenna. As per theory, the capacitor should charge and develope some voltage. But this is not happening. Can anyone tell me where I am going wrong?

sodaboy, It would be useful if you gave some reference for others to examine Tesla's experiment that you refer to.

The solar wind may or may not be responsible for the charged atmosphere. As far as I can determine, there is no generally accepted of how this charge is originally formed. Thunderstorms are possible rechargers of the potential difference. Will you please give some reference please for this statement?

Your experiment to charge a capacitor connected between ground and a higher altitude will not give you the measurement you seek. From the first Wiki page below: “To detect the presence of free electricity in the air a pointed metal rod projecting into the air several feet and connected at its lower end to a gold leaf electroscope may be used. When this rod is projected into the air a few feet the leaves diverge. Kites and balloons have also been used to detect and, so to speak, draw down the free electricity of the air.”

A good place to begin your search is at these two Wiki pages. They give you the terminology, the units, their definitions, and provide a foundation of the basic physics on which you can build from.

From the first Wiki reference:
“Atmospheric electricity is the regular diurnal variation of the Earth's atmospheric electromagnetic network or, more broadly, any planet's electrical system in its layer of gases. The normal movement of electric charges among the Earth's surface, the various layers of the atmosphere, and especially the ionosphere, taken together, are known as the global atmospheric electrical circuit.

There is a potential gradient at ground level ("Atmosphere ground layer") and this vertical field[44] corresponds to the negative charge in and near the Earth's surface. The negative potential gradient falls rapidly as altitude increases from the ground. Most of this potential gradient is in the first few kilometers. The positive potential gradient rises rapidly as altitude increases from the ground.” There is a huge wealth of information on this Wikipedia page towards the bottom. See “See Also”, “References and external articles”, “Journals”, “Other readings”, “Websites”, “Further reading”, and “External links”.
See: http://en.wikipedia.org/wiki/Atmospheric_electricity

From the second Wiki reference:
“In electromagnetism, electric flux is the rate of flow of the electric field through a given area. Electric flux is proportional to the number of electric field lines going through a virtual surface.”
See: (Edit) http://en.wikipedia.org/wiki/Electric_fluxThe Earth's atmosphere fine-weather electric field is about 100 Volts/meter. The Earth has a negative charge with reference to the atmosphere, which has a positive space charge. In fine weather (no storms) the voltage difference between the surface of the Earth and the electrosphere at approximately 50 kilometers altitude is approximately 300,000 Volts.

There several types of sensors that have been developed to measure these fields. The first is the electrostatic fluxmeter or electric field mill. This is an electro-mechanical device which measures the strength of a static electric field based on electrostatic induction. A grounded and segmented top plate rotates so as to cover and uncover a fixed , similarly segmented field-detecting plate beneath it. A quasi–static electric field is transformed into AC signals by means of periodic screening/unscreening of the sensor-based electrodes during rotation of the
grounded plate.
See: http://dsp-book.narod.ru/MISH/CH47.PDF
And: http://a-tech.net/ElectricFieldMill/

Other types of sensors are the Wilson plate, the horizontal long-wire antenna, the passive pair-hemisphere antenna of Burke-Few type. The charge induced on these antennas is sensed by an electronic circuit, often using a capacitor to ground or an integrator is used to integrate the current flowing to the antenna plate.
See: H. Tammet, S. Israelson, E. Knudsen, T.J. Tuomi, “Effective area of a horizontal long-wire antenna collecting the atmospherc electric vertical current”, J. Geophys. Res., vol. 101, D23, pp. 29671-29677, 1996.
See: http://onlinelibrary.wiley.com/doi/...sCustomisedMessage=&userIsAuthenticated=false
 
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  • #6
Bobby, your link to electric flux doesn't work. I don't think it's supposed to be "electric fluxy". :tongue:
 
  • #7

What is Tesla's Experiment Troubleshooting?

Tesla's Experiment Troubleshooting refers to the process of identifying and resolving issues or problems that may arise during the course of conducting an experiment based on the principles and inventions of Nikola Tesla.

Why is Tesla's Experiment Troubleshooting important?

Tesla's Experiment Troubleshooting is important because it ensures the accuracy and reliability of experimental results. By identifying and resolving any issues, scientists can ensure that their experiments are conducted correctly and their results are valid.

What are some common issues that may arise during Tesla's experiments?

Some common issues that may arise during Tesla's experiments include electrical malfunctions, equipment failures, and interference from outside sources. These can all affect the accuracy and success of the experiment.

How can scientists troubleshoot issues during Tesla's experiments?

Scientists can troubleshoot issues during Tesla's experiments by carefully examining the equipment and environment, conducting tests and measurements, and making adjustments to the experimental setup as needed. They may also consult with other experts in the field for advice and guidance.

What are some tips for effectively troubleshooting Tesla's experiments?

Some tips for effectively troubleshooting Tesla's experiments include having a thorough understanding of Tesla's principles and inventions, being organized and systematic in the troubleshooting process, and keeping detailed records of all steps and findings. It is also important to approach troubleshooting with patience and persistence.

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