10 hours ago
(This post was last modified: 10 hours ago by ScalarPotential.)
This Russian experimenters latest build looks interesting.
YouTube's auto-dubbing has many mistakes and for some reason the original Russian transcript isn't available so an accurate translation can't be made without first processing the Russian audio with speech-to-text. Perhaps there's someone who's fluent in Russian on this forum who could translate the key details accurately.
https://www.youtube.com/watch?v=Ei8C4DdEuUo
Circuit diagram:
![[Image: kpVbCcCOWn6XZ7VL5TYptNjDbgX7sbXLzve4MQHE...0-rw-nd-v1]](https://yt3.ggpht.com/kpVbCcCOWn6XZ7VL5TYptNjDbgX7sbXLzve4MQHEi5jlkkXORxnULMTWHc_Nxsy3Lk-FzMxhpYINsQ=s640-rw-nd-v1)
Comment made by author on diagram post (translated to English):
YouTube's auto-dubbing has many mistakes and for some reason the original Russian transcript isn't available so an accurate translation can't be made without first processing the Russian audio with speech-to-text. Perhaps there's someone who's fluent in Russian on this forum who could translate the key details accurately.
https://www.youtube.com/watch?v=Ei8C4DdEuUo
Circuit diagram:
Comment made by author on diagram post (translated to English):
Quote:As you know, a quarter-wavelength works for external radiation, but a half-wavelength is a completely different matter. A standing wave is formed in the coil, which draws the external vortex into the receiving coil during avalanche formation, causing some amplification as it repeatedly reflects off the ground through the grounding. When the solar cell circuit is properly configured for standing waves, energy is released in a huge stream, and the primary response is precisely the control of the energy flow and its concentration. The most difficult task is to calculate the load on the receiving circuit to achieve a balance between collapse and maintaining generation, while simultaneously remembering that the avalanche process can proceed unpredictably, releasing and drawing in new portions of unsettled Ether.