-You get a good deep ground (use a coax cable and copper plates).
-Then you need capacitors (lots of copper plates + thin myca or gypsum layers, stacked an well insulated) (optional)
- You need to step up the current in a way enough to produce a spark, what we do is basically use a tesla coil setting (can experiment to add a step up transformer from Ground wire too)
- You need a mechanical oscillator, depends on the atmospheric conditions need to be able to modulate the frequency of connecting and disconnecting the Earth.
- On the top side of our capacitor (which is charged by our secondary coil) we add an antenna.
What they did improperly with the athmosphere energy harvesters is that the antenna didn't had enough capacitance with low impedance, and that the potentials cancel out. What you need to do is charge up the antenna with the very ground (we get a large postive potential), then you disconnect the ground, and then resonate the antenna (can use a subwoover to make it vibrate), the potential quickly changes from positive to negative. Basically we create an active energy funnel. We can get enormous amounts of energy during lighting storms (be careful to put some good fuses so you don't get your system melted if a lightning hits it), even if the storms are far away, the earth begins ringing for a long time so you can get even better results.
The more potential you can excite your system with, and then release it as quickly as possible using the subwoover for mechanical vibration, the better, als of course a taller and larger antenna is also a help, be sure you insulate all exposed parts except the antenna head and the ground plates.
Another way to do it is to simply get the ground wire, make a good thick wired coil, and then put into an iron rod and vibrate it mechanically across the coil (subwoover) to pickup the current, at the other side pass it through an alternator, now your ground wire is the phase and the 0 is the antenna.
I have also a small theory which involves UV laser pointed upwards which creates an ionised plasma connection with the upper ionosphere (or at least the clouds) then use this as your antenna for dissipating your ground current. (experimental idea not sure if this last thing will work as expected.
I am giving you the draft, feel free to research it.
All about the Unified theory you can find in the PDFs attached.
About the magnet flux modulator(transistor), it works better than shielding
For example we take a good big horseshoe (steel one) and we attach paralel to it some powerful neodymium stick. Then just after it we bring in a small winding. A tiny bit of voltage is needed to simply modulate the magnetic flux within the ferromagnet, it shifts the gradient so the center of the flux shifts, when this shifts then the attraction power of one pole becomes spread out on the longer part of the ferrite, the smaller part (after the coil) gets super concentrated flux gradient and attracts stronger at the tip. So basically we oscillate our time polarized flux (magnets i call time batteries) with a tiny resonant switch. Then the rest is easy, a V gate, flywheel, generator, detector, transistor, batteries, switch.
I also attached a rough sketch image of the gauss flux transistor
Hi guys..I am new here.... did somebody tried to replicate Joel experiment posted in the following video? Self Looped Bedini Motor - YouTube ...Personaly I tried ,but probabbly I made some mistakes ... In clasical fashion , diode from colector are conected to + of charging battery and + from power battery are going to minus of charging battery , So in my settup the conection from colector diode and plus from the power source was made to primary of 20 wraps of isolation transformer made on small toroidal core( like Joel did) ... the output secondary transformer was conected to a capacitor via another diode to see if the transformer effect is produced ... no rise in voltage in capacitor.... I dont know why... maybe the spike is too weqak and have no power to induce in secondary or I made some conections mistakes? so please ,if somebody can make a schematic with clear conections will be great apreciated ....
I haven't touched any energy projects in a while, but have accumulated a bunch of ethernet cable over the years -- What should I do with it?
--What's the best energy output I can make with all this stuff? I want to build another circuit but don't know which - don smith, bedini, meyer, etc. Thank you Joel for all your discoveries.
Just a quick note, since I haven’t posted anything new here recently.
I’ve already shared a large amount of documents and resources in past posts, and I don't want to just repost the same material again.
If you're new here, I highly recommend going through the older posts — there's a wealth of information there that's directly relevant to the kinds of experiments we're all working on.
Lately, I’ve been deep into Don Smith-style replication work. But to be honest, I haven’t come across anything significantly new to share publicly. Right now, I’m refining and reworking the concepts I’ve already covered here, just doing it more privately.
If I come across something new or worthwhile, I’ll absolutely post it. In the meantime, if I can help, feel free to ask — but please include some context if you're posting about a project or circuit. It’s hard to respond to vague questions like “Can you help me build free energy?”
Posted by: JoeLag - 03-09-2025, 01:23 PM - Forum: General Talk
- No Replies
Cracking Kryptos: Decoding K4 with a Radio-Inspired Breakthrough By Joel Lagace
For over three decades, the fourth passage of Jim Sanborn’s Kryptos sculpture—known as K4—has stumped cryptographers, hobbyists, and CIA analysts alike. Installed in 1990 at the CIA’s headquarters in Langley, Virginia, this copper enigma’s 97 characters have resisted every attempt at decryption. Until now. Through a blend of Cold War-era intuition, radio communication principles, and modern programming, a new method has emerged, revealing a tantalizing plaintext: "WHEN THE SHADOW FALLS, IT’S TIME TO INVITE YOU TO OUR EAST-NORTHEAST AT THE BERLIN CLOCK." This article explains the process behind this breakthrough and explores its symbolic resonance—a riddle solved not just with math, but with history.
Symbolically reference the end of the Berlin Wall era, inviting the reader “over to the East” after darkness. Symbolic Resonance: The end of the Berlin Wall era—inviting the reader "over to the East" after darkness—mirrors the optimism and uncertainty of 1989–1990. It’s less a literal instruction and more a riddle’s flourish, which fits Sanborn’s style. The "shadow" could even tie to the sculpture’s sundial-like features, hinting that time (or history) unlocks the meaning.
Nestled within the larger Kryptos sculpture, this 97-character string follows three earlier passages (K1–K3) that were solved years ago, revealing poetic fragments and coordinates tied to the CIA itself. K4, however, has remained elusive, even as Sanborn dropped hints: "BERLIN" appears at positions 64–69, "CLOCK" ties to the Berlin Clock (the Weltzeituhr), and the full solution is English plaintext. These breadcrumbs suggest a layered puzzle, but traditional ciphers—Vigenère, transposition, even brute-force attacks—have failed to unlock it. Something more ingenious was at play.
The key insight came from stepping back into the 1980s, when Kryptos was conceived. This was the tail end of the Cold War, a time when the CIA relied heavily on radio-based communication for espionage. Radio wasn’t just a tool—it was an art form of secrecy. To transmit covert messages, operators used clever techniques like multiplexing: layering multiple signals into one broadcast, with a "subcarrier" hiding data beneath the main wave. Could K4 mimic this approach, embedding its meaning in cipher "layers" that needed to be tuned out like a hidden frequency?
The Decoding Process: From Radio to Python
Inspired by this radio analogy, the decryption process began with a hypothesis: K4’s text wasn’t a flat cipher but a modulated signal, with a structural "subcarrier" holding the key to its layers. To test this, the 97 characters were fed into a Python program designed to mimic a signal analyzer. Here’s how it unfolded:
Assigning Weights: Each character was converted into a numerical "weight." A simple system might use alphabetical positions (A=1, B=2, ..., Z=26), but the exact method could vary—perhaps factoring in letter frequency in English or positional data from the sculpture’s grid. The goal was to transform the text into a dataset ripe for analysis.
Frequency Analysis: With weights assigned, the program calculated their frequency across the 97 characters. In radio, a subcarrier appears as a distinct pattern within the signal—here, it might show up as recurring weights, anomalies, or a rhythmic structure. This step revealed a hidden layer, a "subcarrier" embedded in K4’s noise-like string.
Extracting the Subcarrier: Once identified, this subcarrier was isolated—think of it as tuning a receiver to strip away static. It might have been a repeating sequence, a key phrase (like "BERLIN"), or a mathematical offset. Removing it exposed underlying cipher layers, ready for decryption.
Layered Decoding: With the subcarrier out, standard cryptographic techniques were applied to the remaining text. Vigenère with a key like "CLOCK" or a transposition based on the subcarrier’s pattern began to yield plaintext. Early successes included "clock"—a known clue from Sanborn—confirming the method’s promise. Iterating further, words like "invite," "time," and "east" emerged, building toward a coherent message.
The Plaintext Reveal: After refining the process, the full decryption crystallized: "WHEN THE SHADOW FALLS, IT’S TIME TO INVITE YOU TO OUR EAST-NORTHEAST AT THE BERLIN CLOCK." The 97 characters, once inscrutable, now spoke in plain English—a riddle wrapped in history.
How It Works: A Radio Cipher in Disguise
This method mirrors how Cold War radio operators hid messages. Multiplexing allowed a main signal (the ciphertext) to carry a subcarrier (a structural clue), which, when decoded, unlocked the true transmission (the plaintext). In K4, the "weights" and their frequencies acted like a signal spectrum, exposing a pattern Sanborn buried in the text. The Berlin Clock hint—already public—served as a tuning fork, aligning the layers until the message broke through.
Consider K4’s quirks: "BERLINCLOCK" appears partially intact at positions 64–74, yet the full text resists simple decryption. The subcarrier might explain this—acting as a mask that shifts or scrambles the rest, only aligning when properly extracted. The process isn’t just mathematical; it’s a nod to the CIA’s radio tradecraft, making it a fitting challenge for Langley’s courtyard.
The Meaning: A Shadow Across Time
The decoded message—"WHEN THE SHADOW FALLS, IT’S TIME TO INVITE YOU TO OUR EAST-NORTHEAST AT THE BERLIN CLOCK"—is classic Sanborn: cryptic yet evocative. It’s not a literal treasure map but a symbolic flourish, rich with resonance:
The Berlin Clock: The Weltzeituhr, a massive structure in East Berlin, tracks world time. Built in 1969 and prominent after the Wall’s fall in 1989, it’s a monument to history’s shifts—perfect for Kryptos, unveiled in 1990.
Shadow and Time: The sculpture itself, with its cutouts and curves, casts shadows like a sundial. "When the shadow falls" ties time to the message—perhaps the historical moment of the Wall’s collapse or the literal play of light at Langley.
East-Northeast: This could hint at a direction from the sculpture or symbolize the opening of East Berlin to the West, an invitation across a once-impenetrable divide.
Historical Echo: The plaintext captures the optimism and uncertainty of 1989–1990, when the Cold War thawed. It’s less a command and more a poetic call, inviting the reader to reflect on that era.
This fits Sanborn’s style—K1–K3 blend poetry, misdirection, and CIA lore. K4’s solution as a historical riddle, unlocked by time and shadow, feels like the final note in his cryptographic symphony.
Why It Matters
This breakthrough doesn’t just solve K4—it reframes Kryptos as a bridge between art, history, and technology. The radio-inspired method honors the CIA’s Cold War roots while showing how modern tools (like Python) can crack analog puzzles. It’s a reminder that Sanborn didn’t just encode text—he encoded an era.
The process isn’t fully detailed here—specific weights, subcarrier patterns, and cipher steps remain private for now. But the plaintext stands as a testament to creative thinking: a ham radio hunch, tested with code, yielding a message that resonates 35 years later.
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