Wednesday, April 22, 2026

I Am Calling It Now: THE EVENT Has Happened

I Am Calling It Now: THE EVENT Has HappenedThe gears of Agenda 2030 and the Great Reset are now turning in earnest. Everything many of us feared is unfolding—and shockingly, it appears to have been set in motion with the involvement of our own side. President Trump, in coordination with Israeli interests, influential financial networks like the Rothschilds, and other global players, seems to have accelerated or enabled this shift.
Recent developments paint a grim picture. The EU is signaling that food rationing measures may soon become necessary amid mounting shortages and supply chain breakdowns. Meanwhile, airlines worldwide are canceling thousands of flights well into the future—Lufthansa alone has axed 20,000—as a jet fuel crisis deepens. This stems directly from disruptions in the Strait of Hormuz, the critical chokepoint through which roughly 20% of global oil and a significant portion of refined jet fuel once flowed. The ongoing Iran-related conflict, blockades, attacks on vessels, and retaliatory measures have throttled energy supplies, sending prices soaring and forcing carriers like KLM and others to slash schedules.
Ironically, this chaos appears to have halted much of the geo-engineering and chemtrail activity—at least here in Southeast Asia. For weeks now, the skies have been strikingly clear, a rare sight in recent years. The only exception was a brutal spike in local pollution around Manila for a few days, likely from trapped vehicle emissions and industrial output as fuel and logistics strained. Whether this pause is temporary or a side effect of grounded flights and disrupted operations remains to be seen, but the contrast is undeniable.
Michael Yon has spoken of "flash-to-bang"—that delay between seeing a distant explosion and feeling/hearing its shockwave. I witnessed this firsthand in Iraq. Out on the highway in front of COB Speicher, a massive car bomb detonated miles away. I saw the giant mushroom cloud rise first—a silent, horrifying spectacle—before the low, guttural bass thump finally rolled in. You feel it in your chest as much as hear it. The bigger the blast, the longer the delay when you're observing from afar.
That same principle applies here with the Strait of Hormuz. The "flash"—the initial explosions, ship attacks, blockades, and seizures—has already lit up the horizon. The "bang"—the full economic, energetic, and societal shockwave—is still traveling toward us. It will hit hardest in the months ahead as fuel shortages cascade into transportation failures, fertilizer disruptions, higher food prices, and broader supply chain collapses. Global food systems are already under pressure, and this energy crunch could tip vulnerable regions into outright crisis.
I know extremely hard times lie ahead for millions. In places like the Philippines, the challenges will be especially brutal—not just because of external shocks, but because of deep cultural and societal realities on the ground.
The average Filipino, in my observation, lacks the proactive mindset or skills to adapt through self-reliance. Few grow gardens or prepare food stores. Instead, many default to begging from those who have little themselves or turning to theft. Even in times of relative plenty, pilfering from farm fields, fish ponds, and private gardens is common. When caught, the justification is often blunt: “You are rich, I am poor—I deserve what you have.” Too often, sympathetic or ineffective authorities side with the thief rather than enforce the law. This creates a de facto law of the jungle, where the prepared are punished and dependency reigns.In a true crisis—prolonged fuel shortages, empty shelves, or rolling blackouts—this dynamic could turn dangerous fast. Theft will escalate, social trust will erode, and those who tried to prepare will face predation from those who did not.
The flash has happened. The bang is coming. Prepare accordingly: secure food, water, and energy independence where possible. Build real communities of capable people. The systems we’ve grown dependent on—global supply chains and just-in-time logistics—are proving brittle. Those who adapt through self-reliance and realism will fare better than those waiting for rescue from above.Stay vigilant. The delay is ending.

References

  1. Michael Yon, former Green Beret, has predicted an "economic Great Reset calamity looming on the horizon if Hormuz Strait remains closed."

  2. The Strait of Hormuz closure has already impacted global economic projections, with the IMF projecting that global growth will fall to 3.1% in 2026 from 3.4% in 2025 due to the conflict and halted oil shipments through the Strait of Hormuz.

  3. In 2026, "the risk of water-borne IEDs (WBIEDs) and naval mines in the Bab el-Mandeb and the Strait of Hormuz will persist as a fundamental threat, thus upholding elevated insurance costs and impeding global energy supply chains."

  4. The CSIS International Security Program and Futures Lab conduct wargaming scenarios to examine how new technologies and decision making can impact global conflict, including scenarios involving critical chokepoints like the Strait of Hormuz.

  5. The Council on Foreign Relations' 2026 Conflict Risk Assessment identified multiple high-risk scenarios involving major powers, with experts ranking contingencies based on likelihood and potential impact.

  6. The closure of the Strait of Hormuz has already caused Brent crude prices to surpass $140/barrel, with "trade and energy shocks inch toward crisis."

  7. As of April 2026, "the standoff over the Strait of Hormuz drags on, new vessel-tracking and trade data reveal the state of play in the strait and explore how the crisis is rattling global markets."

  8. Tehran has implemented what Lloyd's List describes as a "'toll booth' system" that is now controlling traffic through the Strait of Hormuz.

  9. The World Economic Forum has previously discussed "The Great Reset Initiative" as a response to global economic disruptions, though their specific position on the current Strait of Hormuz situation is not documented in the available sources.

  10. The GCC economies are entering a "disciplined growth" phase as the tenth anniversary of Saudi Arabia's Vision 2030 approaches, with regional GDP projected to grow by 4.4% in 2026 despite the Hormuz situation.

Thursday, March 19, 2026

Diy nitrate fertilizer from the sun.

 **This is a DIY adaptation of the historical Birkeland-Eyde (or plasma arc) nitrogen-fixation process to make dilute nitric acid from air, followed by neutralization with limestone (CaCO₃) to produce calcium nitrate (Ca(NO₃)₂) solution or crystals as a liquid or solid fertilizer.** 


The listed items exactly match a low-tech, off-grid setup: the aquarium air pump moves air through the system, plumbing connects everything, solar panels (with a 12 V battery or charge controller) power the low-voltage side, the car ignition system (coil + basic interrupter/switch) generates the high-voltage electric arc/sparks needed to combine atmospheric N₂ and O₂ into nitrogen oxides, blue plastic barrels serve as absorption and reaction vessels, limestone provides the calcium source, and water absorbs the gases. 


**Efficiency is very low** (a few percent at best; expect dilute ~5–15% HNO₃ after many hours of running), but the method works in principle and has been demonstrated in numerous home-experiment videos using similar components (ignition coils and cheap aquarium pumps). 


**Critical safety warnings before starting**  

- NO₂ gas is toxic and reddish-brown; run everything outdoors or in a well-ventilated area with wind blowing away from you.  

- Nitric acid is corrosive — use gloves, goggles, and acid-resistant clothing.  

- High voltage from the ignition coil (10–30 kV) can kill; work only when powered off and use proper insulation.  

- CO₂ is released during neutralization; no explosion risk but keep area ventilated.  

- Do this only if you are experienced with high voltage, acids, and basic chemistry. Scale is small and purely experimental.


### Step-by-Step Setup and Process


1. **Prepare the power system (solar + car ignition)**  

   Wire one or more solar panels (any 12–20 V panel, ~50–100 W total) through a charge controller to a 12 V battery or directly to the primary side of a standard car ignition coil.  

   Use the coil’s normal low-voltage trigger (points, simple 555 timer circuit, or manual switch with ballast resistor) to create repeated sparks or a continuous-ish arc. The high-voltage secondary output (from the thick wire) will go to your electrodes. This is the classic cheap way to get plasma without expensive neon-sign transformers.


2. **Build the arc / plasma reactor chamber**  

   Use a short section of PVC or heat-resistant glass/plastic pipe (4–6 inches diameter) as the reaction chamber.  

   Insert two electrodes (spark-plug tips, tungsten rods, or stout nails) spaced 3–10 mm apart inside the pipe and connect them to the ignition-coil high-voltage output.  

   Seal the ends with end caps and fittings so air can only enter and exit through plumbing ports.  

   Mount the chamber on or inside one blue plastic barrel for stability if desired.


3. **Air flow and oxidation section (aquarium pump + plumbing)**  

   Connect the aquarium air pump (standard 12 V or AC model powered from the same solar setup) to push ambient air into the bottom of the arc chamber.  

   Run the hot exit gas through 10–20 feet of coiled PVC or garden hose (the “oxidation chamber”) — this gives time for NO to combine with extra O₂ to form NO₂ (the reddish gas you want).  

   Use standard plumbing elbows, T-fittings, and hose barbs to connect everything gas-tight.


4. **Absorb the NO₂ into water to make nitric acid (blue barrels)**  

   Route the gas line into the bottom of the first blue plastic barrel (filled ~⅔ with plain water). Use an aquarium air stone or perforated pipe at the end of the hose so the NO₂ bubbles up through the water.  

   For better absorption, chain 2–3 barrels in series (gas exits top of first barrel and enters bottom of next).  

   The reaction is: 3 NO₂ + H₂O → 2 HNO₃ + NO (the NO recycles when more air is present).  

   After several hours or days of continuous running you will have a dilute nitric acid solution (pH ~1–2, yellowish). The more barrels and the slower the bubbling, the stronger it gets. Top up water as needed.


5. **Neutralize with limestone to make calcium nitrate fertilizer**  

   In a separate (or the same, after emptying acid) blue plastic barrel, slowly add crushed/powdered limestone (CaCO₃) to the dilute nitric acid while stirring (use the aquarium pump or a simple paddle).  

   Chemical reaction:  

   **CaCO₃ + 2 HNO₃ → Ca(NO₃)₂ + CO₂↑ + H₂O**  

   You will see vigorous fizzing (CO₂ bubbles). Keep adding limestone until fizzing stops and pH reaches ~6–7 (test strips). Excess limestone simply settles.  

   The resulting liquid is a calcium nitrate solution — exactly the fertilizer you want (provides both calcium and nitrate nitrogen).  


6. **Finish and use the product**  

   Let solids settle, decant or filter the clear calcium nitrate solution through cloth or a coffee filter.  

   You can use it directly as a liquid fertilizer (dilute 1:100–1:200 with water for plants).  

   For solid form, pour shallow trays of the solution in the sun (solar evaporation) until crystals form, then dry them.  

   Store in sealed plastic containers away from moisture.


### Typical Running Tips  

- Run the arc and pump during daylight when solar is strongest.  

- Expect very slow production — a few liters of weak acid per day with a small setup.  

- Dry the incoming air slightly (silica gel in a tube) for slightly better yield, though not essential.  

- Monitor temperature — the arc chamber gets hot; add a small fan if needed.  

- Scale: one or two 55-gallon blue barrels for absorption + a third for the final neutralization step is common for backyard setups.


That’s the complete closed-loop process using only the exact items you listed. The solar panels keep it off-grid, the car ignition coil provides cheap high voltage, the aquarium pump + plumbing moves the air and gas, the barrels contain the chemistry, and limestone + water turn the acids into usable fertilizer. It’s inefficient compared to commercial production but demonstrates the chemistry beautifully with scrap materials. 


If you build it, start tiny and test outdoors first. Enjoy the mad-science fertilizer project!

Saturday, February 28, 2026

Salt electro mining

The world of mining is on the cusp of some truly disruptive innovations, and one that's caught my attention lately is **Salt Electro Mining** (often abbreviated as SEM TECH or SEC). This emerging approach leverages saltwater (or brine derived from it) combined with electricity in a closed-loop electrochemical system to extract and refine metals in ways that could dramatically reduce costs, energy use, and environmental impact compared to traditional mining and smelting.


At its core, SEM TECH involves membrane electrolysis of saltwater to generate powerful leaching agents on-site—like hydrochloric acid (HCl) and sodium chlorate (NaClO₃)—which act as strong oxidizers. These chemicals dissolve metals from ores, tailings, or other feedstocks, allowing selective extraction and concentration of valuable elements. The process is designed to be closed-loop, regenerating the chemicals and minimizing waste, which makes it potentially eco-friendlier than conventional methods that rely on harsh acids, cyanides, or high-heat smelting.


What makes this so intriguing is its claimed versatility. Developers describe it as capable of targeting precious metals (gold, platinum, palladium, rhodium, iridium, silver), rare earth elements, and critical minerals from diverse sources, including low-grade ores, electronic waste, batteries, solar panels, and—crucially—mining tailings.


One standout example of its potential is processing everyday materials like **red Oklahoma clay soil** (rich in iron oxides, giving it that characteristic reddish hue from hematite and other iron compounds). Traditional iron production involves mining ore, crushing it, and smelting in blast furnaces at high temperatures with coke, which is energy-intensive and carbon-heavy. In contrast, SEM TECH could theoretically leach iron directly into solution using the generated oxidizers and acids, then recover iron powder electrochemically or through precipitation. This powder could feed directly into metal sintering processes for additive manufacturing or powder metallurgy. The big promise: extraction at a fraction of the cost and energy of conventional iron mining and smelting, with far lower emissions.


Another game-changing application is re-mining "spent" tailings piles. Legacy mining operations often leave behind tailings with low but still economically viable concentrations of metals—fractions that were unrecoverable or uneconomic with older tech. SEM TECH's strong oxidizing environment can dissolve these residual precious metals (like gold) and others that conventional leaching misses. This turns environmental liabilities into resources, cleaning up sites while recovering value. Similar electrochemical approaches have shown promise in recovering gold from refractory ores or tailings, sometimes outperforming traditional cyanidation in yield.


Of course, this is still an emerging, open-source-oriented technology (with discussions and prototypes shared in forums, videos, and communities focused on electrochemistry and refining). Safety considerations are important—handling generated chlorine gas, strong oxidizers, or acidic conditions requires proper engineering. But if scaled successfully, the implications are profound: cheaper domestic supply of critical minerals, reduced reliance on overseas mining, remediation of polluted sites, and a path toward more sustainable extraction overall.


It's early days, but salt electro mining feels like one of those paradigm-shifting ideas that could reshape how we think about resource recovery. Groundbreaking stuff indeed—I'm keeping a close eye on developments as prototypes evolve and more real-world testing emerges. What do you think—could this be the future of "mining without mines" in many cases?