So How Does One Identify If A Material Is In An M State And Has These Properties

This is an outstanding and critically important question. If the M-State is a unique form of matter, how does one actually verify its presence? How do you distinguish it from a simple mineral salt or a chemical precipitate?

The answer is that it is extremely difficult and highly controversial. There is no simple, off-the-shelf "M-State detector." The methods used to identify it depend entirely on which paradigm you are operating in: the original researcher's protocol, the practical producer's methods, or the mainstream scientific approach.

Here is a breakdown of how each group attempts to answer the question.

1. The Foundational Method (The "Hudson Protocol")

This is the "gold standard" according to the original theory, based on the anomalous results David Hudson claimed to have observed with multi-million dollar equipment.

• Primary Tool: Arc Emission Spectroscopy.

  • The Process: A sample is placed between two carbon electrodes and vaporized in a high-temperature electric arc (3,000-5,000°C). The light emitted by the vaporized atoms is analyzed to identify the elements.
  • The "M-State Signature": The key anomaly is what Hudson called "fractional vaporization." The material would first read correctly (e.g., as rhodium, iridium). But after a few seconds in the intense heat, it would stop emitting any characteristic light. The spectrometer would read zero, as if the sample had vanished. Hudson's interpretation was that the material had entered a quantum state where it was energetically "invisible" to the spectrometer. This disappearing act is the #1 theoretical identifier.

• Secondary Tool: Thermogravimetric Analysis (TGA).

  • The Process: A sample is placed on a microbalance inside a furnace and its weight is measured precisely as it is heated and cooled.
  • The "M-State Signature": Hudson claimed the M-State material would exhibit bizarre weight fluctuations. When heated, its weight would dramatically increase. When heated further under specific conditions, it would flash, and its weight would drop to less than zero, before eventually returning to its starting weight upon cooling. This "anti-gravity" effect was considered definitive proof of a superconductive phenomenon.

The Problem: These methods are completely inaccessible to virtually everyone. They require pristine, isolated samples and lab equipment costing millions of dollars.

2. The Practical Method (The Alchemical & Observational Approach)

This is what most modern producers and DIY enthusiasts rely on. It combines a specific creation process with a set of observable physical and biological tests.

• Part A: The "Right Process" (Proof by Recipe).

  • The logic here is that if you start with the right ingredients and follow the time-tested alchemical "wet method," the resulting precipitate is, by definition, M-State material.
  • Key Steps:
    1. Start with a source rich in M-State precursors (e.g., Dead Sea salt, specific spring waters).
    2. Use a high-pH chemical, typically lye (NaOH), to raise the pH of the salt solution to exactly 10.78 and hold it there. This causes a fluffy white precipitate to drop out of the solution.
    3. Carefully "wash" this precipitate multiple times with clean water to remove the excess salts and caustic lye.
  • The identity is confirmed by the rigor and precision of the process.

• Part B: The "Right Properties" (Proof by Observation).

  • Visual/Physical Test: The final, dried product should be a very fine, lightweight, snow-white powder that often has a slightly "greasy" or "oily" feel.
  • The "Disappearing Spoon" Test: This is a classic, low-tech version of Hudson's spectroscopy test. A small amount of the white powder is placed on a clean stainless steel spoon and heated from below with a lighter. A true M-State material is said to disappear into a flash of white light, "fusing" with the spoon and leaving behind only a faint discoloration or "shadow," with no burnt residue. A simple mineral salt would just burn, melt, or char.
  • The Bio-Assay (The Plant Test): This is the most compelling practical test. A small amount of the material is given to a plant (either as a soil drench or foliar spray). If it is a genuine M-State material, it should produce anomalously rapid, vibrant, and healthy growth far beyond what a simple mineral fertilizer would cause. If the plants thrive in an extraordinary way, the material is considered verified.

3. The Mainstream Scientific Method (The Skeptical Challenge)

A mainstream analytical chemist would approach this completely differently. Their goal would be to identify the precise chemical composition of the powder using standard, validated techniques.

• Primary Tool: ICP-MS (Inductively Coupled Plasma Mass Spectrometry).

  • The Process: This is the modern gold standard for elemental analysis. It uses an incredibly hot plasma torch (10,000°C) to completely atomize and ionize any sample. It will detect every single element present, down to parts per billion.
  • The Expected Result: An ICP-MS test on a typical Ormus sample would likely reveal a mix of magnesium, calcium, sodium, potassium, and trace amounts of other elements. It would not show anything "disappearing." A scientist would conclude, "This is not a new state of matter; it is a mixture of magnesium hydroxide, calcium carbonate, and other common mineral compounds."

• Secondary Tool: X-Ray Diffraction (XRD).

  • The Process: This technique identifies the specific crystalline structure of a material.
  • The Expected Result: An XRD analysis would likely identify the structures of sodium chloride (salt), magnesium hydroxide, etc. It would not find a novel structure corresponding to a "superconductor."

The Clash of Paradigms: This is the fundamental impasse.

• The Ormus proponent claims that the high-energy mainstream tests are too brutal. They destroy the delicate M-State and simply read the "ashes"—the constituent elements in their normal, boring state.
• The mainstream scientist replies that if their most powerful and sensitive instruments cannot detect a special state of matter, then Occam's Razor suggests it simply isn't there.

Summary

Ultimately, how one identifies M-State material depends on their belief system. Is it an anomalous physical phenomenon only visible through its bizarre behavior, a predictable outcome of a specific alchemical process, or simply a misinterpretation of complex but conventional chemistry? There is no universally agreed-upon answer.