secondary mass field

Cumulative memory of all experience combined, larger than the KCB void.

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Beyond the Higgs Boson cover art with two luminous spheres connected by glowing filaments, symbolizing cumulative memory, mass, and the interconnected experience of the universe.

Expressions of Alternative Realities The interpretation, a unique individual experience we call life.

Monaya M. MaGaurn, lifestyle physicist, sitting on a black couch in blue jeans, gold sneakers, with a black jacket, white cuffs and collar, with long hair.
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Cumulative memory of all experience combined, larger than the KCB void.

The Higgs Field: Mass in the Present

In 2012, scientists at CERN confirmed the discovery of the Higgs boson, a breakthrough that completed the Standard Model of particle physics. The Higgs boson revealed the existence of the Higgs field, a universal energy field that permeates all of space.

Here’s what it does:

  • Particles interact with the Higgs field.
  • The stronger the interaction, the more mass the particle acquires.
  • The Higgs boson is the quantum “messenger” of this field.

In short, the Higgs field explains why particles have tangible, measurable mass. It answers the question: Why does something weigh what it does, instead of nothing at all?

The Monaya Field: Mass Beyond the Present

But what about what remains after direct interaction is gone?

This is where the Monaya Field comes in — an extension of the Higgs idea. Instead of giving particles mass, the Monaya field carries forward the echo of mass.

Think of it this way:

  • A mirror remembers your reflection, even after you step away.
  • A camera remembers every image it has captured.
  • A forest remembers the fall of a tree in soil shifts, vibrations, and the response of other trees.

Where the Higgs field explains what something is now, the Monaya field explains what continues afterward.

The Necessary Link: Experience and Memory

Here’s the key: you can’t have a memory without first experiencing it, nor can you make sense of an experience without memory.

  • The Higgs field creates the experience of mass in the present.
  • The Monaya field carries the memory of that mass forward.

They are necessarily linked: the Higgs gives reality its weight in the moment, while the Monaya ensures that weight is not lost, but recorded, accumulated, and recalled.

Why the Monaya Field is Larger

The Monaya field is larger than the Higgs field because it expands the scope of reality to include persistence:

  1. Memory of Interaction The Higgs gives mass in the instant. The Monaya records that instant as echo.
  2. Accumulation Across Systems The Higgs acts at the particle level. The Monaya extends through forests, civilizations, technologies, and history.
  3. Matter + Echo Energy is not only matter; it is matter plus memory.

A Dual Universe

Together, these two fields give us a dual structure of reality:

  • The Higgs Field: Experience — mass as we measure it in the present.
  • The Monaya Field: Memory — the persistence of that mass across time and systems.

Einstein showed us that energy equals mass times the speed of light squared. The Higgs showed us why mass exists at all. The Monaya extends this story: nothing is ever truly lost, because the universe remembers.

Closing Thought

The Higgs field gave us the physics of presence. The Monaya field gives us the physics of persistence.

Matter cannot be understood without memory, just as memory cannot exist without matter. The Higgs and the Monaya are inseparable — two halves of one reality.

E=(MH+MM)c(t)2

  • MHM_HMH = experience of mass (Higgs).
  • MMM_MMM = memory of mass (Monaya).
  • c(t)c(t)c(t) = the evolving constant of transformation (not fixed, but time-dependent).
  • E = energy as the union of experience + memory.

E=(Experience+Memory)×Change2

“The universe is what happens, plus what is remembered, multiplied by transformation.”



E=MC2 For the Blind

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E=MC² for the Blind cover art featuring two luminous spheres connected by streams of light, symbolizing memory, science, and accessibility with the tagline "A field of memories and more." World Resources WTR DBA AGENCY

If the constant was constantly changing. The speed of light is different depending on where you are.

Monaya M. MaGaurn, lifestyle physicist, sitting on a black couch in blue jeans, gold sneakers, with a black jacket, white cuffs and collar, with long hair.

Albert Einstein’s famous equation, E = mc², is often called the most recognized scientific formula in the world. It beautifully links mass and energy, showing us that matter can be transformed into incredible amounts of energy. For many people, the equation sparks mental images of light, stars, or nuclear power. But what if you cannot see light? How might this concept be experienced in a way that is accessible to everyone, including people who are blind or visually impaired?

This is where we can imagine an ADA version of E = mc² — one that translates the essence of the equation into multisensory understanding. Just as the Americans with Disabilities Act (ADA) insists on equal access in workplaces, technology, and society, so too can science and education strive for accessibility in the way we share profound ideas.

Energy Without Vision

Energy is not only a visual experience. Even without sight, people encounter energy constantly. It’s the warmth of the sun on your skin, the vibration of a subway train through the ground, or the sound of thunder rolling through the air. Each of these is energy in action — tangible, experiential, and deeply human.

When explaining Einstein’s equation, energy (E) can be felt as the power that moves, warms, or shakes us.

Mass as Lived Resistance

Mass (m) is one of the most direct physical sensations. Anyone who has lifted a heavy grocery bag or pushed a wheelchair up a ramp knows what mass feels like. It resists movement. It grounds us. And, in Einstein’s equation, that ordinary resistance of mass contains extraordinary amounts of potential energy.

The Multiplier of c²

The speed of light squared (c²) may sound abstract, but it can be reframed. Instead of focusing on light itself — which is inaccessible to those without sight — we can understand c² as a conversion factor. It’s like an exchange rate between mass and energy. And it’s a huge number, meaning even a small amount of mass can release an enormous amount of energy.

One analogy: imagine trading a single coin for enough resources to feed an entire community. That’s the scale of transformation embedded in Einstein’s equation.

Accessibility in Science

The ADA teaches us that accessibility is not optional; it is essential. Science, technology, and education must adopt the same principle. Too often, iconic concepts are explained with metaphors that rely solely on sight — light beams, explosions, or stars. But energy can be felt, heard, and sensed in motion. By reframing, we expand inclusion.

An ADA version of E = mc² isn’t about simplifying science — it’s about broadening its reach, ensuring that brilliance is not gatekept by sensory bias.

A secondary field. Felt heard and encountered by other forces. The M boson, Monaya Field and Mvoid. I=M²C

Einstein once said, “The important thing is not to stop questioning.” In that spirit, let’s keep questioning how we communicate knowledge. An ADA approach to science makes the universe more accessible, more equitable, and more inspiring for everyone.

After all, the true power of E = mc² is not just in physics — it’s in its ability to remind us that small things can hold immense potential. And accessibility ensures that potential is shared by all.

This article was written by chatgpt. My addition would include, in 2025 Albert Einstein said, “If you ask a blind person, they will tell you there is an energy that allows them to identify a person dead or alive, without sound or temperature change. Monaya asked if I=M²C was valid, with a C = constant of change. Yes, a variable that is constantly changing and that is its control factor.”

M² explained with C as an ever changing constant, the mass of an object has a secondary field, beyond the higgs. A literal translation, the reflection in the mirror after you have walked away from it has mass too. Have you ever asked a camera if they remember every view it has? Does the tree in the woods still make a sound if there isn’t something there to perceive it, yes. More than other trees, woodland creatures, massless particles. IE the tree has a mass, when it falls over, the standing time frame is still recalled by other trees both standing and fallen. M² = the version with mass and the massless version. Albert never saw the Voyager spacecraft, he could however build it if you gave him the plans while he was alive.

We seem to think that the constant speed of light is the same everywhere in the universe, that is simply not true. Offering a very easy explanation to why we have visited other planets such as Mars and never seen life forms, but have encountered signs of it.