The bedrock — positions that, if wrong, would change everything downstream
What defines space?
Physics lists four fundamental forces. What if there are really two, and the others are derived?
Electric and magnetic. How do these two relate at every scale in the physical universe?
The electron-positron conundrum. If they are identical in every aspect except the charge, are they the same particle with a simple twist?
Every atom of iron is already a magnet. So why isn’t every piece of iron magnetic?
In electricity, what carries the electromagnetic wave? The wire? The electron? Or something more fundamental?
What are the similarities of sound, electricity and light? And can this help us learn how to control gamma waves?
“Radiation poisoning” is one of the most feared phrases in the language. What if it’s just coupling — the same principle you already understand from sound and light?
Every detector that reports “photons” is made of material with fixed energy levels. Without a way to measure amplitude independently, how do we know E=hf describes the wave?
Is there a spectrum of motion, from atomic vibration to planetary orbits?
Can electromagnetic and kinetic energy form a full spectrum, running from the quantum field to galaxies?
A persistent current does not decay. Moving electrons is work. Work costs energy. These three facts cannot all be true if the electrons are moving.
Every electromagnetic wave — radio through gamma — carries the same energy per cycle. The difference is how many cycles arrive.
The wave itself — its nature, its mechanism, and its behavior
What are the similarities of sound, electricity and light? And can this help us learn how to control gamma waves?
In electricity, what carries the electromagnetic wave? The wire? The electron? Or something more fundamental?
How energy leaves one place and arrives at another.
Electricity isn’t just electrons moving in a wire. There is a force wave riding the atomic lattice.
What is the wire’s role in electricity? What are the electrons doing? And how many functions do they perform?
Squeeze a battery and it lasts twice as long. Strain a crystal and its electromagnetic coupling jumps by orders of magnitude. Compress a wire and it conducts better. What do the three have in common?
Every detector that reports “photons” is made of material with fixed energy levels. Without a way to measure amplitude independently, how do we know E=hf describes the wave?
The electron sea doesn’t carry the energy — it absorbs it. What if the biggest loss in power transmission is the medium we thought was helping?
A persistent current does not decay. Moving electrons is work. Work costs energy. These three facts cannot all be true if the electrons are moving.
What matter, particles, and fields are made of — the physical building blocks
What defines space?
Physics lists four fundamental forces. What if there are really two, and the others are derived?
Electric and magnetic. How do these two relate at every scale in the physical universe?
The electron-positron conundrum. If they are identical in every aspect except the charge, are they the same particle with a simple twist?
Every atom of iron is already a magnet. So why isn’t every piece of iron magnetic?
Why are only a few elements magnetic? The answer is in the shape of their electron orbits.
The inner-shell electrons don’t participate in chemistry. But they may be where the electromagnetic wave actually rides.
How all forms of energy organize into one coherent system
Is there a spectrum of motion, from atomic vibration to planetary orbits?
Can electromagnetic and kinetic energy form a full spectrum, running from the quantum field to galaxies?
How individual control mechanisms work — the specific actions that shape energy
Sound engineers learned to control every frequency a century ago. Why hasn’t anyone applied the same engineering to gamma?
Two ways to bend a wave, each working at a different scale. Which applies to gamma waves?
A mixing board for gamma — what if you could select and adjust individual frequency bands the way a sound engineer does?
The best gamma converters today waste 88% of the energy as heat. Electrical transformers lose almost nothing. What’s the difference?
A crystal spreads, filters, and separates a gamma wave. Is that one control function or three?
Every geometric form of an element is a different energy tool — and some of them can be switched on and off.
Where control fails at gamma frequencies — the gap, and what might close it
Sound engineers learned to control every frequency a century ago. Why hasn’t anyone applied the same engineering to gamma?
Two ways to bend a wave, each working at a different scale. Which applies to gamma waves?
A mixing board for gamma — what if you could select and adjust individual frequency bands the way a sound engineer does?
The best gamma converters today waste 88% of the energy as heat. Electrical transformers lose almost nothing. What’s the difference?
A crystal spreads, filters, and separates a gamma wave. Is that one control function or three?
What if the missing gamma controls were already in the periodic table — just in a form nobody thought to look at?
How atomic nuclei behave — excitation, decay, and the question of control
A neutron hits a nucleus the way a hammer hits a bell. What rings out is the nucleus’s own frequency.
A step by step breakdown of cobalt-60 decay. Is it random, or a very organized activity?
Can a crystal control radioactive decay?
Fuel, switch, and collector in one structure — what if the crystal that holds the isotope is also the gate that controls it?
How pressure, geometry, and crystal form create new energy control functions
Every element has a strongest possible form — a shape that pressure drives it toward. What happens when it gets there?
Some compressed materials hold the energy of their compression indefinitely — ready to release it as electricity on demand.
What if the missing gamma controls were already in the periodic table — just in a form nobody thought to look at?
Debye temperature tells you how still a crystal’s atoms hold. The stiller they are, the better they interact with gamma.
Every geometric form of an element is a different energy tool — and some of them can be switched on and off.
Why the products are designed the way they are — the reasoning behind the architecture
If you harvest energy across the full spectrum instead of just heat, how much smaller can a reactor be?
What if nuclear waste isn’t waste at all, but fuel for the next product?
Fission doesn’t produce heat. We do — by surrounding it with materials that have no other option. What if we removed them?
Squeeze a battery and it lasts twice as long. Strain a crystal and its electromagnetic coupling jumps by orders of magnitude. Compress a wire and it conducts better. What do the three have in common?
The electron sea doesn’t carry the energy — it absorbs it. What if the biggest loss in power transmission is the medium we thought was helping?
Semiconductors cap at 33% conversion — physics, not engineering. The diamond membrane lets fragments escape into a field that converts at 80%+.
The specific devices this research is building
If you harvest energy across the full spectrum instead of just heat, how much smaller can a reactor be?
What if nuclear waste isn’t waste at all, but fuel for the next product?
What if you could turn a nuclear decay source on and off, and point it in a chosen direction?
Fission doesn’t produce heat. We do — by surrounding it with materials that have no other option. What if we removed them?
Fuel, switch, and collector in one structure — the SE Cell gate as a single engineered crystal.
A uranium-diamond-piezoelectric membrane thin enough that fission fragments pass through it. The base holds the fuel. The field harvests the energy.
Fission fragments are already charged and moving at 3% of light speed. Instead of stopping them in a semiconductor, orbit them in a magnetic field and extract the current directly.
Nature moves things at light speed without recoil. How can we learn to do that?
How to read and use the research tools
The difference between a materials catalog and a coupling map — how a map can find what a catalog can’t.
What to prove next — specific tests proposed by the research
Can a crystal control radioactive decay?
A step by step breakdown of cobalt-60 decay. Is it random, or a very organized activity?
Squeeze a battery and it lasts twice as long. Strain a crystal and its electromagnetic coupling jumps by orders of magnitude. Compress a wire and it conducts better. What do the three have in common?
Every detector that reports “photons” is made of material with fixed energy levels. Without a way to measure amplitude independently, how do we know E=hf describes the wave?
If the electrons are moving, the current must decay. It does not decay. What is actually moving in a superconductor?
The flux quantum is measured, universal, and frequency-independent. If every wave carries the same energy per cycle, then E=hf describes coupling, not energy.