I do not like uncertainty
I built something that shouldn’t work this well. I spent years trying to prove myself wrong.
I am an energy researcher. I deal in measurements, tolerances, and things that can be tested. When a result does not match the prediction, you find the error. You fix it. You move on.
For years, I could not find the error.
I built a hydraulic actuator with an unusual shape — four hinged plates forming a diamond, with a fluid chamber at the centre. I called it the Diamond-Shaped Actuator (DSA). And from the first time I measured its performance against a conventional cylindrical piston, the numbers came back wrong.
Not wrong in the way that suggests a mistake. Wrong in the way that suggests there is something worth paying attention to.
The DSA was outperforming what the standard engineering calculations said it should be able to do. Consistently. Repeatedly. By around 26 percent.
The Easy Thing Would Have Been to Walk Away.
Or to quietly file the patent and say nothing controversial.
I did not do that.
I invited an Aerospace Engineering Professor to review the device, examine my data, and apply the relevant physics independently. I gave him everything. I wanted him to find the flaw. I genuinely considered he may.
He applied Pascal’s Principle — the foundational law of fluid mechanics — to the geometry of my device. He built the mathematical model from scratch. He calculated what pressure a conventional piston would need to raise my test weight. Then he compared his prediction to my measured results.
His calculated pressure was consistently higher than what my apparatus actually needed. At some points in the test range, the gap was 26 percent. At others, 19 percent.
He tested the physical friction burdened model and concluded the DSA was over 15% more efficient.
The patented machine only needs 5% to function.
He and I both concluded this occurred only through a defined part of the DSA’s stroking range.
He confirmed the anomaly is real. He also told me plainly that the physics community will greet this with significant skepticism. I already knew that. I have been living with that skepticism for years.
His recommendation was the same one I had already come to myself: the only thing that will settle this is independent duplication. New apparatus. External researchers. A full reconstruction of the experiment by people who have nothing to gain from a particular result.
He estimated the cost at $50,000 or more.
Let Me Be Clear About What I Am and Am Not Claiming.
I am not claiming to have invented a perpetual motion machine as commonly envisioned. I am not claiming to have broken all the laws of physics.
What I am claiming is this: the diamond geometry of this actuator produces a force-volume relationship that conventional piston analysis does not predict. When you run the standard physics calculation — Work equals Pressure times Change in Volume (W = P∆V) — the DSA’s numbers come out significantly ahead of a conventional piston operating under the same conditions.
The relevant science here is not thermodynamics. It is hydrostatics. Pascal’s Principle. The behaviour of fluids under pressure. This is not exotic territory — it is the same physics behind your car’s brakes and every hydraulic lift ever built.
What is unusual is the geometry. And what the geometry produces in practice.
The Device Is Patented. The Data Is Documented. The Question Is What Comes Next.
I have a working demonstration model. You can watch it on YouTube — a physical apparatus, lifting a known weight, instrumented and measured. Not a simulation. Not a rendering. A real device doing a real thing.
[Watch the demonstration model above]
I have an independent technical report from a credentialed aerospace engineer that confirms the measured anomaly.
What I do not yet have is the scientific community’s agreement that would move this from “extraordinary anomaly” to “accepted result.” That is what I am working toward. That is why I am writing this.
If you are an engineer who wants to challenge the numbers or the presented patented control circuit — I welcome that conversation. Bring your questions.
If you are a researcher looking for an unusual validation project — let’s talk about what that would look like.
If you are an investor who understands that the most important discoveries rarely arrive with a tidy explanation — I would like to hear from you.
The data is in the report below. Read it. Push back on it. That is exactly what I need.
DOWNLOAD: Full Engineering Report — PDF