Research Journal — Entry 1
September 10, 2026
What would it actually take for humanity to travel beyond our solar system?
That question sounds simple until you begin breaking it apart.
For generations, science fiction has imagined spacecraft crossing enormous distances using warp drives, wormholes, hyperspace, and other faster-than-light concepts. Physics presents a much more difficult picture. According to special relativity, objects traveling with nonzero rest mass cannot be accelerated locally through spacetime to or beyond the speed of light.
But general relativity introduces another possibility: spacetime itself is dynamic.
Mass and energy curve spacetime. The universe expands. General relativity permits mathematical spacetime geometries that behave very differently from the flat space we experience in everyday life.
That raises a different question.
Instead of asking:
How do we make a spacecraft travel faster than light through space?
perhaps we should also ask:
Can spacetime itself be engineered in a way that changes how enormous distances are crossed?
That question became the beginning of Beyond the Light Barrier.
The Communication Problem
As I began exploring the idea of warp propulsion with ChatGPT, another problem became increasingly important.
Suppose someday we actually developed a propulsion system capable of dramatically reducing interstellar travel times.
How would we communicate with the spacecraft?
Consider our nearest neighboring star system, Alpha Centauri, roughly 4.37 light-years away.
Using conventional electromagnetic communication, a message traveling from Earth would still require approximately 4.37 years to arrive. A response would require another 4.37 years to return.
That means a simple exchange could take almost nine years.
A spacecraft capable of reaching another star rapidly while remaining unable to communicate with Earth except at light speed would create an extraordinary technological mismatch.
So the research divided naturally into two related projects.
Project WD — Warp Drive
The Warp Drive project investigates whether manipulation of spacetime could provide a physically meaningful propulsion mechanism.
This includes questions involving spacetime geometry, energy requirements, stability, causality, control, communication across a modified spacetime region, instrumentation, and eventually the survivability of living organisms.
Project WC — Wormhole Communication
The Wormhole Communication project asks a different question:
Could spacetime provide a communication pathway whose effective distance is shorter than the ordinary distance between two locations?
The emphasis here is important.
The objective is not simply to transmit a radio signal faster through ordinary space.
Instead, we are asking whether two locations could, under some physically realizable configuration, become connected through a different spacetime geometry.
At this stage, that remains a research question—not a demonstrated technology.
Don't Start With the Stars
One of the earliest decisions in the WC research was surprisingly practical.
If wormhole communication is ever possible, we should not begin by trying to communicate across light-years.
We should begin with the smallest useful experiment.
Could an effect exist across a laboratory?
Across a building?
Between two locations on Earth?
Between Earth and an orbiting spacecraft?
Between Earth and the Moon?
Only after increasingly larger-scale questions survive serious mathematical and experimental scrutiny would it make sense to consider communication across the solar system or eventually between stars.
This has become one of the guiding principles of the entire project:
Start small enough to test.
A technology intended someday to operate across light-years should first demonstrate that the underlying physics exists at all.
Earth May Be Part of the Laboratory
That reasoning has already produced another research direction.
Earth exists inside its own gravitational field.
General relativity tells us that gravity and spacetime geometry are intimately related.
Could Earth's existing gravitational environment provide useful conditions for testing extremely small spacetime effects between two terrestrial locations?
That does not mean Earth's gravity can create a traversable wormhole. We currently have no evidence that it can.
The research question is more careful:
Does an existing gravitational environment provide anything experimentally useful when investigating whether spacetime geometry can influence a proposed communication pathway?
The next task is to determine whether that question can be converted into a physically defined, falsifiable measurement.
And importantly, it moves the investigation toward a question that can eventually be formulated in terms of measurable observables, sensitivity requirements, and experimental noise.
From Earth to Deep Space
If some form of new communication mechanism eventually survived terrestrial and near-Earth experiments, the next challenge would be increasing the distance.
One long-term thought experiment we have already considered involves Voyager 1.
Voyager 1 is humanity's most distant spacecraft. A future mission capable of reaching it—or eventually overtaking it—could conceivably deliver new instrumentation and a new energy source.
If a wormhole-communication device ever existed, such a mission could provide an extraordinary deep-space endpoint for testing it.
That is far beyond anything we can presently build for this purpose.
But it illustrates the progression we want the research to follow:
Laboratory → Earth → Orbit → Moon → Solar System → Deep Space → Interstellar distances
Each step should have to earn the next one.
What Happens When an Idea Fails?
Probably the most important rule of this project is that we cannot become committed to proving our ideas correct.
Some models will fail.
Some may require impossible energy densities.
Others may violate known physical constraints.
An attractive idea may disappear as soon as we put numbers into the equations.
If that happens, the failure should become part of the research record.
The question isn't:
How can we prove warp drive or wormhole communication exists?
The better question is:
What does physics actually allow?
If the answer to a particular model is nothing, we document why and move to the next question.
AI-Assisted Research
There is another unusual aspect of this project that deserves to be documented from its beginning.
Much of this investigation is being conducted through an ongoing AI-assisted research process in which I direct the investigation and use OpenAI's ChatGPT for analysis, modeling, literature exploration, and drafting.
My background is in computer engineering rather than theoretical physics. I spent more than three decades working in technology, and I tend to approach problems from an engineering perspective: break a large problem into smaller problems, identify the constraints, build a model, find where it fails, and iterate.
ChatGPT provides capabilities that would have been extraordinarily difficult for an individual researcher to assemble even a few years ago: rapidly examining scientific literature, working through mathematics, constructing computational models, exploring alternative hypotheses, identifying gaps and contradictions, and helping translate technical work into understandable language.
But AI introduces its own important requirement:
AI output must not be confused with scientific evidence.
ChatGPT can make mistakes. Calculations must be checked. References must be verified. Models must ultimately survive mathematics, established physics, experimental evidence, and independent criticism.
That is why this site openly identifies the role of AI rather than hiding it.
Where We Go From Here
The work has already begun.
Both the Warp Drive and Wormhole Communication projects now contain multiple model iterations. Some are exploratory. Others are designed specifically to identify gaps and obstacles in earlier models.
As those models mature, this site will publish the research at three levels:
Research Journal — the story of the investigation as it develops.
Research Explained — rigorous but accessible explanations for readers who don't specialize in theoretical physics.
Technical Papers — mathematical and scientific presentations intended for serious technical examination and critique.
Not every model will deserve all three.
Part of our research process will be deciding when an idea has matured enough to move from an internal working model to something worth putting before the public.
This Research Journal is where that public record begins.
We do not know where the investigation will lead.
We do not know whether practical warp propulsion or wormhole communication will ultimately prove physically possible.
But we can begin somewhere much more concrete than the stars.
We can begin with a question.
Then another.
Then a model.
Then an experiment.
And allow physics to decide what survives.
