New Theory Suggests Time Has Three Dimensions

A novel theory proposed by Gunther Kettetschka, a researcher at Fairbanks University in Alaska, suggests that we exist in three dimensions rather than the single dimension we perceive continuously, with space serving as a secondary byproduct.

Time, not space and time, can be a single fundamental property in which all physical phenomena occur. Image credit: M. Weiss/Harvard – Smithsonian Center for Astrophysics.

“These three dimensions of time constitute the fundamental layers, akin to the canvas of a painting,” Dr. Kettetschka stated.

“While space exists in three dimensions, it is not the canvas itself; rather, it resembles the paint on the canvas.”

“These concepts starkly contrast established physics, which maintains that our reality comprises a single time dimension alongside three spatial dimensions.”

“This is referred to as space-time, a notion developed over a century ago that regards time and space as a single entity.”

Dr. Kettetschka’s mathematical model, which integrates time and space, seeks to provide a unified explanation of the universe.

Understanding time’s dimensions beyond our daily experience is challenging. Theoretical physicists have explored numerous variations.

This latest research contributes to a long-term body of work among theoretical physicists exploring ideas beyond mainstream physics.

“Prior three-dimensional time proposals largely consisted of mathematical constructs lacking concrete experimental connections,” Dr. Kettetschka noted.

“My research transforms intriguing mathematical concepts into physically testable theories through various independent validation methods.”

“This theory has the potential to predict unknown particle properties and aid in uncovering the origin of mass, ultimately addressing one of physics’ greatest enigmas.”

The concept of three-dimensional time includes multiple independent trajectories, similar to time and space. It can be visualized as three axes of temporal motion, akin to the spatial X, Y, and Z axes.

Imagine walking straight ahead, perceiving time as we typically do. Now envision another path intersecting the first, allowing lateral movement.

If you could traverse sideways while remaining in the same moment of ‘normal’ time, you’d recognize that scenarios may slightly differ, potentially representing alternate versions of the same day.

Following this vertical path lets you explore various outcomes of the day without advancing forward as we understand it.

The existence of these alternative outcomes represents the second dimension of time, while the third dimension pertains to the transition from one outcome to another.

“This theory addresses issues confronted by earlier three-dimensional time theories based on traditional physics,” Dr. Kettetschka highlighted.

“For instance, previous theories often presented ambiguous cause-and-effect relationships when discussing multiple time dimensions.”

“The new theory utilizes more complex mathematical frameworks to ensure clear precedence of effects caused, even in the context of multiple time dimensions.”

According to the 3D time perspective, the second and third dimensions are particularly conceptualized by theoretical physicist Yitzhakuber at the University of Southern California, likely manifesting at extreme energy levels, such as those present in the early universe and high-energy particle collisions.

This innovative approach might help confront significant challenges within the realm of unresolved physics: unifying quantum mechanics—the behavior of particles at the most minute scale—with gravity, towards an overarching quantum gravity theory.

The theory of quantum gravity has the potential to evolve into a grand theory encompassing the universe and all related theories.

A central goal of this elusive unified theory is to integrate the four fundamental forces of nature: electromagnetic, strong nuclear, weak nuclear, and gravity.

The standard model of particle physics unifies the first three forces, while gravity is addressed through Albert Einstein’s theory of general relativity.

Since the two frameworks are incompatible, physicists are striving for a theoretical synthesis. Pinpointing the origin of particle mass is crucial to this endeavor.

Dr. Kettetschka is optimistic that the three-dimensional time theory can be beneficial.

This framework effectively replicates the masses of known particles like electrons, moons, and quarks, providing insights into why these particles possess their specific masses.

“Achieving unity may necessitate a fundamental reassessment of the very nature of physical reality,” Dr. Kettetschka remarked.

“This theory demonstrates how perceiving time as three-dimensional can elegantly resolve multiple physics puzzles within a cohesive mathematical framework.”

His paper was published in the journal Report on Advances in Physical Science.

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Gunther Kletetschka. 2025. 3D Time: Mathematical Framework for Fundamental Physics. Report on Advances in Physical Science 9:2550004; doi:10.1142/s2424942425500045

Source: www.sci.news

Experiments in Basic Physics Could Uncover Hidden Dark Matter in Additional Dimensions

We don’t tend to dwell on the fact that we exist in three dimensions. Front to back, left to right, up to down – these are the axes along which we move through the world. When we try to imagine something else, we usually conjure up the most outlandish science fiction images of portals in the fabric of space-time and parallel universes.

But serious physicists have long been fascinated by the possibility of extra dimensions. Despite their intangibility, extra dimensions hold the promise of solving some big questions about the deepest workings of the universe. And just because they’re hard to imagine and even harder to observe doesn’t mean we can rule them out. “There’s no reason they have to be three-dimensional,” says David Schneider, a physics professor at the University of California, San Diego. Georges Obie At Oxford University. “It could have been two, it could have been four, it could have been ten.”

Still, there comes a time when any self-respecting physicist wants hard evidence. That’s why it’s so exciting that over the past few years, researchers have developed several techniques that may finally provide evidence of extra dimensions. For example, we might be able to detect gravity leaking into extra dimensions. We might see subtle signatures of it in black holes, or we might find its signature in particle accelerators.

But now, in an unexpected twist, Ovid and his colleagues claim that there is an extra dimension that is fundamentally different from any previously conceived. This “dark dimension” hides ancient particles whose gravity could solve the mystery of dark matter, the force that is thought to have shaped the universe. Crucially, this dimension is relatively…

Source: www.newscientist.com