Reimagining Time and Space
In the realm of physics, researchers are redefining our understanding of time and space, introducing an intriguing concept that could revolutionize our perception of the universe. Let’s delve into the notion of the “numeric order in space” and its profound implications for our grasp of time.
The Photon’s Extraordinary Journey
Picture a photon, the fundamental unit of light, voyaging between two spatial points. These points are so infinitesimally close that they’re measured in Planck lengths, approximately 1.6×10^-35 meters each. A Planck length signifies the smallest possible distance a photon can cover within Planck time—the duration required for a photon to traverse one Planck length.
When this photon travels a Planck length, something remarkable unfolds. It appears to predominantly traverse space rather than time. This allows us to visualize the photon’s voyage from point 1 to point 2. Its presence at point 1 seems to precede its existence at point 2, akin to the sequence of numbers (1 coming before 2 in a numerical order). However, it’s crucial to understand that this numerical sequence doesn’t equate to the flow of time. Time itself behaves differently. In the realm of time, point 1 doesn’t precede point 2.

Two States, One “Timeless” Existence
Essentially, we’re confronted with two simultaneous states of the photon, a state devoid of “time.” The concept of sequence solely applies within a numerical context, governed by the assigned numerical values.
Redefining Space-Time
This perspective challenges the prevalent belief that the mathematical model of space-time perfectly corresponds to physical reality. Instead, it proposes a more accurate definition—the “space of states.” This term encapsulates the timeless essence of these occurrences. In this redefined framework, time assumes a distinct role. It’s no longer a linear progression but a collection of frames representing the characteristics of an object undergoing material alterations. These alterations are meticulously organized based on their assigned numerical values.
As philosopher Sorley asserts, “Time, based on experimental data, is what we measure with hours. We employ hours to quantify the order of material changes, essentially tracking spatial movement.”

Implications for Time Travel
One captivating implication of this perspective pertains to time travel. With time no longer adhering to our conventional understanding, the traditional concept of journeying through time—either into the past or future—loses relevance. Instead, we can contemplate traveling within the fabric of space-time. This allows us to explore various frames, each reflecting a distinct state of existence or matter—a phenomenon aptly termed motion.
In Conclusion
The “numeric order in space” challenges conventional wisdom, introducing an exciting perspective on the interplay between time and space. As our comprehension of the universe continues to evolve, this concept opens up captivating avenues for exploration, pushing the boundaries of our understanding of the cosmos.