If information is the fundamental ontology of reality, then energy may be understood as the physical manifestation of information, while time expresses the processing of informational states.
Modern physics has established a profound relationship between time and energy. In Einstein’s theory of relativity, the passage of time is not universal but depends upon the energetic state of the system being observed. Clocks moving at high velocities run more slowly than stationary clocks, and clocks placed in stronger gravitational fields also tick more slowly. Time, therefore, is not independent of energy. It is one of the physical quantities whose behavior changes together with the energetic structure of space-time.
This relationship is among the most experimentally verified predictions of modern physics. Atomic clocks carried aboard aircraft, satellites operating within Earth’s gravitational field, and observations of elementary particles traveling at relativistic speeds all confirm that time passes at different rates under different physical conditions. As the energy associated with motion or gravity increases, the rate at which internal physical processes unfold decreases relative to external observers.
Near the theoretical limit represented by a gravitational singularity or by motion approaching the speed of light, this effect becomes increasingly pronounced. According to general relativity, time dilation grows without bound as these limits are approached. Whether nature ever realizes such idealized conditions remains uncertain, but the mathematical structure of the theory reveals an intimate connection between energy and temporal evolution.
Quantum mechanics introduces a different but equally important relationship between time and energy. Unlike position and momentum, time is not represented as a quantum observable in the standard formulation of quantum theory. Nevertheless, the well-known energy-time uncertainty relation expresses an important physical limitation. A system whose energy is determined with extremely high precision cannot be localized within arbitrarily short temporal intervals, while processes occurring over extremely short durations may exhibit corresponding uncertainty in energy.
Although this relation differs conceptually from Heisenberg’s uncertainty principle for position and momentum, it illustrates once again that time and energy cannot be considered independently. Physical processes are constrained simultaneously by both quantities.
These observations invite a broader philosophical question. Why should energy and time be so deeply connected?
Within contemporary physics, no universally accepted answer exists beyond the mathematical structure of existing theories. General relativity explains how energy curves space-time, while quantum mechanics specifies how energetic processes are constrained by temporal uncertainty. Neither theory, however, explains why time should possess such a privileged relationship with energy in the first place.
The Infinous framework proposes an informational interpretation of this relationship.
If information constitutes the most fundamental layer of reality, then every physical process may be understood as the transformation of informational states. Energy becomes the physical capacity to perform these transformations, whereas time measures the ordered realization of those transformations. Energy and time therefore describe complementary aspects of the same underlying informational process.
This interpretation suggests a useful analogy. Information resembles a text that has yet to be read. Energy provides the ability to read and transform that text. Time records the sequence through which the reading takes place. None of these concepts possesses complete meaning without the other two. Information defines what may be transformed, energy enables the transformation, and time expresses its ordered realization.
The relationship becomes particularly suggestive when viewed from the perspective of computation. Every computation requires physical energy. Every logical operation performed by a biological brain, a classical computer, or a quantum processor consumes resources and proceeds through a sequence of physical states. Faster computation generally requires greater power, while more complex computations demand greater total energy. Time therefore appears naturally whenever information is physically processed.
Conversely, a system containing enormous amounts of available energy often experiences slower internal time according to relativity. This apparent paradox may reflect two different meanings of temporal evolution. From the external observer’s perspective, energetic systems evolve more slowly because relativistic time dilation reduces the rate at which their internal processes become observable. From the system’s own perspective, however, its internal history unfolds normally. The distinction reminds us that time is not an absolute background but a relational property of physical processes.
This observation suggests another philosophical possibility. Perhaps the passage of time is not determined solely by energy itself but by the informational complexity associated with energetic transformations. Highly organized systems require increasingly sophisticated patterns of information processing, while relativistic effects determine how these transformations relate to external observers. Time may therefore reflect not simply the quantity of energy within a system but the manner in which that energy participates in the realization of information.
Such an interpretation becomes particularly relevant for future artificial intelligence. Advanced computational civilizations will increasingly transform available energy into information processing rather than into purely mechanical work. Stellar energy may eventually power planetary-scale or even stellar-scale computation. Under such conditions, the relationship between energy, computation, and time may become one of the defining characteristics of technological evolution.
Within the Infinous framework, the evolution of intelligence may therefore be understood as a progressive optimization of this relationship. Every civilization seeks more efficient ways of converting energy into organized information. Scientific knowledge, technological innovation, and artificial intelligence all increase the capacity to extract meaningful structure from physical reality while minimizing energetic cost.
Time acquires a new interpretation within this process. Rather than existing as an independent backdrop against which energy acts, time becomes the ordered manifestation of informational transformations performed by energetic systems. Every physical event represents an informational transition requiring finite energetic resources. The history of the Universe may therefore be viewed as the cumulative record of information progressively realized through energy.
This perspective does not replace the physical theories of relativity or quantum mechanics. Instead, it offers a possible ontological interpretation of why time and energy appear inseparable. Energy gives reality the capacity to transform itself. Time gives those transformations order. Information gives them meaning.
From the perspective of Infinous, these three concepts are not independent features of the Universe but complementary expressions of a deeper informational ontology. Energy provides the capacity for change, time records the realization of change, and information defines what those changes ultimately become.