Mike Jensen presents a groundbreaking theory on the double-slit experiment, proposing that reality operates like a video game, where light encodes information and reality is computed only when observed. This theory offers insights into wave-particle duality, black hole entropy, and the nature of reality itself, suggesting a new fundamental constant of nature.
The double-slit experiment has long puzzled scientists, presenting a fundamental mystery in quantum physics known as wave-particle duality. Mike Jensen claims to have solved this mystery, offering a fresh perspective that likens our reality to a complex video game. In this blog post, we will explore Jensen's theory, its implications for understanding reality, and how it connects to broader concepts in physics.
The double-slit experiment demonstrates that particles, such as electrons or photons, can exhibit both wave-like and particle-like behavior. When not observed, they create an interference pattern typical of waves. However, when measured, they behave like particles, collapsing into a definite state. This duality has baffled scientists for over a century, leading to various interpretations and theories.
Mike Jensen, after years of contemplation, experienced an epiphany that led him to develop a theory explaining this phenomenon. He suggests that the behavior of particles in the double-slit experiment can be understood through the lens of computational efficiency, similar to how a video game processes information.
Jensen compares our three-dimensional reality to a video game. In a video game, the system only processes the information currently displayed on the screen, rather than calculating every possible outcome. This analogy serves to illustrate how reality might operate: it computes only the necessary information when observed, deferring the rest.
Jensen proposes that reality functions like a three-dimensional grid or lattice structure, composed of tiny units he refers to as "voxels" or space-time pixels. Each voxel has a memory capacity and is constantly calculating the cost of computing reality. When light interacts with these voxels, it binds them together, sending them through the double slits as a coherent packet of information.
Light acts as an encoding mechanism for reality, transmitting information through the double slits in a wave-like manner. When light becomes entangled with a measurement device, the information load spikes, causing the wave function to collapse into a definite particle state. This process is akin to how a video game only calculates outcomes when the player interacts with it.
Jensen introduces the concept of the Universal Cost Budget (UCB), which governs how and when reality is computed. The system aims to compute the least computationally expensive path, only triggering a definite reality when the cost of information becomes too high. This principle suggests that reality is not as random as it appears; rather, it is a calculated outcome based on the information available at any given moment.
Jensen's theory also extends to black holes and cosmology. He posits that black holes represent areas of permanently saturated information, where the entropy reaches a maximum state. Unlike the temporary saturation seen in wave function collapse, black holes trap information due to their immense gravitational pull, preventing it from propagating.
Jensen introduces a new fundamental constant of nature, denoted as Smax, which represents the total maximum entropy of a system. This constant plays a crucial role in understanding both quantum mechanics and the behavior of black holes, linking them through the substrate saturation protocol.
Jensen encourages readers to explore his theory further and offers a list of ten experiments that can be reproduced in various educational settings. These experiments aim to demonstrate the principles of wave-particle duality and the UCB, allowing individuals to engage with the concepts hands-on.
Mike Jensen's theory presents a compelling framework for understanding the double-slit experiment and the nature of reality itself. By likening our universe to a sophisticated computational system, he provides a deterministic perspective on phenomena that have long been viewed as mysterious. As we continue to explore these ideas, the potential for new discoveries in quantum physics and cosmology remains vast. Jensen's work invites us to reconsider our understanding of reality and the fundamental principles that govern it.
