The Enigma of Charge Polarity

Since antiquity, humanity has been captivated by the “forces” of nature. Around 600 BCE, the Greek philosopher Thales observed that rubbed amber attracts light objects, sparking the exploration of electric charge. This seemingly simple phenomenon conceals a profound mystery: why does charge manifest as positive and negative, orchestrating a dual dance of attraction and repulsion? In contrast, gravity, the universe’s most ancient guide, remains steadfastly unipolar, always attractive, indifferent to the polarity game. From Galileo’s falling bodies to Newton’s universal gravitation, and Einstein’s spacetime curvature, gravity reigns over the macroscopic world with a singular pull. Meanwhile, electromagnetism, through the delicate balance of positive and negative charges, weaves the chemical and physical tapestry from atoms to nebulae. Why do charges possess positive and negative polarities? This question lies at the heart of physics and delves into the abyss of philosophy. In the 18th century, Franklin arbitrarily designated the charge from rubbed amber as “negative” and that from a glass rod as “positive.” Though arbitrary, this naming unveiled the profound symmetry of charge: positive and negative, like yin and yang, are interdependent yet oppositional, driving chemical bonding, electric currents, and the rhythm of life. The Standard Model describes electromagnetism via U(1) gauge symmetry, with charge as an intrinsic quantum number, yet its origin remains elusive. By contrast, gravity’s unipolarity is even more enigmatic: why is mass always “positive,” never repulsive? Why does the universe choose gravity as the unidirectional engine of aggregation, while electromagnetism sways in polarity?

These questions point to a grander picture: do the universe’s forces share a common mechanism? This monograph proposes a bold hypothesis-the Quantum Energy Theory, unifying the polarity of charge and the unipolarity of gravity within a dynamic framework of quantum energy density fields. Through random collisions, energy minimization, and the emergence of density gradients (nabla \rho), we aim to construct a logically coherent, quantifiable model from observable phenomena (e.g., spectra, cosmic microwave background radiation) to reveal the essence of forces.

Quantum Energy Theory: A Bridge from Chaos to Order

The core hypothesis of Quantum Energy Theory posits that all forces- whether the polar dance of electromagnetism or the unidirectional pull of gravity-originate from the exchange of quantum energy particles (bosons, e.g., photons, gravitons) and the dynamic evolution of the density field rho(r, t). Charge polarity is redefined as the density heterogeneity of high-frequency quantum energy particles (f > 10^{10}Hz): high-density regions (\rho > \rho_0) manifest as positive charge, low-density regions (\rho Random collisions are the “engine” of cosmic evolution. From early universe quantum fluctuations (CMB observations, \(\delta \rho / \rho \approx 10^{-5}\)) to galaxy formation, randomness accumulates over time, transforming improbable events into inevitability. The principle of energy minimization governs throughout: systems release quantum energy particles (e.g., photons, gravitons) to approach minimal potential energy states, whether in atomic bonding or nebular collapse.