A quantum model of dark energy
Chang-Yu Zhu, Heng Fan

TL;DR
This paper introduces a quantum model of dark energy where gluons with tiny masses contribute to a non-zero energy-momentum tensor, aligning with Einstein's cosmological constant.
Contribution
It proposes a novel quantum gluon-based dark energy model and compares it with electroweak boson properties and existing dark energy models.
Findings
Gluons with tiny masses can generate a non-zero energy-momentum tensor.
The model aligns with Einstein's cosmological constant.
Comparison with electroweak bosons provides additional insights.
Abstract
We propose a quantum model of dark energy. The proposed candidate for dark energy is gluon field, as is well-known, gluons are the elementary particles. We assume that gluons may not be completely massless but have tiny masses, thus the gluon field can provide a non-zero energy-momentum tensor. This model corresponds to Einstein's cosmological constant which is one of the generally accepted models for dark energy. Besides the gluon field, we also discuss the properties of electroweak boson field and compare our results with previous known results.
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Taxonomy
TopicsCosmology and Gravitation Theories · Dark Matter and Cosmic Phenomena · Particle physics theoretical and experimental studies
