Challenges of ANITA anomaly, JWST observation to CMB interpretation of CMB, Formation of Star & Super Nova Explosion
Abstract
This article was inspired by recent findings challenging the standard model view of physics. The ANITA anomaly challenges the standard model view of particle physics and suggests the existence of dark matter type particles able to penetrate distances of several thousand kilometers through the Earth. The second puzzling observation is theoretical. The very early large galaxies detected by JWST do not fit easily to the standard cosmology. Their existence also challenges the prevailing view about the origin of the cosmic microwave background (CMB). These galaxies are very active and generate dust and radiation, which is in thermal equilibrium with matter. When thermal decoupling occurs, a background radiation analogous to CMB is generated and the estimate is that it can contribute at least 1.4 per cent to the CMB and even dominate it. This challenges the standard narrative about cosmic evolution. In this article these two findings are discussed from the TGD perspective. The third unexpected observation is that the white dwarf produced as a remnant of a star seems to be a seat for the formation of planets. The explanation for the formation of planets in the white dwarf in turn supports the TGD view of stars as analogs of organic life forms which are living and metabolize. Are stars living, metabolizing systems that are born, flourish, and die?. Do the remnants of a star give rise to a reincarnation of the star generating its own planetary system by these explosions as TGD counterparts for a smooth cosmic expansion? Do stars form networks analogous to multicellular systems communicating using the signals propagating parallel to the monopole flux tubes The fourth unexpected observation are the strange findings about supernova SN2021yfj challenging the view that the solar core is the seat of fusion. The TGD based stellar model indeed predicts that energy and solar wind are produced at the surface layer of the star.