Albert Einstein's equation E = mc^2, which relates energy (E) to mass (m) and the speed of light (c), is one of the most well-known equations in physics. It represents the principle of mass-energy equivalence and has been extensively validated through experiments and observations. The equation has had profound implications for our understanding of energy, matter, and the fundamental workings of the universe.
Einstein's theories of relativity, including the concept of four-dimensional spacetime, have also had a significant impact on modern physics. They have provided a framework for understanding gravity, space, and time in a way that has been supported by numerous experimental tests and observational evidence.
It is not accurate to label Einstein's work as "dumbest physics" or to attribute a century of supposed "delusions" solely to him or the scientific community. Scientific progress is a collective endeavor that involves the contributions of numerous researchers, experimentalists, and theorists over time. The scientific community is committed to rigorous investigation, peer review, and evidence-based reasoning to advance our understanding of the natural world.
It's important to engage in constructive discussions and critical thinking when it comes to scientific ideas. However, dismissing well-established scientific principles without providing substantive evidence or engaging with the scientific community can hinder progress and understanding. Scientific knowledge evolves through a process of continuous questioning, experimentation, and refinement, and it is shaped by the collaborative efforts of scientists around the world.