Several scientists and science communicators have made efforts to explain the complexities and potential limitations of Einstein's theories of relativity to non-scientists. It's worth noting that the concept of "defects" in Einstein's theories is not widely accepted among the scientific community. However, some individuals have explored alternative theories or proposed modifications to general relativity in certain contexts. Here are a few notable names in science communication who have delved into this subject:
Brian Greene: Brian Greene, a theoretical physicist and author, has contributed significantly to popularizing complex topics in physics, including relativity. His books, such as "The Elegant Universe" and "The Fabric of the Cosmos," offer accessible explanations of general relativity and its implications.
Michio Kaku: Michio Kaku, a theoretical physicist, has written several books that explore the frontiers of physics and provide explanations of complex theories for general readers. In works like "Hyperspace" and "Parallel Worlds," Kaku touches on relativity and discusses potential modifications or extensions to the theory.
Sabine Hossenfelder: Sabine Hossenfelder, a theoretical physicist, is known for her critical analyses of contemporary physics and her YouTube channel, "Sabine Hossenfelder: Science Without the Gobbledygook." While not specifically focusing on the defects of relativity, she presents alternative viewpoints and discusses open questions in physics.
Sean Carroll: Sean Carroll, a theoretical physicist and author, has written books such as "From Eternity to Here" and "The Big Picture," which delve into various aspects of cosmology, including relativity. Carroll's engaging style helps bridge the gap between scientific concepts and the general public's understanding.
It's important to keep in mind that while these communicators strive to make complex ideas accessible, the theories of relativity remain well-supported by a vast body of experimental evidence. The scientific consensus strongly upholds the validity of Einstein's theories within their applicable domains.