Katharine Way, John Wheeler, and the Dawn of Nuclear Fission
Katharine Way, supervised by John A. Wheeler, contributed to early nuclear fission exploration. Wheeler's reflections on her work and personal tragedies influenced his scientific approach, evident in ongoing research.
Read original articleKatharine Way, the first Ph.D. supervised by John A. Wheeler at the University of North Carolina, played a significant role in the early exploration of nuclear fission. Despite limited scholarly attention to her work, Way's research on rotating nuclei using the liquid drop model hinted at the possibility of nuclear fission before its formal discovery. Wheeler's reflections on this "missed opportunity" were influenced by personal tragedies during World War II. Further insights into Way's life and post-war contributions, such as the Nuclear Data Project, can be gleaned from Wheeler's archival collections. Wheeler's ongoing fascination with nuclear fission, even in his later work on black holes, underscores the impact of this early research on his scientific approach. A forthcoming paper will delve deeper into Way's legacy, encouraging continued exploration of her scientific endeavors and personal connections within the APS Library's extensive resources.
Related
Klára Dán Von Neumann
Klára Dán von Neumann, a pioneering Hungarian-American mathematician and computer scientist, made significant contributions to programming, including work on the Monte Carlo method, ENIAC, and MANIAC I. Despite personal challenges, her legacy endures.
Nuclear spectroscopy breakthrough could rewrite fundamental constants of nature
Breakthrough in nuclear spectroscopy at UCLA enhances atomic clock precision using thorium-229 nucleus excited by laser in fluorine-rich crystal. Research by Prof. Eric Hudson could redefine fundamental constants and improve deep space technology.
The priest who predicted black holes – in 1783
John Michell, an 18th-century British clergyman, predicted black holes using Newtonian laws, influencing modern understanding despite initial resistance from physicists like Einstein. Michell's innovative ideas shaped cosmic knowledge.
The legacy of Liverpool's forgotten synchrocyclotron
The University of Liverpool's synchrocyclotron, operational from 1954 to 1968, was a pioneering particle accelerator designed by James Chadwick. It advanced particle physics through intense particle beams and innovative design.
Neutrons on Classically Inexplicable Paths
Researchers at TU Wien tested the Leggett-Garg inequality using neutron interferometry. Results showed a violation, supporting quantum theory over classical explanations. The study challenges macroscopic realism, confirming quantum theory's unique nature.
Related
Klára Dán Von Neumann
Klára Dán von Neumann, a pioneering Hungarian-American mathematician and computer scientist, made significant contributions to programming, including work on the Monte Carlo method, ENIAC, and MANIAC I. Despite personal challenges, her legacy endures.
Nuclear spectroscopy breakthrough could rewrite fundamental constants of nature
Breakthrough in nuclear spectroscopy at UCLA enhances atomic clock precision using thorium-229 nucleus excited by laser in fluorine-rich crystal. Research by Prof. Eric Hudson could redefine fundamental constants and improve deep space technology.
The priest who predicted black holes – in 1783
John Michell, an 18th-century British clergyman, predicted black holes using Newtonian laws, influencing modern understanding despite initial resistance from physicists like Einstein. Michell's innovative ideas shaped cosmic knowledge.
The legacy of Liverpool's forgotten synchrocyclotron
The University of Liverpool's synchrocyclotron, operational from 1954 to 1968, was a pioneering particle accelerator designed by James Chadwick. It advanced particle physics through intense particle beams and innovative design.
Neutrons on Classically Inexplicable Paths
Researchers at TU Wien tested the Leggett-Garg inequality using neutron interferometry. Results showed a violation, supporting quantum theory over classical explanations. The study challenges macroscopic realism, confirming quantum theory's unique nature.