Professor
Succeeds Max Planck at the Friedrich Wilhelm University in Berlin
Follow Erwin Rudolf Josef Alexander Schrodinger through 94 dated historical records for Austria.
A chronological timeline drawn from matching World History Database records.
Succeeds Max Planck at the Friedrich Wilhelm University in Berlin
Participates actively in the major physics colloquia of Berlin after succeeding Max Planck in the city's leading theoretical-physics chair.
Receives early nominations for the Nobel Prize in Physics as the international significance of his wave-mechanics work becomes widely recognized.
Continues receiving international recognition for wave mechanics as his formulation becomes a standard foundation of quantum theory.
Continues research on the conceptual foundations of quantum theory while questioning purely statistical interpretations of the wave function.
Maintains an active programme of theoretical research in Berlin while engaging with leading physicists working on quantum mechanics and field theory.
Continues challenging aspects of the emerging Copenhagen interpretation and argues for a more complete wave-based account of quantum phenomena.
Schrodinger decides to leave Germany; he disliked the Nazis anti-semitism
Becomes a Fellow of Magdalen College at the University of Oxford
Shares the Nobel Prize in Physics for discoveries in atomic theory and quantum mechanics.
Presents his Nobel lecture on wave mechanics and explains the development and physical meaning of the new quantum formalism.
Shares the 1933 Nobel Prize in Physics with Paul Dirac for the discovery of new productive forms of atomic theory.
Declines an offered permanent position at Princeton University and continues his search for a suitable European academic post.
Delivers lectures at Princeton University on quantum mechanics and related theoretical problems after leaving Germany.
Responds to the Einstein-Podolsky-Rosen argument with papers exploring the consequences of quantum correlations and the completeness of quantum mechanics.
Introduces and develops the concept later known as quantum entanglement to describe the inseparability of correlated quantum systems.
Highlights the tension between microscopic superposition and everyday observation.
Introduces the cat thought experiment to illustrate quantum measurement problems.
Analyzes how measurement choices on one part of an entangled system can constrain descriptions of the other, anticipating the modern concept of quantum steering.
Takes up a position at the University of Graz in Austria
Returns to Austria to take a professorship at the University of Graz after several years in Britain.
Continues research and teaching in theoretical physics at Graz while political conditions in Austria grow increasingly unstable.
Loses his university position after the German annexation of Austria because his earlier departure from Nazi Germany is treated as politically suspect.
Leaves Austria after the Anschluss and escapes first to Italy before seeking a new academic position elsewhere in Europe.
Returns temporarily to Oxford after fleeing Austria and resumes contact with British academic colleagues.
Moves to Dublin after receiving an invitation to help establish a new centre for advanced theoretical research in Ireland.
Takes a temporary academic position at the University of Ghent before moving to Ireland.
Becomes director of the School of Theoretical Physics at the newly established Dublin Institute for Advanced Studies.
Develops the research programme of the Dublin Institute for Advanced Studies and helps establish it as an international centre for theoretical physics.
Pursues mathematical approaches to unifying gravitation and electromagnetism while directing theoretical-physics research in Dublin.
Argues in his What Is Life? lectures that hereditary information could be encoded in an aperiodic molecular structure within living cells.
Delivers the celebrated What Is Life? lectures at Trinity College Dublin under the auspices of the Dublin Institute for Advanced Studies.
Publication of "What Is Life?"
Explains biological organization using the language of thermodynamics and describes living systems as sustaining order through exchanges with their environment.
Develops the idea that living organisms maintain ordered structure by exploiting highly organized molecular processes in his book What Is Life?.
Continues leading theoretical research in Dublin after the Second World War while working on quantum foundations and unified-field ideas.
Publishes Statistical Thermodynamics, presenting a concise treatment of entropy, ensembles and the statistical foundations of thermodynamic behaviour.
Continues mathematical investigations into general relativity and attempts to formulate unified descriptions of gravitation and electromagnetism.
Publishes further work on field theory as part of his sustained effort to find a unified mathematical framework for fundamental interactions.
Continues lecturing and writing on the conceptual foundations of quantum mechanics, emphasizing unresolved questions about measurement and physical reality.
These dates and descriptions come from the historical_events database. Exact duplicate records have been collapsed. Names are grouped by the country, Name 2 and Name 1 fields; records with missing Name 2 cannot be reliably assigned to an individual biography. Check the underlying sources before formal citation.