Birth of Erwin Rudolf Josef Alexander Schr”dinger
Birth of Erwin Rudolf Josef Alexander Schr”dinger
Follow Erwin Rudolf Josef Alexander Schrodinger through 94 dated historical records for Austria.
A chronological timeline drawn from matching World History Database records.
Birth of Erwin Rudolf Josef Alexander Schr”dinger
Attends the Akademisches Gymnasium
Between 1906 and 1910 Schrodinger studies in Vienna under Franz Serafin Exner (1849-1926) and Friedrich Hasenohrl (1874-1915)
Begins university study in Vienna, where courses in theoretical physics and mathematics provide the foundation for his later work on quantum theory.
Studies theoretical physics under Friedrich Hasenohrl, whose teaching strongly shapes his approach to mathematical and statistical physics.
Develops a strong command of eigenvalue problems in continuous media, mathematical techniques that later become central to his formulation of wave mechanics.
Gains practical experience in experimental physics through work associated with Franz Exner and Fritz Kohlrausch while completing his university studies.
Receives his doctorate from the University of Vienna for research on the conduction of electricity over the surface of insulators in moist air.
Begins voluntary military service in fortress artillery after completing his doctorate, temporarily interrupting his academic work.
Becomes an assistant in experimental physics under Franz Exner and gains laboratory experience that later informs his theoretical reasoning.
Investigates radioactivity and the statistical character of radioactive decay while working in Vienna.
Studies the kinetic theory of solids and the dynamics of crystal lattices as part of his early research programme.
Completes his habilitation and obtains the qualification required to teach independently at university level.
Enters wartime service as an artillery officer in the Austro-Hungarian forces while continuing to think and write about physics.
Continues scientific work during military service and maintains active engagement with theoretical physics despite wartime duties.
Serves on the Italian front as an artillery officer while remaining intellectually active in physics.
Continues developing ideas in statistical and theoretical physics during the later years of the First World War.
Begins a substantial programme of research on physiological optics and colour vision that continues into the early 1920s.
Returns to academic work in Vienna after the war and resumes research in theoretical and experimental physics.
Publishes work on colour theory and physiological optics, extending his interests beyond conventional theoretical physics.
Marries Annemarie Bertel while establishing his academic career in Germany.
Accepts an academic assistantship in Jena, beginning a rapid series of university appointments in Germany.
Moves from Jena to Stuttgart as an extraordinary professor and continues research in theoretical physics and colour vision.
Takes an ordinary professorship at Breslau during a period of rapid advancement through German universities.
Accepts the chair of theoretical physics at the University of Zurich, beginning the most productive period of his scientific career.
Works on thermodynamics, statistical mechanics and the specific heats of solids during his early years at Zurich.
Investigates problems in atomic spectra as his attention increasingly shifts toward unresolved questions in quantum theory.
Begins intensive work on quantum statistics and the statistical behaviour of particles, helping redirect his research toward quantum foundations.
Submits a paper on Einstein's gas theory that forms part of the immediate intellectual background to his development of wave mechanics.
Studies Louis de Broglie's matter-wave ideas and recognizes that they may provide a new route to understanding atomic structure.
Submits the first paper in his series on quantization as an eigenvalue problem, applying wave mechanics to the hydrogen atom.
Publishes the second paper in his wave-mechanics series and extends the new formalism beyond the first hydrogen calculations.
Publishes a demonstration that his wave mechanics and Heisenberg's matrix mechanics are mathematically equivalent formulations of quantum theory.
Publishes work on the relation between microscopic and macroscopic mechanics that introduces what later become known as coherent states for the harmonic oscillator.
Publishes an English-language account of wave mechanics in Physical Review under the title An Undulatory Theory of the Mechanics of Atoms and Molecules.
Schrodinger publishes in Annalen der Physik the paper "Quantisierung als Eigenwertproblem" on wave mechanics and what is now known as the Schrodinger equation
Schrodinger publishes in Annalen der Physik the paper "Quantisierung als Eigenwertproblem" on wave mechanics and what is now known as the Schrodinger equation
Uses the new wave equation to derive the allowed energy levels of the hydrogen atom from an eigenvalue problem rather than prescribed electron orbits.
Proposes a continuous wave-based physical interpretation of the quantum state while developing his new formulation of quantum mechanics.
Takes part in the fifth Solvay Conference, where leading physicists debate the interpretation and foundations of the newly developed quantum mechanics.
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.