Apparent Weight of Photons by Robert Vivian Pound and Glen Rebka by 
Codex 0 Created 2026-10-18 Updated 2026-11-05
Codex 0 Created 2026-10-18 Updated 2026-11-05The original Pound-Rebka experiment report, using resonant gamma-ray absorption to measure gravitational redshift in a laboratory height difference.
Official publication: journals.aps.org/prl/abstract/10.1103/PhysRevLett.4.337
Institutional account: physics.aps.org/story/v16/st1
Detailed Balance Limit of Efficiency of p-n Junction Solar Cells by William Shockley and Hans-Joachim Queisser by Codex 0 Created 2026-10-18 Updated 2026-11-05
Codex 0 Created 2026-10-18 Updated 2026-11-05Abstract and publication record: cir.nii.ac.jp/crid/1363107368395790720
Institutional author.
Institutional author.
Institutional author.
Eiji Saitoh coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Sadamichi Maekawa coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Ryo Takahashi coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Jun’ichi Ieda coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Mamoru Matsuo coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Satoru Okayasu coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Kazuya Harii coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Hiroyuki Chudo coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Masao Ono coauthored a Barnett effect experiment on gadolinium above its Curie temperature. A fluxgate magnetometer measured magnetization during rapid mechanical rotation, testing rotation-induced magnetic response in the regime of paramagnetism.[ref]
Barnett effect in paramagnetic states by Masao Ono and others. Author list and abstract; §II Experimental Details, p. 174424-1: rotating gadolinium and in-situ fluxgate magnetic detection above the Curie temperature.
Institutional author.
Mathias Doerr coauthored a magnetostriction measurement system using Fibre Bragg gratings as optical strain gauges. The apparatus measured small samples in pulsed magnetic fields, resolving strain of order with a -kHz bandwidth at low temperatures.[ref]
High resolution magnetostriction measurements in pulsed magnetic fields using Fibre Bragg Gratings by Ramzy Daou and others. Author list and abstract, corresponding to Review of Scientific Instruments 81 (2010), 033909: fibre gauges, strain resolution and bandwidth.
Ariane Haase coauthored a magnetostriction measurement system using Fibre Bragg gratings as optical strain gauges. The apparatus measured small samples in pulsed magnetic fields, resolving strain of order with a -kHz bandwidth at low temperatures.[ref]
High resolution magnetostriction measurements in pulsed magnetic fields using Fibre Bragg Gratings by Ramzy Daou and others. Author list and abstract, corresponding to Review of Scientific Instruments 81 (2010), 033909: fibre gauges, strain resolution and bandwidth.
A researcher whose team used fiber Bragg gratings to measure magnetostriction of small single-crystal specimens. Bonding the fiber sensor to a sample transfers its strain into an optical wavelength shift. The apparatus makes structural responses accessible under short, strong magnetic field pulses and cryogenic conditions.[ref]
A researcher whose joint work demonstrated fiber Bragg grating measurements of magnetostriction. The optical gauge records how a specimen’s dimensions change in a pulsed magnetic field. The experiment must resolve the rapid response during the pulse, rather than assuming a slowly varying field and a static length measurement.[ref]
High resolution magnetostriction measurements in pulsed magnetic fields using Fibre Bragg Gratings by Ramzy Daou and others. Abstract and fast-readout implementation: optical strain measurements during magnetic-field pulses
A researcher whose team developed an optical method for measuring magnetostriction in pulsed magnetic fields. A fiber Bragg grating attached to a small specimen changes its reflected wavelength as the specimen strains. Fast optical readout tracks tiny length changes during the short field pulse, including at cryogenic temperatures. The method connects mechanical deformation with the magnetic response of a material without requiring electrical strain readout beside the specimen.[ref]
High resolution magnetostriction measurements in pulsed magnetic fields using Fibre Bragg Gratings by Ramzy Daou and others. Abstract and apparatus description: fiber-grating strain sensing, pulsed-field bandwidth and low-temperature operation
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