ForschungTopical Groups
Tests of fundamental physics: Gravity

Tests of fundamental physics: Gravity

Design and realisation of tests of General Relativity, studying gravity at very short distances, relativistic effects in matter wave interferometers.


  • Sophisticated tests of Einsteins's theory of relativity, e.g. possible temporal variation of the gravitational constant, test of the weak and strong equivalence principle, Yukawa-test for the Earth-Moon distance, estimation of metric parameters gamma and alpha
  • Measuring gravity at short distances with micro-machined optomechanical force sensors and levitated nanoparticle based force sensors
  • Relativistic effects in matter wave interferometers, quantum tests of the equivalence principle, dark energy search in the Einstein Elevator
  • Clock tests in gravitational fields
  • Testing local Lorentz invariance with classical and quantum systems in the solar system
  • Tests of fundamental properties of quantum mechanics, including tests of the interaction of quantum systems with gravitation


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Albers H, Corgier R, Herbst A, Rajagopalan A, Schubert C, Vogt C et al. All-optical matter-wave lens using time-averaged potentials. Communications Physics. 2022 Mär 16;5(1). 60.




Bahamonde S, Golovnev A, Guzmán M, Said JL, Pfeifer C. Black holes in f(T,B) gravity: exact and perturbed solutions. Journal of Cosmology and Astroparticle Physics. 2022 Jan 19;2022(1):037. 037.


Singh VV, Biskupek L, Müller J, Zhang M. Earth rotation parameter estimation from LLR. Advances in Space Research. 2022 Okt 15;70(8):2383-2398.


Spengler F, Rätzel D, Braun D. Perspectives of measuring gravitational effects of laser light and particle beams. New journal of physics. 2022 Mai 10;24(5). 053021.


Zhang M, Müller J, Biskupek L, Singh VV. Characteristics of differential lunar laser ranging. Astronomy and Astrophysics. 2022 Mär;659. A148.


Biskupek L, Müller J, Torre JM. Benefit of new high-precision llr data for the determination of relativistic parameters. Universe. 2021 Feb 3;7(2). 34.


Deppner C, Herr W, Cornelius M, Stromberger P, Sternke T, Grzeschik C et al. Collective-Mode Enhanced Matter-Wave Optics. Physical review letters. 2021 Sep 3;127(10). 100401.


Frye K, Abend S, Bartosch W, Bawamia A, Becker D, Blume H et al. The Bose-Einstein Condensate and Cold Atom Laboratory. EPJ Quantum Technology. 2021 Jan 4;8(1). 1.




Gebbe M, Siemß J-N, Gersemann M, Müntinga H, Herrmann S, Lämmerzahl C et al. Twin-lattice atom interferometry. Nature Communications. 2021 Mai 5;12(1). 2544.


Hensel T, Loriani S, Schubert C, Fitzek F, Abend S, Ahlers H et al. Inertial sensing with quantum gases: a comparative performance study of condensed versus thermal sources for atom interferometry. European Physical Journal D. 2021 Mär 22;75. 108.


List M, Lämmerzahl C. Das Äquivalenzprinzip: Grundlagen, Tests und neueste Messungen. Springer, 2021.

Pfeifer C, Schuster S. Static spherically symmetric black holes in weak f (T)-gravity. Universe. 2021;7(5). 153.


Roura A, Schubert C, Schlippert D, Rasel EM. Measuring gravitational time dilation with delocalized quantum superpositions. Physical Review D. 2021 Okt 1;104(8). 084001.


Singh VV, Biskupek L, Müller J, Zhang M. Impact of non-tidal station loading in LLR. Advances in space research. 2021 Jun 15;67(12):3925-3941.




Zhong L, Sośnica K, Weigelt M, Liu B, Zou X. Time-Variable Gravity Field from the Combination of HLSST and SLR. Remote sensing. 2021 Sep 2;13(17). 3491.


Albers H, Herbst A, Richardson LL, Heine H, Nath D, Hartwig J et al. Quantum test of the Universality of Free Fall using rubidium and potassium. European Physical Journal D. 2020 Jul 1;74(7). 145.


Canuel B, Abend S, Amaro-Seoane P, Badaracco F, Beaufils Q, Bertoldi A et al. ELGAR: a European Laboratory for Gravitation and Atom-interferometric Research. Classical and Quantum Gravity. 2020 Okt 28;37(22). 225017.


Corgier R, Loriani S, Ahlers H, Posso-Trujillo K, Schubert C, Rasel EM et al. Interacting quantum mixtures for precision atom interferometry. New Journal of Physics. 2020 Dez 11;22(12). 123008.


Hendi SH, Tavakkoli AM, Panahiyan S, Panah BE, Hackmann E. Simulation of geodesic trajectory of charged BTZ black holes in massive gravity. European Physical Journal C. 2020 Jun 1;80(6). 524.


Hohmann M, Pfeifer C, Voicu N. Relativistic kinetic gases as direct sources of gravity. Physical Review D. 2020 Jan 15;101(2). 024062.


Involved QF Members
Members Institution Relevant Expertise
Eva Hackmann, LeaderZARMTests of GR and of alternative/modified theories of gravity
Claus LämmerzahlZARMQuantum Sensors in Free Fall; Relativistic Geodesy; Quantum Objects in Gravity
Florian SeemannZARMQuantum Sensors in Free Fall
Roy BarzelZARMQuantum Objects in Gravity
Jürgen MüllerLUHRelativistic Geodesy; LLR Relativity Test; Application of Quantum Gravimetry
Liliane BiskupekLUHLLR Relativity Test
Ernst M. RaselLUHQuantum Gravimeters; Atom-Chip Based Gravimeters and Inertial Sensors
Uwe BrandPTBExperimental investigation of the Gravitational 1/r2 Law at separations down to sub-µm
Gerhard HeinzelAEIExperimental investigation of the Gravitational 1/r2 Law at separations down to sub-µm
Christian PfeiferZARMGeneral relativity, Quantum Gravity Phenomenology
Sven HerrmannZARMmicrogravity experiments
Christian VogtZARMmicrogravity experiments
Dennis PhilippZARM
Mingyue ZhangLUH
Vishwa SinghLUH
Naceur GaaloulLUH
Christian SchubertLUH
Dennis SchlippertLUH
Dennis RätzelZARMTests of GR and modified gravity, Quantum Objects in Gravity
Sven AbendLUH
Marian CepokZARM
Ekim HanimeliZARM