On the detection of high-frequency relic gravitational waves

Бесплатный доступ

The specificity of the spectrum of relic gravitational waves formed at the inflationary and post-inflationary stages of the evolution of the early universe is considered for cosmological models based on modified theories of gravity and Einstein gravity. The possibility of detecting high-frequency relic gravitational waves by using the process of converting gravitons into photons in a constant and alternating magnetic field is considered. The sensitivity of detectors of this type is compared with the sensitivity of other existing and prospective detectors of high-frequency gravitational waves. Based on the analysis of the sensitivity assessment of various types of high-frequency gravitational wave detectors, a conclusion is made about the prospects for direct verification of cosmological inflation models using gravitational-wave antennas.

Еще

General relativity, modified gravity theories, gravitational waves, gravitational-wave detectors

Короткий адрес: https://sciup.org/142240754

IDR: 142240754   |   DOI: 10.17238/issn2226-8812.2023.3-4.188-198

Список литературы On the detection of high-frequency relic gravitational waves

  • Abbott B. P., Abbott R., Abbott T., Abernathy M., Acernese F., Ackley K., Adams C., Adams T., Addesso P., Adhikari R. and others, Observation of gravitational waves from a binary black hole merger, Physical review letters 116(6), 061102, 2016.
  • Gibbons G., Cosmological evolution of the rolling tachyon. Physics Letters B 537(1-2), 1–4, 2002.
  • Caldwell R. R., A phantom menace? Cosmological consequences of a dark energy component with super-negative equation of state. Physics Letters B 545(1-2), 23–29, 2002.
  • Nojiri S. and Odintsov S. D., Modified non-local-F (R) gravity as the key for the inflation and dark energy. Physics Letters B 659(4), 821–826, 2008.
  • Clifton T., Ferreira P. G., Padilla A. and Skordis C., Modified gravity and cosmology. Physics reports 513(1-3), 1–189, 2012.
  • Chervon S., Fomin I., Yurov V. and Yurov A. Scalar Field Cosmology. Series on the Foundations of Natural Science and Technology. WSP: Singapore, 2019.
  • Gangopadhyay M. R., Myrzakul S., Sami M. and Sharma M. K. Paradigm of warm quintessential inflation and production of relic gravity waves. Phys. Rev. D 103 (4), 043505, 2021.
  • Fomin I. V., Chervon S. V., Morozov A. N. and Golyak I. S. Relic gravitational waves in verified inflationary models based on the generalized scalar–tensor gravity. The European Physical Journal C 82(7), 642, 2022.
  • Chervon S. V. and Fomin I. V. Reconstruction of Scalar-Torsion Gravity Theories from the Physical Potential of a Scalar Field, Symmetry 15 (2), 291, 2023.
  • Fomin I. Gauss–Bonnet term corrections in scalar field cosmology, Eur. Phys. J. C 80 (12), 1145, 2020.
  • Manucharyan G. D., Fomin I. V. Corrections to standard inflationary models induced by Gauss - Bonnet scalar. Space, Time and Fundamental Interactions, (40) 119—131, 2022.
  • Morozov A. N., Golyak I. S., Fomin I. V. and Chervon S. V. Detectors of high-frequency gravitational waves based on the gravitational-optical resonance. Space, Time and Fundamental Interactions(41), 49–61, 2022.
  • Tanin E. H. and Tenkanen T., Gravitational wave constraints on the observable inflation. Journal of Cosmology and Astroparticle Physics 2021(01), 053, 2021.
  • LSC, LIGO Document Control Center Portal, 2021.
  • Li F.-Y., Tang M.-X. and Shi D.-P. Electromagnetic response of a Gaussian beam to high-frequency relic gravitational waves in quintessential inflationary models. Physical Review D 67(10), 104008, 2003.
  • Mitskievich N. V. and Nesterov A. I. Possible gravitational radiation detection using the geometric phase of a light beam. General Relativity and Gravitation 27, 361–366, 1995.
  • Zheng H. and Wei L. Experimental system to detect the electromagnetic response of high-frequency gravitational waves. Physical Review D 106(10), 104003, 2022.
  • Zheng H.,Wei L.,Wen H. and Li F. Electromagnetic response of gravitational waves passing through an alternating magnetic field: A scheme to probe high-frequency gravitational waves. Physical Review D 98(6), 064028, 2018.
  • Ejlli A., Ejlli D., Cruise A. M., Pisano G. and Grote H. Upper limits on the amplitude of ultra-highfrequency gravitational waves from graviton to photon conversion. The European Physical Journal C 79(12), 1032, 2019.
  • Ehret K., et. al. New ALPS results on hidden-sector lightweights, Physics Letters B 689(4-5), 149–155, 2010.
  • Ballou R., et. al. New exclusion limits on scalar and pseudoscalar axionlike particles from light shining through a wall, Physical Review D 92(9), 092002, 2015.
  • Anastassopoulos V., et. al. New CAST limit on the axion-photon interaction, arXiv preprint arXiv:1705.02290, 2017.
  • B¨ahre R., et. al. Any light particle search II—technical design report, Journal of Instrumentation 8(09), T09001, 2013.
  • Beacham J., et. al. Physics beyond colliders at CERN: beyond the standard model working group report, Journal of Physics G: Nuclear and Particle Physics 47(1), 010501, 2019.
  • Armengaud E., et. al. Conceptual design of the international axion observatory (IAXO), Journal of Instrumentation 9(05), T05002, 2014.
  • Ehret K., et. al. Resonant laser power build-up in ALPS—A “light shining through a wall” experiment, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment 612(1), 83–96, 2009.
  • Pugnat P., et. al. Search for weakly interacting sub-eV particles with the OSQAR laser-based experiment: results and perspectives, The European Physical Journal C 74, 1–7, 2014.
  • Garza J. G., Micromegas for the search of solar axions in CAST and low-mass WIMPs in TREXDM. PhD thesis. Universidad de Zaragoza, 2016.
  • Rudenko V. N. and Sazhin M. V. Laser interferometer as a gravitational wave detector, Soviet Journal of Quantum Electronics 10(11), 1366, 1980.
  • Golyak I., Morozov A., Nazolin A., Tabalin S., Esakov A. and Fomin I. Information – Measuring Complex to Detect High Frequency Gravitational Waves. Radio Engineering 2, 13–23, 2021.
Еще
Статья научная