Prof. Dr. Anto Sulaksono

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Prof. Dr. Anto Sulaksono adalah dosen dan peneliti di Departemen Fisika, FMIPA Universitas Indonesia sejak 1995. Ia lahir di Jakarta pada tanggal 21 April 1969. Ia lulus pada tahun 1992 dari Departemen Fisika, Universitas Indonesia dan meraih gelar masternya juga dari Departemen yang sama pada tahun 1996. Ia meraih gelar doktor dalam bidang Fisika Nuklir Teoritis dari Universitas Frankfurt pada tahun 2002 di bawah bimbingan Prof. Dr. J. A. Maruhn dan Prof. Dr.h.c.mult W. Greiner. Judul disertasinya adalah “Ein Relativistisches Punktkopplungs Model: Formale Unterschungen und Anwendung Auf Uberschwere Kerne.”

Minat penelitiannya saat ini adalah teori banyak benda kuantum dan penerapannya pada inti terbatas dan materi nuklir.
Teachings:

  1. Teori Medan Klasik
  2. Medan Elektromagnetik
  3. Fisika Nuklir
Publikasi Pilihan
Inspire-Hep
Scopus
Google Scholar
  1. B. N. Jayawiguna, I. Prasetyo, A. Sulaksono, and H. S. Ramadhan, Ultracompact object within a nonlocal Tolman VII model, Physical Review D 106, 104020 (2022).
  2. I. Prasetyo, H. Maulana, H. S. Ramadhan, A. Sulaksono, 2.6M⊙​ Compact Object and Neutron Stars within Eddington-Inspired Born-Infeld Theory of Gravity, Physical Review D 104, 084029 (2021).
  3. M.L. Pattersons and A. Sulaksono, Mass correction and deformation of slowly rotating anisotropic neutron stars based on Hartle–Thorne formalism, European Physical Journal C 81, 698 (2021).
  4. N. Liliani, J. P. Diningrum, A. Sulaksono, Tensor and Coulomb-exchange terms in the relativistic mean-field model with δ-meson and isoscalar-isovector coupling, Physical Review C 104, 015804 (2021).
  5. I. Prasetyo, H. S. Ramadhan, A. Sulaksono, Ultra-compact objects from semi-classical gravity, Physical Review D 103, 123536 (2021).
  6. I. H. Belfaqih, H. Maulana, and A. Sulaksono, White dwarfs and generalized uncertainty principle, International Journal of Modern Physics D 30, 2150064 (2021).
  7. M. F. Alfian Rangga Sakti and A. Sulaksono, Dark energy stars with a phantom field, Physical Review D 103, 084042 (2021).
  8. R. B. Mann, I. Husin, H. Patel, M. Faizal, and A. Sulaksono, Testing Short Distance Anisotropy in Space, Scientific Reports 11, 7474 (2021).
  9. A. Rahmansyah, A. Sulaksono, A.B. Wahidin, A. M. Setiawan, Anisotropic neutron stars with hyperons: implication of the recent nuclear matter data and observations of neutron stars, European Physical Journal C 80, 769 (2020).
  10. A. S. Rosyadi, A. Sulaksono, H. A. Kassim, N. Yusof, Brown dwarfs in Eddington-inspired Born-Infeld and beyond Horndeski theories,  European Physical Journal C 79, 1030 (2019).
  11. H. Maulana and A. Sulaksono, Impact of energy-momentum nonconservation on radial pulsations of strange stars, Physical Review D 100, 124014 (2019)
  12. R. Rizaldy, A. R. Alfarasyi, A. Sulaksono, and T. Sumaryada, Neutron-star deformation due to anisotropic momentum distribution of neutron-star matter, Physical Review C 100, 055804 (2019).
  13. M.D. Danarianto and A. Sulaksono, Overturning and apparent anisotropic pressure in Eddington-inspired Born-Infeld theory on compact stars, Physical Review D 100, 064042 (2019).
  14. A. M. Setiawan and A. Sulaksono, Anisotropic neutron stars and perfect fluid’s energy conditions, European Physical Journal C 79, 755 (2019).
  15. A. B. Wahidin, A. Rahmansyah and A. Sulaksono, Effect of scalar boson on fermionic dark stars, International Journal of Modern Physics D (in press 2019).
  16. C. Wibisono and A. Sulaksono, Information-entropic method for studying the stability bound of nonrelativistic polytropic stars within modified gravity theories, International Journal of Modern Physics D 27,1850051 (2018).
  17. I. Prasetyo, I. Husin, A.I. Qauli, H.S. Ramadhan and A. Sulaksono, Neutron stars in the braneworld within the Eddington-inspired Born-Infeld gravity, Journal of Cosmology and Astroparticle Physics 01, 027 (2018).
  18. Suparti, A. Sulaksono and T. Mart, Influence of the nucleon radius on the properties of slowly rotating neutron stars, Physical Review C 95, 045806 (2017).
  19. N. Liliani, A. M. Nugraha, J. P.  Diningrum, A. Sulaksono, Impacts of the tensor couplings of ω and ρ mesons and Coulomb-exchange terms on superheavy nuclei and their relation to the symmetry energy, Physical Review C 93, 054322 (2016).
  20. H. Pais, A. Sulaksono, B. K. Agrawal, C. Providência, Correlation of the neutron star crust-core properties with the slope of the symmetry energy and the lead skin thickness, Physical Review C 93, 045802 (2016).
  21. A. I. Qauli, M. Iqbal, A. Sulaksono, H. S. Ramadhan, Hyperons in neutron stars within an Eddington-inspired Born-Infeld theory of gravity, Phys.Rev. D 93, 104056 (2016).
  22. A. I. Qauli and A. Sulaksono, Quark matter at high density based on an extended confined isospin-density-dependent mass model, Physical Review D 93, 025022  (2016).
  23. T. Mart and A. Sulaksono, Reply to “Comment on ‘Nonidentical protons’ “, Physical Review C 93, 039802 (2016).
  24. N. Alam, A. Sulaksono, B.K. Agrawal, Diversity of neutron star properties at the fixed neutron-skin thickness of 208Pb, Physical Review C 92, 015804  (2015).
  25. A. Sulaksono, Anisotropic pressure and hyperons in neutron stars, International Journal of Modern Physics E 24, 1550007 (2015).
  26. S. Latifah, A. Sulaksono, and T. Mart, Boson star at finite temperature, Physical Review D 90, 127501 (2014).
  27. A. Sulaksono, Cold fusion reactions using neutron-rich projectiles, International Journal of Modern Physics E 22, 1350061 (2013).
  28. A. Sulaksono and L. Satiawati, Effects of density-dependent lepton fraction on the properties of protoneutron stars, Physical Review C 87, 065802 (2013).
  29. B.K. Agrawal, J.N. De, S.K. Samaddar, G. Colò, A. Sulaksono, Constraining the density dependence of the symmetry energy from nuclear masses, Physical Review C 87, 051306 (2013).
  30. T. Mart and A. Sulaksono, Reply to the Comment on Nonidentical protons, Physical Review C 88, 059802 (2013).
  31. T. Mart and A. Sulaksono, Nonidentical Protons, Physical Review C 87, 025807 (2013).
  32. A. Sulaksono and B. K. Agrawal, Existence of hyperons in the pulsar PSRJ1614-2230, Nuclear Physics A 895, 44 (2012).
  33. A. Sulaksono and B. K. Agrawal, Influence of the Effective Mass Modification of Weak Interacting Light Boson on the Properties of Neutron Stars, Few Body Systems  52, 193 (2012).
  34. B. K. Agrawal, A. Sulaksono and P. -G. Reinhard, Optimization of relativistic mean field model for finite nuclei to neutron star matter, Nuclear Physics A 882, 1 (2012).
  35. Kasmudin and A. Sulaksono, Impacts of parameters adjustment of relativistic mean field model on neutron star properties, International Journal of Modern Physics E 20, 1271 (2011).
  36. A. Sulaksono, T. J. Burvenich, P. O. Hess and J. A. Maruhn, Nonrelativistic limit of point-coupling model, International Journal of Modern Physics E 20, 139 (2011).
  37. A. Sulaksono, E. Marliana and A. Kasmudin, Effects of in-medium modification of weakly interacting light boson mass in neutron stars, Modern Physics Letters A 26, 367 (2011).
  38. A. Sulaksono and A. Kasmudin, Fine tuning in an effective field based relativistic mean field model, and properties of neutron-rich matter, Physical Review C 80, 054317 (2009).
  39. S. Wibowo and A. Sulaksono, Effects of the omega meson self coupling on the thermal properties of asymmetric nuclear matter, Modern Physics Letters A 24, 1067 (2009).
  40. T. Mart and A. Sulaksono, Effects of the neutrino trapping on the low-density instability of multi-component matter, Modern Physics Letters A 24, 1059 (2009).
  41. A. Sulaksono, T. J. Buervenich, P. -G. Reinhard and J. A. Maruhn, Criteria for nonlinear parameters of relativistic mean field models, Physical Review C 79, 044306 (2009).
  42. T. Mart and A. Sulaksono, Low-Density Instability of Multi-Component Matter with Trapped Neutrinos, Physical Review C 78, 025808 (2008).