Dr. Cuneyt Celiktas
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Dr. Cuneyt Celiktas

Professor
Ege University, Turkiye

Highest Degree
Ph.D. in Nuclear Physics from Ege University, Turkiye

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Biography

Dr. Cuneyt Celiktas is currently working as Associate Professor at Ege University, Turkey. He has completed his Ph.D. and MSc in Nuclear Physics from same University in 20101 & 1995 respectively. His main area of interest focuses on Physics, Radiation, Scientific Technology, Instrumental Technology, and Nuclear Energy. He has published 43 in journals contributed as author/co-author.

Area of Interest:

Physics
100%
Radiation
62%
Scientific Technology
90%
Instrumental Technology
75%
Nuclear Energy
55%

Research Publications in Numbers

Books
0
Chapters
0
Articles
0
Abstracts
0

Selected Publications

  1. Tektas, G. and C. Celiktas, 2017. Design of a virtual function generator for signal generation. Adv. Applied Sci., 2: 23-27.
  2. Tektas, G. and C. Celiktas, 2017. Comparison of a designed virtual counter with a real counter. AIP Conf. Proc., Vol. 1815. 10.1063/1.4976418.
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  3. Schlattauer, L., L. Parali, J. Pechousek, I. Sabikoglu and C. Celiktas et al., 2017. Calibration of gamma-ray detectors using Gaussian photopeak fitting in the multichannel spectra with LabVIEW-based digital system. Eur. J. Phys., Vol. 38. 10.1088/1361-6404/aa7a7a/meta.
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  4. Ermis, E.E. and C. Celiktas, 2017. Enhancement of energy spectra through constant fraction timing method. AIP Conf. Proc., Vol. 1815. 10.1063/1.4976405.
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  5. Pechousek, J., D. Konecny, P. Novak, L. Kouril, P. Kohout, C. Celiktas and M. Vujtek, 2016. Software emulator of nuclear pulse generation with different pulse shapes and pile-up. Nucl. Instruments Methods Phys. Res. Sect. A: Accelerators Spectrometers Detectors Assoc. Equipment, 828: 81-85.
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  6. Ermis, E.E., F.B. Pilicer, E. Pilicer and C. Celiktas, 2016. A comprehensive study for mass attenuation coefficients of different parts of the human body through Monte Carlo methods. Nucl. Sci. Tech., Vol. 27. 10.1007/s41365-016-0053-2.
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  7. Ermis, E.E., C. Celiktas and E. Pilicer, 2016. A method for coincidence timing resolution enhancement. Rev. Scient. Instrum., Vol. 87. 10.1063/1.4948925.
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  8. Tektas, G. and C. Celiktas, 2015. Comparison of a designed virtual oscilloscope with a real oscilloscope. EPJ Web Conf., Vol. 100. 10.1051/epjconf/201510004004.
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  9. Tektas, G. and C. Celiktas, 2015. Applying virtual oscilloscope to signal measurements in scintillation detectors. Radiat. Sci. Tech., 1: 1-5.
  10. Ermis, E.E., E. Pilicer and C. Celiktas, 2015. Comparison of the simulated gamma-ray attenuation coefficients with the real measurements. Nucl. Sci. Tech., Vol. 26. 10.13538/j.1001-8042/nst.26.050401.
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  11. Ermis, E.E., E. Pilicer and C. Celiktas, 2015. A theoretical way to determine gamma-ray mass attenuation coefficients of materials. Turk. J. Phys., (In Press). .
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  12. Ermis, E.E. and C. Celiktas, 2015. Testing the FLUKA Monte Carlo program performance using the experimental alpha energy spectrum. Radiat. Sci. Tech., 1: 6-9.
  13. Ermis, E.E. and C. Celiktas, 2015. Mass attenuation coefficient calculations of different detector crystals by means of FLUKA Monte Carlo method. EPJ Web Conf., Vol. 100. 10.1051/epjconf/201510002003.
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  14. Ermis, E.E., G. Tektas, Z. Ozcelik, C. Celiktas and J. Pechousek, 2015. Comparison of energy resolution of NaI(Tl) scintillation detectors obtained by analog and digital ways. Radiat. Sci. Tech., 1: 10-12.
  15. Ermis, E.E., E. Pilicer and C. Celiktas, 2015. A theoretical way to determine gamma-ray mass attenuation coefficients of materials. Turk. J. Phys., 39: 91-113.
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  16. Ermis, E.E., G. Tektas, E. Pilicer, C. Celiktas and J. Pechousek, 2014. Analogue and digital analysis of the effects of some parameters in determination of the best experimental energy resolution. Turk. J. Phys., 38: 203-213.
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  17. Ermis, E.E., C. Celiktas and E. Pilicer, 2014. Comparison of theoretical and experimental alpha energy spectra. Open J. Mod. Phys., 1: 59-65.
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  18. Ermis, E.E., C. Celiktas and E. Pilicer, 2014. A method to enhance coincidence time resolution with applications for medical imaging systems (TOF/PET). Radiat. Meas., 62: 52-59.
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  19. Celiktas, C., E.E. Ermis and E. Pilicer, 2014. Note on the comparison of experimental and simulated gamma energy spectra for NaI with 137Cs, 60Co and 241Am. Ann. Nuclear Energy, 73: 355-360.
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  20. Akcaglar, S., S. Akdurak, M. Bayburt and C. Celiktas, 2014. Development of an amplifier for nuclear spectrometers. Sci. Technol., 4: 31-41.
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  21. Ermis, E.E., C. Celiktas and H. Denizli, 2013. Comparison of resolving time values of different scintillation detectors in the coincidence experiments. J. Radioanal. Nuclear Chem., 295: 1377-1383.
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  22. Ermis, E.E. and C. Celiktas, 2013. Time resolution investigations for general purpose plastic scintillation detectors in different thicknesses. J. Radioanal. Nuclear Chem., 295: 523-536.
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  23. Ermis, E.E. and C. Celiktas, 2013. Time resolution comparison of general purpose plastic scintillation detectors for low-energy beta particles by means of timing methods. Balkan Phys. Lett., 21: 257-265.
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  24. Ermis, E.E. and C. Celiktas, 2013. Analysis of detector-source distance and detector bias voltage for time resolution of plastic scintillation detectors. Int. J. Instrum. Sci., 2: 1-5.
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  25. Celiktas, C., M. Bayburt and S. Bayburt, 2013. Energy resolution improvement of a CdTe detector by means of a timing technique. Int. J. Instrum. Sci., 2: 6-12.
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  26. Ermis, E.E. and C. Celiktas, 2012. Timing applications to improve the energy resolution of NaI(Tl) scintillation detectors. Int. J. Instrum. Sci., 1: 54-62.
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  27. Ermis, E.E. and C. Celiktas, 2012. Effects of detector-source distance and detector bias voltage variations on time resolution of general purpose plastic scintillation detectors. Applied Radiat. Isotopes, 70: 2682-2685.
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  28. Ermis, E.E. and C. Celiktas, 2012. Determination of beta attenuation coefficients by means of timing method. Ann. Nuclear Energy, 41: 115-118.
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  29. Ermis, E.E. and C. Celiktas, 2012. Alpha energy resolution enhancement of a Si surface barrier detector. J. Radioanal. Nuclear Chem., 293: 869-875.
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  30. Ermis, E.E. and C. Celiktas, 2012. A different way to determine the gamma-ray linear attenuation coefficients of materials. Int. J. Instrum. Sci., 1: 41-44.
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  31. Celiktas, C., E.E. Ermis and M. Bayburt, 2012. Energy resolution improvement of NaI(Tl) scintillation detectors by means of a timing discrimination method. J. Radioanal. Nuclear Chem., 293: 377-382.
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  32. Celiktas, C., 2012. Selection of beta signals in electronic noise band. J. Radioanal. Nuclear Chem., 293: 419-423.
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  33. Celiktas, C., 2012. A method to obtain a noiseless beta spectrum. J. Radioanal. Nuclear Chem., 292: 1317-1323.
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  34. Celiktas, C. and E.E. Ermis, 2012. Alpha energy resolution improvement of a general purpose plastic scintillation detector. J. Radioanal. Nuclear Chem., 293: 715-720.
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  35. Celiktas, C., 2011. A method to determine the gamma-ray linear attenuation coefficient. Ann. Nuclear Energy, 38: 2096-2100.
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  36. Avci, O., S. Bayburt, M. Bayburt and C. Celiktas, 2011. Development of an arbitrary function generator and test system for nuclear spectrometers. Radiat. Meas., 46: 730-733.
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  37. Celiktas, C. and Y. Arslan, 2009. Determination of linear attenuation coefficients of materials by using timing method. Instrum. Sci. Technol., 37: 431-436.
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  38. Celiktas, C., 2008. Development of a discrimination set-up. Instrum. Sci. Technol., 36: 432-436.
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  39. Selvi, S. and C. Celiktas, 2007. Compton suppression through rise-time analysis. Applied Radiat. Isotopes, 65: 1265-1268.
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  40. Celiktas, C., 2007. Improving the MCA spectra of BC‐400 plastic scintillation detectors at room temperature. Instrum. Sci. Technol., 36: 88-96.
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  41. Celiktas, C., 2007. Energy resolution improvement of the gamma spectrum of 133Ba radioisotope by means of a timing technique. Instrum. Sci. Technol., 35: 537-541.
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  42. Celiktas, C., 2007. Development of two spectrometers for the noiseless β energy spectrum of radiocarbon at room temperature. Instrum. Sci. Technol., 35: 141-152.
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  43. Celiktas, C., 2007. Development of a setup for the discrimination of β+ and γ rays. Instrum. Sci. Technol., 35: 411-418.
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  44. Celiktas, C., 2007. Application of a developed setup to β-rays to improve the β energy spectrum. Nukleonika, 52: 47-49.
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  45. Celiktas, C., 2007. An investigation for obtaining pure energy spectra at room temperature. Instrum. Sci. Technol., 35: 341-348.
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  46. Celiktas, C., 2007. An apparatus to obtain a pure annihilation peak. Instrum. Sci. Technol., 35: 75-83.
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  47. Celiktas, C., 2006. Improvement of an energy spectrum by means of a timing technique. Instrum. Sci. Technol., 34: 341-346.
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  48. Celiktas, C., 2006. An application of a timing measurement: Separation of a photo peak. Instrum. Sci. Technol., 34: 335-340.
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  49. Celiktas, C., 2006. An apparatus for β-γ ray separation. Instrum. Sci. Technol., 34: 455-461.
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  50. Celiktas, C. and C. Tav, 2005. A method for obtaining the pure annihilation peak of 22Na radioisotope. Radiat. Meas., 39: 569-572.
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  51. Celiktas, C., S. Selvi and G. Yegin, 2004. Improving the resolution of beta scattering spectroscopy. Radiat. Phys. Chem., 71: 1009-1013.
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  52. Celiktas, C., 2004. Improvement of electron scattering and transmission spectra on 204Tl isotope. Nuclear Instrum. Methods Phys. Res. Sect. B: Beam Interact. Mate. Atoms, 222: 301-306.
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  53. Selvi, S. and C. Celiktas, 2002. Revealing low-energy part of the beta spectra. Nuclear Instrum. Methods Phys. Res. Sect. A: Accel. Spectrom. Detect. Assoc. Equip., 482: 449-456.
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  54. Celiktas, C., 2001. Beta spectrometers with surface barrier detector and plastic scintillator: Applications to 90Sr, 204Tl, 210Pb and 14C. Turk. J. Phys., 25: 97-107.
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