Emilija Celakoska

Dr. Emilija Celakoska

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Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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23 September 2010 in International Journal of Theoretical Physics
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KTKostadin Trenčevski
Kostadin Trenčevski
ECEmilija Celakoska
Emilija Celakoska
Vladimir BalanVladimir Balan
Vladimir Balan

1 August 2018 in Annals of Physics
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Journal Article
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KTKostadin Trenčevski
Kostadin Trenčevski
ECEmilija Celakoska
Emilija Celakoska

2 June 2020 in The European Physical Journal Plus
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KTKostadin Trencevski
Kostadin Trencevski
ECEmilija Celakoska
Emilija Celakoska

1 January 2015 in International Journal of Contemporary Mathematical Sciences
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Journal Article
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ECEmilija Celakoska
Emilija Celakoska
DCDushan Chakmakov
Dushan Chakmakov
MPMirko Petrushevski
Mirko Petrushevski

26 February 2011 in Open Physics
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KTKostadin Trenchevski
Kostadin Trenchevski
ECEmilija Celakoska
Emilija Celakoska
Total precession (geodetic precession and frame dragging) depends on the velocity of each source of gravitation, which means that it depends on the choice of the coordinate system. We consider the latter as an anomaly specifically in the Gravity Probe B experiment, we investigated it and solved this anomaly. Thus, we proved that if our present expression for the geodetic precession is correct, then the frame dragging should be 25% less than its predicted value.

1 November 2011 in Journal of Dynamical Systems & Geometric Theories
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Journal Article
Closed access
KTKostadin Trenchevski
Kostadin Trenchevski
ECEmilija Celakoska
Emilija Celakoska
In this paper we consider equations of motion for 2-body problem according to an observer close to one of the gravitational bodies. The influence of the Thomas precession of the observer’s frame has an important role. The equations of motion are based on a nonlinear connection modified by the action of an orthogonal tensor which synchronizes the 4-velocities of the considered two bodies. Finally we present periastron shift according to an observer inside the gravitational field, using the orthonormal coordinates. This is different approach than that used in General Relativity where the periastron shift is only given as observed far from the massive bodies.