A set of 29 low order secular resonance relations in the near-Earth satellite dynamics has been obtained and their influence on dynamic evolution of objects has been investigated on time intervals of 100 years. The analysis of the results shows that secular resonances are very common phenomena in the near-Earth orbital space. Sharp resonances are concentrated in the orbital space areas where the semi-major axes a 20000 km and the inclinations i 50 • . In some areas objects have several secular resonances. The superposition of several secular resonances or orbital and secular resonances are the source of randomness in the motion of objects. To study the effect of secular resonances on uncontrolled near-Earth objects we use a numerical-analytical approach consisting in (Bordovitsyna et al. 2012): − identifying the secular resonances based on an analytical method on condition that the third body orbit is an ellipse with revolving nodal and apsidal lines; − numerical modeling the long-term orbital evolution using the software package Numerical Model of Motion of Satellite Systems (Bordovitsyna et al. 2009) realized in a parallel programming environment at the Tomsk State University computing cluster; − MEGNO-analysis of dynamic evolution of objects (Cincotta et al. 2003).A complete set of 29 low order resonance relations has been presented in Bordovitsyna et al. (2014). This set may be considered as a small modification of the resonance relation list obtained by Cook (1962) and by Hughes (1980Hughes ( , 1981.The long-term orbital evolution of uncontrolled satellites of systems GLONASS, GPS and BEIDOU IGSO have been simulated numerically using the mentioned software package. It was shown that the superposition of several sharp secular resonances or proximity of the object's mean motion to the tesseral resonance in the presence of a sharp secular resonance are the source of randomness in the motion of objects. This effect appears after the eccentricity increases up to 0.6. See detailes in (Bordovitsyna et al. 2014).To study the distribution of secular lunisolar resonances in the near-Earth orbital space and their effect on the uncontrolled object dynamics, an extensive numerical experiment has been carried out. Numerical values of 29 secular resonance relations have been calculated for the following colections of eccentricity (e), inclination (i) and semi-major axis (a): e = 0.01 and 0.1 -0.9 with step 0.1; i = 0 • -90 • with step 5 • ; a = 8000 km -55000 km with step 1 km. The influence of secular resonances on the dynamic evolution of 200 model near-Earth space objects has been investigated on the time interval of 100 years. Objects which go through (1) one or several secular resonances, (2) tesseral and secular resonances simultaneously and (3) have no resonances have been considered. The analysis of the 176