This work proposes a technique for the controlled incorporation of nanoinclusions into a polymer matrix, which, as expected, will help resolve the contradiction in the requirements asked of polymer film coats, that is, good adhesion and above‐average tribological properties, including the high wear resistance. The study introduces and puts to the test an approach by performing the controlled incorporation of fullerene‐like nanoinclusions. The results of experimental verification, that is, the tribological profile of resultant nanocomposite were presented. It was found that a polyacetal matrix reinforced with the fullerene‐like nanoinclusions demonstrated a more stable behavior in tribological tests. These polymer films showed slightly lower coefficients of friction. This result can be considered successful and promising; without changing the nanocomposite composition, a tribological enhancement was achieved by manipulating the nanoparticle distribution within the polymer matrix. This study sought to create a three‐dimensional structure of nanoinclusions, specifically a graphite‐like hexagonal structure, that is, “columns” with a height equal to the film thickness and located at the nodes of the hexagonal lattice. The research concept was experimentally verified by comparing polymer films with a different distribution of nanoinclusions integrated into them. The filler fractions were 2 wt% in all films regardless of nanoparticle distribution. A polymer film with a uniform distribution of nanoinclusions was regarded as a baseline. A film with an ordered arrangement of nanoinclusions showed a 40% greater wear resistance (the number of cycles to film fragmentation) and a 39% lower coefficient of friction.