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This research supposes the parallel study of Baryonium Dark Matter (BDM)manifestations in astroparticle collision in the atmosphere as well as amongthe traces of the massive objects that fall on the surface of the Earth.Characteristics of BDM disintegration events are able to be analyzed with asimilar technique as for hadroproproduction data on colliders. The HE eventthat was detected in the stratosphere in 1975 differs from the collision ofnuclei. The signatures of such events are 1) the circle distribution of heavysecondary hadrons with almost nothing inside the ring and 2) the presence ofheavy secondary particles with a mass out of range of known hadrons. The BDMtori that disintegrate for a few lower-mass BDMs in the atmosphere do show thecircle signature. The same signatures should be seen at super-heavy BDMcollapses on the Earth. The traces of such events are seen as pits or shafts inthe underground rock, which are organized in the circles. There are at leasttwo pieces of evidence of such holes: cenotes on the Yucatan peninsula (Mexico)and pits in Durrington Walls (England). In both phenomena, the vertical roundpits in the rock with a depth from 5 to 50 meters had been laid out in circles.In addition, a single round hole in the ground can be seen in Moschovi in theBalkans, where such shafts have been reused for the tumuli in the EarlyHelladic ages. These super heavy BDM collapses differ from the meteorite crash,because BDMs are not forming craters. The existence of these places around theglobe indicates the rare likelihood of meeting the supermassive BDM inproximity to Earth. The Tunguska meteorite could also be a BDM collapse.Finally, some suggestions are made about the production of BDM with the jetsfrom giant active Supermassive Black Holes (SMBH) in the Universe.

Baryonium Dark Matter: Events with Circle Configurations in the Atmosphere and on the Surface of Earth