Identification of Mosaic Order Area of Geometric Triangular Chiral Hexagonal Complexes in Interphase with Morphology Biosignature Pattern in the Interior of Martian Nested Impact Craters


From evolutionary miniaturization activation of ancestral larger genes stocks, an electromagnetic field derivate from cancer microscopic collision events participates in the elaboration of geometric complexes and chiral biomolecules that serve to build bodies with embryoid print as it develops during gestation. This miniaturization platform literally allows us to see what would otherwise remain completely invisible. In concordance with our observations collision extreme chaos generates in space time interval geometric scalable invariant extreme order. To determine whether our predictions are valid, we select Mars one of the planets with highest rate collision impact craters. The idea that impact events produce major geological effects that go far beyond the production of craters has recently been emphasized. We wonder if we could predict geometric chiral triangular hexagonal complexes in Martian landscape similar to those documented at microscopic, macroscopic, megascopic levels. We resolved to investigate the geomorphology patterns of more than 4000 collision impact craters in Mars landscape using images from Google Mars platforms, and HIRISE (High resolution imaging science experiment camera from the University of Arizona) based on a pattern recognition images algorithm we identified Mars mosaic order area (MOA). MOA is a circular cluster of overlap craters organized in apparent visible cycle sequential order oriented counterclockwise and consisting of nine craters that structure visible and measurable geometry in interface with biosignature morphologies in their interior not having been previously documented. Crater, therefore, is a step forward in understanding how collisions influence life, both on Earth and on other planets. We were pleased that the correctly pattern image algorithm predicted the identification of irreducible geometry matrix of GTCHC complexes in Martian impact craters. Cancer can inform astrobiology.

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Diaz, J. and Paris, K. (2014) Identification of Mosaic Order Area of Geometric Triangular Chiral Hexagonal Complexes in Interphase with Morphology Biosignature Pattern in the Interior of Martian Nested Impact Craters. International Journal of Astronomy and Astrophysics, 4, 301-317. doi: 10.4236/ijaa.2014.41025.

Conflicts of Interest

The authors declare no conflicts of interest.


[1] Diaz, J., Jaramillo, N. and Murillo, M. (2007) Geometric Triangular Chiral Hexagon Crystal-Like Complexes Organization in Pathological Tissues Biological Collision Order. PLoS ONE, 2, e1282.
[2] Diaz, J. and Murillo, M. (2009) Framework of Collagen Type I Vasoactive Vessels Structuring Invariant Geometric At-tractor in Cancer Tissues: Insight into Biological Mag-netic fields. PLoS ONE, 4, e4506.
[3] Diaz, J., Murillo, M. and Barrero, A. (2011) Intercellular Cancer Collisions Generate an Ejected Crystal Comet Tail Effect with Fractal Interface Embryoid Body Reassembly Trans-formation. Cancer Management and Research, 3, 143-155.
[4] Diaz, J. and Murillo, M. (2012) Phenotype Characterization of Embryoid Body Structures Generated by a Crystal Comet Effect Tail in an Intercellular Cancer Collision Scenario. Cancer Management and Research, 4, 9-21.
[5] Diaz, J. (2013) Electromagnetic Field Released in Collision Impact Events Generate in the Matrix Interface Fractal Scalable Invariant Geometric Triangular Chiral Hexagonal Structures. Open Journal of Geology, 3, 187-200.
[6] Robbins, S.J. and Hynek, B.M. (2012) A New Global Database of Mars Impact Craters ≥1 km: 2. Global Crater Properties and Regional Variations of the Simple-to-Complex Transition. Journal of Geophysical Research: Planets, 117, E06001.
[7] Masantis, L. (2005) Morphological, Structural and Lithological Records of Terrestrial Impacts: An Overview. Australian Journal of Earth Sciences, 52, 509-528. 90500170427
[8] Folco, L., Di Martino, M., El Barkooky, A., D’Orazio, M., et al. (2010) The Kamil Crater in Egypt. Science, 329, 804-807.
[9] Diaz, J. (2013) Geometric Triangular Chiral Hexagon Complexes and Clonal Embryogenic Body Organization on the Turin Shroud Crucified Man Image: A Predictable Tissue Response to Injury. Natural Science, 5, 1102-1111.
[10] Bystrova, K., et al. (2013) Spontaneous Synthesis of Carbon Nanowalls, Nanotubes and Nanotips Using High Flux Density Plasmas. Carbon, 68, 695-707. 11.051
[11] A Crater as an Abode for Life.
[12] Paleontologist Presents Origin of Life Theory.
[13] Kring, D.A. and Abramov, O. (2005) Impact-Generated Hydrothermal Systems: Potential Sites for Pre-biotic Chemistry and Life on Early Earth and Mars. NASA Astrobiology Conference, Boulder, Colorado, 2005.
[14] O. Abramov and D.A. Kring (2005) Impact-Induced Hydrothermal Activity on Early Mars. Journal of Geophysical Research, 110, E12809.
[15] Schwenzer, S.P. and Kring, D.A. (2006) Impact-Generated Hydrothermal Systems Capable of Forming Phyllosilicates on Noachian Mars. Geology, 37, 1091-1094.
[16] Zurcher, L. and Kring, D.A. (2004) Post-Impact Hydrothermal Alteration in the Yaxcopoil-1 hole, Chicxulub Impact Structure, Mexico. Meteoritics and Planetary Science, 39, 1199-1221.
[17] Abramov, O. and Kring, D.A. (2007) Numerical Modeling of Impact-Induced Hydrothermal Activity at the Chicxulub Crater. Meteoritics and Planetary Science, 42, 93-112.

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