Difference between revisions of "Quantumlike Chaos in the Frequency Distributions of Bases A, C, G, T in Drosophila DNA"
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Continuous periodogram power spectral analyses of <em>fractal</em> fluctuations of frequency distributions of bases A, C, G, T in Drosophila DNA show that the power spectra follow the universal inverse power-law form of the statistical normal distribution. Inverse power-law form for power spectra of space-time fluctuations is generic to dynamical systems in nature and is identified as <em>self-organized criticality</em>. The author has developed a general systems theory, which provides universal quantification for observed <em>self-organized criticality</em> in terms of the statistical normal distribution. The long-range correlations intrinsic to <em>self-organized criticality</em> in macro-scale dynamical systems are a signature of quantumlike chaos. The <em>fractal</em> fluctuations self-organize to form an overall logarithmic spiral trajectory with the quasiperiodic <em>Penrose</em> tiling pattern for the internal structure. Power spectral analysis resolves such a spiral trajectory as an eddy continuum with embedded dominant wavebands. The dominant peak periodicities are functions of the <em>golden mean</em>. The observed <em>fractal</em> frequency distributions of the Drosophila DNA base sequences exhibit quasicrystalline structure with long-range spatial correlations or <em>self-organized criticality</em>. Modification of the DNA base sequence structure at any location may have significant noticeable effects on the function of the DNA molecule as a whole. The presence of non-coding <em>introns</em> may not be redundant, but serve to organize the effective functioning of the coding <em>exons</em> in the DNA molecule as a complete unit. | Continuous periodogram power spectral analyses of <em>fractal</em> fluctuations of frequency distributions of bases A, C, G, T in Drosophila DNA show that the power spectra follow the universal inverse power-law form of the statistical normal distribution. Inverse power-law form for power spectra of space-time fluctuations is generic to dynamical systems in nature and is identified as <em>self-organized criticality</em>. The author has developed a general systems theory, which provides universal quantification for observed <em>self-organized criticality</em> in terms of the statistical normal distribution. The long-range correlations intrinsic to <em>self-organized criticality</em> in macro-scale dynamical systems are a signature of quantumlike chaos. The <em>fractal</em> fluctuations self-organize to form an overall logarithmic spiral trajectory with the quasiperiodic <em>Penrose</em> tiling pattern for the internal structure. Power spectral analysis resolves such a spiral trajectory as an eddy continuum with embedded dominant wavebands. The dominant peak periodicities are functions of the <em>golden mean</em>. The observed <em>fractal</em> frequency distributions of the Drosophila DNA base sequences exhibit quasicrystalline structure with long-range spatial correlations or <em>self-organized criticality</em>. Modification of the DNA base sequence structure at any location may have significant noticeable effects on the function of the DNA molecule as a whole. The presence of non-coding <em>introns</em> may not be redundant, but serve to organize the effective functioning of the coding <em>exons</em> in the DNA molecule as a complete unit. | ||
| − | [[Category:Scientific Paper]] | + | [[Category:Scientific Paper|quantumlike chaos frequency distributions bases c g t drosophila dna]] |
Latest revision as of 10:57, 1 January 2017
| Scientific Paper | |
|---|---|
| Title | Quantumlike Chaos in the Frequency Distributions of Bases A, C, G, T in Drosophila DNA |
| Read in full | Link to paper |
| Author(s) | A Mary Selvam |
| Keywords | long-range correlations in DNA base sequence, self-organized criticality, quantumlike chaos, quasiperiodic Penrose tiling pattern |
| Published | 2002 |
| Journal | Apeiron |
| Volume | 9 |
| Number | 4 |
| No. of pages | 6 |
Read the full paper here
Abstract
Continuous periodogram power spectral analyses of fractal fluctuations of frequency distributions of bases A, C, G, T in Drosophila DNA show that the power spectra follow the universal inverse power-law form of the statistical normal distribution. Inverse power-law form for power spectra of space-time fluctuations is generic to dynamical systems in nature and is identified as self-organized criticality. The author has developed a general systems theory, which provides universal quantification for observed self-organized criticality in terms of the statistical normal distribution. The long-range correlations intrinsic to self-organized criticality in macro-scale dynamical systems are a signature of quantumlike chaos. The fractal fluctuations self-organize to form an overall logarithmic spiral trajectory with the quasiperiodic Penrose tiling pattern for the internal structure. Power spectral analysis resolves such a spiral trajectory as an eddy continuum with embedded dominant wavebands. The dominant peak periodicities are functions of the golden mean. The observed fractal frequency distributions of the Drosophila DNA base sequences exhibit quasicrystalline structure with long-range spatial correlations or self-organized criticality. Modification of the DNA base sequence structure at any location may have significant noticeable effects on the function of the DNA molecule as a whole. The presence of non-coding introns may not be redundant, but serve to organize the effective functioning of the coding exons in the DNA molecule as a complete unit.
