Wave Optics of Chromosomes for the Remote Transfer of the Bioholographic Analogue of Aspirin

Current medical treatment, including chemical pharmaceuticals, EMP treatments, mRNA therapies, and genetic engineering via cutting and pasting DNA snippets do not take into consideration the Structural Damage in Chromosomes they cause by excessive chemicals, electromagnetic fields and homologous nucleotides, all of which break the precisely calibrated geometry of a chromosome. And the Structural Damage of Chromosomes is the major cause of all diseases. Extreme cases of the Structural Damage in Chromosomes are turbo cancer, AIDS, sterilization and prion disease as the ultimate case of encephalopathy. Thus, an urgent task of the biological science and technology is to address the issue of the Structural Damage in Chromosomes. This task includes the necessity of creating a fundamental theory of how the structure of a chromosome operates, and a biotechnology that corrects and enhances the structure of chromosomes. In this paper, I introduce my fundamental theory of Wave Optics in Chromosomes, and the biotechnology of Bioholography for the correction of the structural damage in chromosomes. Specifically, I introduce the theoretical and technological paradigm of the Remote Transfer of the Bioholographic Aspirin Analogue (aka Haspirin), including the results of the clinical trials conducted by my company Wave Genome LLC at the Moscow State Bauman Technical University in 2017. Haspirin clinical trials had verified and confirmed my fundamental theory of Wave Optics in Chromosomes.

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Publication Details

Journal
International Journal on Bioinformatics & Biosciences
Published
2025-03-28
DOI
https://doi.org/10.5121/ijbb.2025.15101
Primary Topic
Advanced Biosensing Techniques and Applications
Type
article
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article

Wave Optics of Chromosomes for the Remote Transfer of the Bioholographic Analogue of Aspirin

Irene Caesar
International Journal on Bioinformatics & Biosciences
Advanced Biosensing Techniques and Applications
article

Wave Optics of Chromosomes for the Remote Transfer of the Bioholographic Analogue of Aspirin

Irene Caesar
article en

Abstract

Current medical treatment, including chemical pharmaceuticals, EMP treatments, mRNA therapies, and genetic engineering via cutting and pasting DNA snippets do not take into consideration the Structural Damage in Chromosomes they cause by excessive chemicals, electromagnetic fields and homologous nucleotides, all of which break the precisely calibrated geometry of a chromosome. And the Structural Damage of Chromosomes is the major cause of all diseases. Extreme cases of the Structural Damage in Chromosomes are turbo cancer, AIDS, sterilization and prion disease as the ultimate case of encephalopathy. Thus, an urgent task of the biological science and technology is to address the issue of the Structural Damage in Chromosomes. This task includes the necessity of creating a fundamental theory of how the structure of a chromosome operates, and a biotechnology that corrects and enhances the structure of chromosomes. In this paper, I introduce my fundamental theory of Wave Optics in Chromosomes, and the biotechnology of Bioholography for the correction of the structural damage in chromosomes. Specifically, I introduce the theoretical and technological paradigm of the Remote Transfer of the Bioholographic Aspirin Analogue (aka Haspirin), including the results of the clinical trials conducted by my company Wave Genome LLC at the Moscow State Bauman Technical University in 2017. Haspirin clinical trials had verified and confirmed my fundamental theory of Wave Optics in Chromosomes.

International Journal on Bioinformatics & BiosciencesVol. 15(1)
Openalex Percentile: Top 94%
Advanced Biosensing Techniques and Applications
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