Abstract
The RNA Precious Medical Initiative requires a safe, affordable, and sustainable device as an administration tool. Why do microRNA (miRNA) quantum language and artificial intelligence (MIRAI) heal us? Even if deep learning is done by a cool computer machine, the therapeutic tools are present like food, since plants are probably the origin of RNA species. While plant and meat miRNAs in exosomes may be transported daily from food to humans at dinner, edible RNA agents may be of interest in drug discovery upon MIRAI’s deep learning for therapeutic applications. Several plant expression systems are already in place, including edible vaccines, bananas, rice, alfalfa, mushrooms, potatoes, tomatoes, peanuts, and maize. Traditional Chinese herbal medicine has involved diet, acupuncture with burning Moxa to warm the skin, massages with botanical oils, and meditation under cooking incense, all of which are linked to miRNAs. The honeysuckle herb contains MIR2911, which is incorporated into the human circulation system via the intestine, and MIR2911 prevented H5N1 flue infection in mouse lungs and coronavirus disease 2019 (COVID-19) in severe respiratory syndrome human coronavirus 2 (SARS-CoV-2)-infected patients. MIR2097-5p in rice has been reported to be responsible for the low degree of COVID-19 epidemics in Asian countries, including Japan. Therefore, edible miRNA panel agents would solve the inconvenience of chemotherapy through complex information technology using quantum RNA language. Moreover, since maternal undernutrition inheritably influences heart failure in adult offspring via altered miRNAs in the mother’s uterus, these clinical reports suggest that environmental factors may be mediated by transferred miRNA comb genes, which can be passed from mother to child. Thus, Darwinism and Mendelian inheritance are controlled by miRNA gene information from food. MiRNA programmed evolutionary therapeutics may be developed by deep learning or AI. This chapter presents a program analysis diagram (PAD) for using miRNAs to cook therapeutics.
All things are poison and nothing is without poison.
von Hohenheim, T. (Paracelsus)
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Fujii, Y.R. (2023). Deep Learning of miRNAs for Therapeutic Applications. In: The MicroRNA 2000 Transformer. Springer, Singapore. https://doi.org/10.1007/978-981-99-3165-1_11
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