Parameswara Achutha Kurup Book order

The book explores the critical role of dietary fiber in human biology and evolution, arguing that low fiber intake, coupled with high protein and fat consumption, contributes to various health issues, including metabolic syndrome and neurodegenerative diseases. It highlights how a fiber-rich diet promotes large intestinal digestion and inhibits harmful archaeal growth, potentially leading to improved health outcomes. The author posits that increasing dietary fiber can combat civilizational diseases and foster a healthier human species.

Focusing on extraterrestrial intelligence, the narrative explores a magnetotactic archaeal colony network capable of self-replication and surviving extreme environments like Mars and Venus. These networks can secrete RNA viroids, forming quasi-species consortia that contribute to cosmic gene transfer on Earth through meteoritic showers. This transfer influences human evolution, particularly the development of Homo neanderthalis. The story intertwines themes of extremophiles, quantum computing, and the impact of cosmic genetics on Earth’s biological landscape.

The book explores the significant impact of human activities on the ecosystem, particularly focusing on how industrialization has contributed to global warming and climate change through the accumulation of greenhouse gases. It highlights the role of dietary choices, specifically low fiber and high fat and protein diets, in promoting the growth of methane-producing archaea in the human gut. The author argues that increasing dietary fiber can mitigate these effects by reducing methane production, thus offering a potential solution to reverse climate change.

The book explores the evolution of Homo floresiensis as an intermediate species between Homo neanderthalis and Homo sapiens, tracing its origins to regions like South India and Indonesia following the breakup of the Lemurian landmass. It discusses their adaptation to scarce resources and environmental crises, portraying them as a hibernatory species with unique stem cell characteristics. The narrative suggests that current global warming may trigger the emergence of new human-like species, such as Homo neoneanderthalis and Homo neofloresiensis.

Exploring the consequences of global warming driven by archaeal overgrowth and pollution, the narrative delves into complex biochemical processes such as heme oxygenase HO1 induction and porphyrin synthesis. It discusses how pollutants generated by archaea contribute to environmental degradation and mitochondrial dysfunction, leading to the emergence of new human species like Homo neoneanderthalis. The text presents a provocative view of pollution as an adaptive mechanism for species transformation, culminating in a dystopian future characterized by toxic psychosis and a new evolutionary path.

The book explores the connection between leaky gut syndrome and dietary factors such as high sugar and low fiber intake. It discusses the role of colonic actinidic archaea, which oxidize cholesterol and disrupt the intestinal membrane, leading to various health issues. The depletion of cholesterol affects bile acid production, crucial for protecting intestinal integrity. The author links leaky gut syndrome to a range of diseases, including mental health disorders, liver and kidney diseases, diabetes, and autoimmune conditions, highlighting its widespread impact on health.

The book explores the evolutionary journey of Homo sapiens, emphasizing the role of environmental factors like selenium deficiency in sub-Saharan Africa. It discusses how this deficiency contributed to RNA viroidal mutations, fostering rapid evolution from eukaryotic cells. In contrast, Homo neanderthalis developed retroviral resistance in Eurasia. The narrative links selenium deficiency to various health issues, such as cardiomyopathy and autoimmune conditions, highlighting its significant impact on human evolution and health.

Exploring the origins of life, this book delves into the role of metal actinides found in Kerala's lake shores, suggesting they provided radiolytic energy crucial for abiogenesis. It posits that actinide surfaces facilitated the formation of key molecules like cholesterol, leading to the emergence of lipid organisms and complex biological systems. The narrative traces the evolution from archaea to eukaryotic cells, ultimately linking these processes to the development of primates and suggesting that modern humans are a sophisticated extension of ancient archaeal colonies.

Exploring the intricate relationship between human archaea and viral entities, this work reveals how endosymbiotic and colonic archaea act as reservoirs for RNA and DNA viruses, including significant pathogens like SARS and HIV. The book delves into the mechanisms by which RNA viroids hybridize with mitochondrial RNA, leading to the formation of new viruses and potentially creating supermitochondria. This hybridization process can result in a complex network that influences both cellular functions and broader physiological responses, impacting the gut microbiome and overall health.

Set against the backdrop of global warming, the emergence of a new human phenotype, Homo neoneanderthalis, is driven by the development of archaeaons—cell organelles with unique capabilities. These archaeaons enable the new species to thrive in extreme climates by fixing carbon dioxide and ammonia, facilitating the synthesis of essential carbohydrates and proteins. With advanced metabolic functions, including biological fission and fusion, as well as the ability to generate water, this species is poised for survival and potential colonization of other planets, showcasing extraordinary traits like quantal perception and teleportation.