Microorganisms are not only present in the human body. They create humus in the soil. It is a nutrient-rich substance. It makes nutrients available to plants. They help growth, adaptation, and evolution. They purify and recycle water and air. They balance and maintain the health of many living organisms. They are likely our most vital and dependable allies in their environments.
Some unique microorganisms, like the fungus Botulus spp., grow in the forests. We propagate these and 15 other beneficial microorganisms. We use them in liquid form in agriculture, homes, medicine, and food processing. They aid in digesting food in animals and humans.
At Chan Ká Vergel, we cultivate microorganisms. They come from a diverse, natural environment. Farmers have cultivated them using organic methods for 40 years. High forest trees grow in the forests. Their 26-meter-high mahogany trees are unique in the entire state.
They help convert and absorb nitrogen and other harmful substances and odors. This use of microorganisms is a result of Japanese research.
Some microorganisms produce energy. Others are photosynthetic. Some transform minerals to make them absorbable by plants. Some purify water or air.
By century's end, the ocean will be 150% more acidic. This is a major threat to marine life. It is gaining a reputation as a "silent killer" of climate change at an increasing pace.
The ocean absorbs the majority of the Earth’s atmospheric CO₂. As humans use more fossil fuels, deforestation, and industrial processes, CO₂ levels rise. It’s changing the ocean's chemistry faster than ever. Excess CO₂ dissolves into our oceans. It lowers the pH, causing ocean acidification. This disrupts vital marine processes that hold significant ecological and economic importance.
Coral reefs are one of the most biodiverse ecosystems on Earth. They support 25% of marine life. Their role in human health, economics, and ecosystem protection is vital too. Rising water temperatures, pollution, and ocean acidification harm coral reefs. They disrupt the reefs' homeostasis.