Відео

Dadiah makanan fermentasi dari susu kerbau khas Sumatera Barat

Very informative❤

Nice video

Himadri 3cllas😮

Love this ❤❤❤❤❤😮😮😮😮

😊😊😊😊😊

Example of fermented food in Africa : Coco bacca

Good but show name on screen ..

Thank you for best information❤

good content

👏🏻🔋

I love it. Thank you. But before how could this Microbiologist get all the educated knowledge and tools to work on??

So nice video 👍 Very Nicely explained 👏👏

Play it 1.25× to save time

The Role of Microbial Life in Polyculture Systems of Sacred Medicinal Herbs Polyculture systems, where diverse plants such as Iboga, Erythroxylon coca, peyote, San Pedro, kratom, Banisteriopsis caapi (ayahuasca vines), cannabis, hemp, and magic mushrooms coexist, foster an intricate ecosystem that supports plant health, boosts alkaloid concentrations, and offers revolutionary potential for modern agriculture. This approach closely mirrors ancient Indigenous cultivation techniques, which harnessed the power of microbial communities to enhance medicinal and ecological benefits. --- Microbial Diversity and Functionality 1. Rhizosphere Microbes: The rhizosphere, or root zone, of these medicinal plants is teeming with beneficial bacteria and fungi. These include: Nitrogen-fixing bacteria (like Rhizobium and Azotobacter) that convert atmospheric nitrogen into bioavailable forms. Mycorrhizal fungi (e.g., Glomus) that form symbiotic relationships, enhancing nutrient uptake, particularly phosphorus. Plant Growth-Promoting Rhizobacteria (PGPR): Species such as Pseudomonas and Bacillus produce growth hormones and protect against pathogens. 2. Endophytic Microbes: Endophytes reside within plant tissues, enhancing alkaloid synthesis and plant resilience. For example: Fungal endophytes help peyote and San Pedro produce mescaline more efficiently. Bacterial endophytes in cannabis can increase terpene and cannabinoid production. 3. Saprophytic Fungi and Decomposers: These break down organic matter, improving soil structure and nutrient cycling. Trichoderma species decompose lignin and cellulose, releasing nutrients that benefit all plants in the system. --- Polyculture Synergies and Benefits 1. Enhanced Alkaloid Production: The presence of diverse plants stimulates root exudates that attract specific microbial populations, which, in turn, influence secondary metabolite production. For example: Companion plants like hemp may release terpenes that signal nearby plants to increase their alkaloid biosynthesis. Mycorrhizal fungi networks allow plants to share resources and chemical signals, enhancing medicinal alkaloid profiles. 2. Disease Resistance and Plant Immunity: Microbes in polycultures create a robust defense system: Beneficial microbes outcompete pathogenic organisms, reducing disease incidence. Induced Systemic Resistance (ISR) activated by beneficial bacteria and fungi strengthens the plants' immune responses. 3. Soil Health and Structure: Diverse root systems promote soil aeration and structure: Different root depths prevent nutrient depletion in one soil layer. Organic matter decomposition enhances water retention and nutrient availability, reducing the need for synthetic fertilizers. --- Revolutionizing Modern Farming: 1. Reduced Dependency on Chemicals: Polyculture systems reduce the need for synthetic fertilizers and pesticides by leveraging natural microbial interactions. This makes farming more sustainable and environmentally friendly. 2. Increased Yield and Quality: The synergistic relationships among medicinal herbs and their microbial partners improve plant vigor, yield, and the concentration of medicinal alkaloids. For example: Growing San Pedro alongside cannabis might enhance mescaline and cannabinoid profiles through mutualistic interactions. Kratom and Erythroxylon coca may benefit from shared microbial networks that promote alkaloid synthesis. 3. Phytoremediation Potential: Many of these plants, particularly hemp and Banisteriopsis caapi, are excellent phytoremediators, extracting toxins and heavy metals from the soil. This process: Restores degraded agricultural land. Allows for safer, healthier soil for future cultivation cycles. 4. Supporting Biodiversity: Polyculture encourages biodiversity, which supports ecological resilience. Beneficial insects, pollinators, and birds thrive in diverse environments, contributing to a balanced ecosystem. --- Conclusion: A Path to Holistic Agriculture Integrating these sacred medicinal herbs into polyculture systems, supported by diverse microbial communities, could revolutionize modern agriculture. This approach emphasizes sustainability, enhances medicinal alkaloid production, and supports environmental remediation. By learning from ancient Indigenous practices and applying this knowledge to modern contexts, we can foster a healthier planet and more effective medicinal cultivation systems, benefiting both human and environmental well-being.

The Role of Microbial Life in Polyculture Systems of Sacred Medicinal Herbs Polyculture systems, where diverse plants such as Iboga, Erythroxylon coca, peyote, San Pedro, kratom, Banisteriopsis caapi (ayahuasca vines), cannabis, hemp, and magic mushrooms coexist, foster an intricate ecosystem that supports plant health, boosts alkaloid concentrations, and offers revolutionary potential for modern agriculture. This approach closely mirrors ancient Indigenous cultivation techniques, which harnessed the power of microbial communities to enhance medicinal and ecological benefits. --- Microbial Diversity and Functionality 1. Rhizosphere Microbes: The rhizosphere, or root zone, of these medicinal plants is teeming with beneficial bacteria and fungi. These include: Nitrogen-fixing bacteria (like Rhizobium and Azotobacter) that convert atmospheric nitrogen into bioavailable forms. Mycorrhizal fungi (e.g., Glomus) that form symbiotic relationships, enhancing nutrient uptake, particularly phosphorus. Plant Growth-Promoting Rhizobacteria (PGPR): Species such as Pseudomonas and Bacillus produce growth hormones and protect against pathogens. 2. Endophytic Microbes: Endophytes reside within plant tissues, enhancing alkaloid synthesis and plant resilience. For example: Fungal endophytes help peyote and San Pedro produce mescaline more efficiently. Bacterial endophytes in cannabis can increase terpene and cannabinoid production. 3. Saprophytic Fungi and Decomposers: These break down organic matter, improving soil structure and nutrient cycling. Trichoderma species decompose lignin and cellulose, releasing nutrients that benefit all plants in the system. --- Polyculture Synergies and Benefits 1. Enhanced Alkaloid Production: The presence of diverse plants stimulates root exudates that attract specific microbial populations, which, in turn, influence secondary metabolite production. For example: Companion plants like hemp may release terpenes that signal nearby plants to increase their alkaloid biosynthesis. Mycorrhizal fungi networks allow plants to share resources and chemical signals, enhancing medicinal alkaloid profiles. 2. Disease Resistance and Plant Immunity: Microbes in polycultures create a robust defense system: Beneficial microbes outcompete pathogenic organisms, reducing disease incidence. Induced Systemic Resistance (ISR) activated by beneficial bacteria and fungi strengthens the plants' immune responses. 3. Soil Health and Structure: Diverse root systems promote soil aeration and structure: Different root depths prevent nutrient depletion in one soil layer. Organic matter decomposition enhances water retention and nutrient availability, reducing the need for synthetic fertilizers. --- Revolutionizing Modern Farming: 1. Reduced Dependency on Chemicals: Polyculture systems reduce the need for synthetic fertilizers and pesticides by leveraging natural microbial interactions. This makes farming more sustainable and environmentally friendly. 2. Increased Yield and Quality: The synergistic relationships among medicinal herbs and their microbial partners improve plant vigor, yield, and the concentration of medicinal alkaloids. For example: Growing San Pedro alongside cannabis might enhance mescaline and cannabinoid profiles through mutualistic interactions. Kratom and Erythroxylon coca may benefit from shared microbial networks that promote alkaloid synthesis. 3. Phytoremediation Potential: Many of these plants, particularly hemp and Banisteriopsis caapi, are excellent phytoremediators, extracting toxins and heavy metals from the soil. This process: Restores degraded agricultural land. Allows for safer, healthier soil for future cultivation cycles. 4. Supporting Biodiversity: Polyculture encourages biodiversity, which supports ecological resilience. Beneficial insects, pollinators, and birds thrive in diverse environments, contributing to a balanced ecosystem. --- Conclusion: A Path to Holistic Agriculture Integrating these sacred medicinal herbs into polyculture systems, supported by diverse microbial communities, could revolutionize modern agriculture. This approach emphasizes sustainability, enhances medicinal alkaloid production, and supports environmental remediation. By learning from ancient Indigenous practices and applying this knowledge to modern contexts, we can foster a healthier planet and more effective medicinal cultivation systems, benefiting both human and environmental well-being.

I wish to study plant microbial life

Great !!! it's MICROBIOLOGY

Thank you for this video! It is very interesting to see, and a source of great education.

What is para.density in malariya?

Thank you for ❤❤❤❤

Interesting Thank you

Such a amezing lec u...🤍🤌 It is very helpful for my all doubt....😊

Can you talk about Kahm yeast? How does it look like under a microscope?

Hii

By creating them

Ty

What a stupid video. Thumbs down and block channel.

As someone who once had an infection that wasn't responding to a year's worth of anti-biotics that created their own serious issues to my health I'm wondering why we don't have a Phage Institute in the U.S. that develops new phage for treatment as a routine part our national security and for public health? Antibiotics have lost their ability to cure bacterial and viral infections because of over-prescribing and because those bacterium and viruses mutate into "super bugs." No Big Phama will spend the research dollars on new antibiotics because that research investment is deemed non-profitable when after 7 years expiration of trademarks any other company can start manufacturing the drugs. This should never be acceptable by citizens and our government should have had a response years ago. Build a Phage Research Institute in the U.S. Stop leaving this stuff up to universities and medical facilities who are driven by profit as well.

💉☠️

Your video was interesting It would be nice to actually see real pictures of this

Calling it SPONTANEOUS is not good enough! There has to be a cause!

That was wonderful

Amazing 👊 Where can I find her lectures?? Anyone know??

"Streets are usually....straight" sound like Rachel Green. Definitely not forgetting streptococci😂

Well, This video popped up in the results when I searched for poop transplant.

Well explained I need the PDF

Love the vocal fry😂

Lovin the uptalk😂

thanks wonderful video

Terrible video... fix the narration. Pronounciation is awful.

I love the contrast between the super loud intro and the very quiet video!!!

I hope AI doesn't make wasp as big as cars.

All ai

So the content is made by AI? Because the language under the pictures is for sure no real language....

ua-cam.com/video/wEvW1ZF7if4/v-deo.htmlsi=KFQMB3tstim2dij0

Astonishing but dangerous

mystoreis of microbes

I'm really appreciated

Good nice and lucid presentation. Also give a talk on Shikimare pathway