Soil Health Biocat+ OSAA

 nter the world of BIOCAT

BIOCAT+ OSAA is a natural, organic, and non-toxic bio-stimulant technology that enhances plant growth, increases yields, and improves disease resistance. It is available in different formulations, each offering specific benefits to various industries such as horticulture, cannabis, poultry, and waste-to-energy. The key benefits include improved plant growth and yields, enhanced disease resistance, reduced antibiotic use, increased anaerobic biogas production, and more. Overall, BIOCAT+ OSAA is a sustainable and effective solution for promoting healthier plants and improving process efficiency.

 So let us dig into this

 BIOCAT Organic root development: Enhancing stimulation for increased yield, plant productivity, and profitability. Plant growth stimulation for enhanced yield, plant productivity, and profitability.

 Biocat+ OSAA promotes healthy plant growth and reduces the need for pesticides. It can be applied to crops through spraying or irrigation.

 Who is it for

Trials have identified that Biocat+ OSAA  benefits  farmers and growers;

• Increased root enhancement
• Improved establishment
• Plant growth stimulation – increased crop Biomass
• Yield increase and quality
• Reduced plant stress
• Increased shelf life

And a little deeper

Good Viruses

acteriophages   Phages, are viruses that specifically target and infect bacteria, and they play a crucial role in regulating bacterial populations in nature. They help to control bacterial growth and maintain ecological balance. In this sense, bacteriophages are beneficial

Phages, or bacteriophages, have a positive impact on root growth and nitrification rates in plants. They control bacterial populations, allowing plants to access essential nutrients and promoting healthy root development. This approach reduces the need for chemical pesticides and fertilizers, leading to improved soil structure and fertility. Additionally, phages can be used to control bacterial diseases without harming beneficial microorganisms.

Plants could use their energy more efficiently by redirecting it from moderating the rhizosphere to more productive purposes. Currently, a significant portion of seed energy is invested in maintaining the rhizosphere through chemical signalling and root exudates. Potential improvements include reducing energy expenditure, enhancing symbiotic relationships, and improving resource allocation. Our BIOCAT will also focus on achieving these potential improvements.

Wasted Seed Energy Around Roots

Plants could potentially use their energy more efficiently by redirecting it from moderating the rhizosphere, the critical zone surrounding plant roots where microorganisms thrive, to more productive purposes. The rhizosphere is characterized by root secretions and associated microorganisms, which influence plant growth and competition for resources.

Currently, a significant portion of seed energy is invested in maintaining the rhizosphere, including:

Chemical signalling: Plants release chemical cues to attract beneficial microorganisms, deter pathogens, and regulate nutrient cycling. This process consumes energy and resources.

Root exudates: Plants secrete organic compounds, such as sugars and acids, into the rhizosphere, which are then utilized by microorganisms. While beneficial for some microbes, this process also diverts energy from plant growth and development.

 Potential improvements could include:

 Reducing energy expenditure: By minimizing chemical signalling and root exudates, plants could conserve energy and redirect it towards growth and development.

 Enhancing symbiotic relationships: Plants could selectively promote beneficial microorganisms, fostering more efficient nutrient uptake and disease suppression.

 Improving resource allocation: By optimizing rhizosphere interactions, plants could allocate resources more effectively, leading to improved growth and productivity.

 Future research directions should focus on achieving these potential improvements, the forefront of developing strategies optimising plant Microbe interactions

 Enter the world of BIOCAT, where they are at the forefront of developing strategies to manipulate the rhizosphere microbiome and optimize plant-microbe interactions. Their research, which delves into the impact of root structure and morphology on rhizosphere interactions and energy expenditure, is unlocking the secrets of the complex chemical signalling networks between plants and microorganisms. BIOCAT’s work is about unravelling nature’s mysteries and harnessing its potential for a sustainable future in agriculture.

1. Root architecture: Studying the impact of root structure and morphology on rhizosphere interactions and energy expenditure.
2. Deciphering the complex chemical signalling networks between plants and microorganisms