Production Method
Pro-Plant is made from fermented fresh fish using a bio-technology micro-biological complexation process. The fish is placed in 12,000-litre fermentation tanks and left to ferment.
Pro-Plant is a bio-liquid fertilizer made from fish enzymes using a bio-technology micro-biological complexation process. Fresh tilapia fish are fermented in 12,000-litre tanks during this process. Pro-Plant provides more than 40 supplementary minerals, hormones, vitamins, and nutrients for plant growth.
Properties
Pro-Plant provides a very large number of nutrients, but we only claim for a small number in order to simplify laab analyses.
Pro-Plant is very concentrated and only a small quantity of this bio-liquid fertilizer is needed to accelerate plant growth and increase the yield.
Pro-Plant is instantly usable by the leaves or roots.
Pro-Plant stimulates the respiratory and photosynthesis system so that the plant can absorb nutrients as needed.
Pro-Plant makes the plant healthy and tolerant to pests.
Pro-Plant coats the leaves with micro-organisms that protect the plant from undesirable fungi.
Pro-Plant is very effective in speeding up the normal growth rate.
Pro-Plant improves the soil structure by making the soil softer and crumbly.
Pro-Plant stimulates flower and fruit forming.
Pro-Plant is harmless to touch and inhale, perfectly safe, and beneficial environmentally.
Some Advantages of Pro-Plant Bio-Liquid Fertilizer
Pro-Plant enables farmers to stop using chemical fertilizers when it is used together with Bio-Plant, while increasing the crop productivity beyond what chemical fertilizers can achieve. It thereby also increases the wealth of the farmers.
Pro-Plant increases both the major and minor nutrients in the soil, and provides the essential minor nutrients that chemical fertilizers do not provide. Pro-Plant essentially contains the major and minor minerals of fertile soil.
Pro-Plant increases the absorption rate of nutrients.
Pro-Plant makes the plant healthy with a very high Brix value, resulting in tolerance to pests and diseases. In rice, for example, the stems are much thicker than in chemical fertilizer rice, and insects find it very hard to bite them. In addition, pests do not see the plants and trees as food as a result of the Brix value.
Pro-Plant increases the quality and quantity of crop yield, resulting in increased income.
Pro-Plant accelerates plant growth, blooming, and fruiting (fruit formation). In biochemical farming, for example, spraying Pro-Plant on the leaves in the productivity stages adds an extra 15% + to the yield.
Pro-Plant helps to improve the soil structure.
Pro-Plant supplements the carbon dioxide-fixing process.
Pro-Plant enables vegetables to grow larger and become crispier and sweeter than when grown with chemical fertilizers.
Pro-Plant enables fruit trees to produce more, and makes the fruit larger, crispier, tastier, and sweeter; and the vitamin C level is higher by about 20%.
Pro-Plant Promotes Root Exudation and Increases Nutrient Uptake: A Brief Technical Explanation of How This Happens
Foliar fertilizers trigger greater root exudation, which contributes to feeding soil microbes, leading to increased nutrient uptake. Foliar fertilization is so important and crucial to good agricultural practices. A plant relocates carbohydrates, including sugars and proteins, to the rhizosphere versus consuming it all for fruit or seed production or overall plant development (above ground).
A number of research reports find that a significant proportion of plant photosynthates are transported below ground shortly after photo-assimilation and subsequently released to soil microbes (Dilkes et al., 2004; Bahn et al., 2009; Mencuccini & Holtta, 2010). This release can be through direct exudation from the surface of fine roots or by transfer to the extraradical mycelium of mycorrhizal fungi (Jones et al., 2004, 2009; Drigo et al., 2010). Both root exudation and transfer to mycorrhizal fungi occur rapidly after photosynthesis, ranging from a few hours in grasses to a few days in trees (Johnson et al., 2002; Dilkes et al., 2004; Kuzyakov & Gavrichkova, 2010).
Root exudation stimulates microbial decomposition of soil organic matter, which in turn improves nutrient availability along the rhizosphere (Kuzyakov, 2010; Bird et al., 2011; Philippot et al., 2013). Carbon (C) transfer to mycorrhizal fungi benefits the plant through direct nutrient transfer from the fungal hyphal network (Bever et al., 2009; Fellbaum et al., 2011; Kiers et al., 2011). In both cases, the plant’s investment in below-ground C allocation is rewarded with increased nutrient availability, in particular nitrogen (N) and phosphorus (P) (Hodge & Storer, 2014).
Now we’re finding out that this root exudation process not only improves nutrient uptake but also supports the growth of mycorrhizal fungi to help the plant’s access to nutrients and water by extending its range into soil areas that are not accessible by roots or into nutrient-rich soil “hot spots.”
In addition, the extraradical hyphae, which enlarge root areas, facilitate the distribution of recently assimilated plant carbon to the soil microbial community. This process, along with the sugar and protein responses through root exudation, may help the plant stimulate specific microbial responses, including enzyme production, to consume the nutrients that the plant needs. So, the plant is communicating with the microbial community, letting it know what it needs at any given time!