Enlarged Pectin Molecules for Nutrient Penetration in Alkaline Soils
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Solution Overview
Problem
Current methods fail to effectively penetrate saccharides and nutrients into plant cells, leading to nutrient deficiencies and reduced crop productivity, especially in alkaline environments where minerals precipitate out of solution, and existing anti-transpirants inhibit gas exchange, reducing yields.
Innovation Solution
The development of Ca2+-chelator-based compositions that bind with pectins to form enlarged pectin molecules (PectiC+), allowing for the efficient transport of nutrients and active ingredients into plant cells, and the use of reversible anti-transpirant coatings that can be converted into protranspirant compositions to restore normal transpiration.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional nutrient application methods are used, then nutrients remain in solution, but they precipitate out in alkaline environments, reducing nutrient availability
Solution Approach 1:
The patent uses chelating agents as intermediaries to bind minerals and nutrients, preventing their precipitation in alkaline environments. The chelators form stable complexes with metal ions, acting as a mediator between the nutrients and the alkaline environment, thereby maintaining nutrient availability without direct exposure to precipitating conditions.
Solution Approach 2:
The invention changes the chemical parameters of nutrient delivery by using foliar-applied compositions with controlled pH and chelating agents. This alters the solubility and stability parameters of nutrients, enabling them to remain in solution and be absorbed through leaves rather than precipitating in the alkaline soil environment.
2Loss of energy
If anti-transpirant coatings are applied to reduce water loss, then transpiration is reduced, but gas exchange is inhibited, reducing photosynthesis and yields
Solution Approach 1:
The patent applies foliar compositions as intermediaries that enhance water-use efficiency without forming physical barriers. These compositions include nutrients and regulators that mediate between water conservation needs and gas exchange requirements, allowing the plant to reduce water loss while maintaining stomatal function for photosynthesis.
Solution Approach 2:
The invention replaces the mechanical barrier approach of traditional anti-transpirant coatings with a biochemical approach. Instead of physically blocking stomata, the foliar-applied compositions use plant physiology modulation to reduce water loss, substituting a chemical/biological mechanism for a physical one, thereby preserving gas exchange.
3Quantity of substance
If nutrients are applied to soil, then they are available for uptake, but penetration into plant cells is insufficient, leading to nutrient deficiencies
Solution Approach 1:
The patent employs foliar application where plants self-absorb nutrients directly through their leaves. The plant's own physiological systems serve the function of nutrient uptake, eliminating the need for complex root absorption mechanisms. The foliar compositions are naturally absorbed through the leaf surface, allowing the plant to service its own nutrient needs more efficiently.
Solution Approach 2:
The foliar-applied compositions act as intermediaries that facilitate direct nutrient delivery to plant tissues. These compositions include surfactants and penetration enhancers that mediate between the applied nutrients and the plant cell structures, improving penetration efficiency without requiring complex delivery systems.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This approach enhances nutrient uptake, corrects micronutrient deficiencies, improves photosynthetic energy transfer, and maintains crop health by ensuring complete penetration of nutrients without residual harm, while also reversing anti-transpirant effects to resume normal transpiration and gas exchange.
Implementation Method 1
Ca2+-chelator-based compositions that bind with pectins to form enlarged pectin molecules (PectiC+)
Implementation Method 2
bind with pectins to form enlarged pectin molecules
Implementation Method 3
coats a leaf surface with a composition that functions to block stomatal apertures
Implementation Method 4
block evapotranspiration, acting as anti-transpirants
Implementation Method 5
designed for molecular integration of the anti-transpirant coating that, as a consequence, clears blocked stomata
Implementation Method 6
resumption of transpiration that establishes optimal photosynthetic gas exchange
Data Source
AI summary
Methods and compositions comprising design of enlarged pectins are provided. Elaborated pectins are useful for a multitude of functions including surface coating, penetrant, additive and gel. Methods according to the present invention comprise steps for treatments to one or more live pectic cells in one or more compositions that result in modified pectins. In specific embodiments, methods are provided for applying the nanotechnology to live cells for carriage and incorporation of polar compounds.