Glycerol-Based Nutritional Formulation for High Carbohydrate Absorption
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Solution Overview
Problem
Traditional sports drinks fail to optimize energy and electrolyte delivery due to inadequate understanding of exercise physiology and metabolism, leading to gastrointestinal distress and limited carbohydrate absorption capacity, and lack of essential metabolites for optimal performance.
Innovation Solution
A nutritional formulation incorporating gluconeogenic precursors, monocarboxylate compounds, and a glycerol backbone with functional groups like fatty acids, ketones, and anaplerotic compounds, designed to provide a higher carbohydrate intake of up to 120 g/h without gastrointestinal issues, utilizing multiple transport mechanisms for enhanced energy substrate delivery.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Quantity of substance
If traditional sports drinks contain simple sugars like glucose, fructose, and sucrose, then they provide energy substrates, but they saturate intestinal solute transporters and limit mass transport capacity causing gastrointestinal distress
Solution Approach 1:
The patent segments carbohydrate delivery into multiple molecular forms (glucose polymers, fructose, sucrose, maltose) that utilize different intestinal transport pathways. This segmentation allows simultaneous absorption through multiple independent routes (SGLT1, GLUT5, GLUT2) without mutual saturation, thereby increasing total carbohydrate absorption capacity while avoiding gastrointestinal distress associated with single-pathway saturation
Solution Approach 2:
The patent changes the molecular parameters of carbohydrate substrates by incorporating varying degrees of polymerization (from monosaccharides to high-molecular-weight glucose polymers). This parameter change enables the use of transporters with different kinetic properties and capacity limits, optimizing total absorption rate while preventing any single transporter from becoming saturated
2Quantity of substance
If sports drinks contain high concentrations of electrolytes and carbohydrates, then they support energy needs, but they create osmotic imbalance and reduce water absorption efficiency
Solution Approach 1:
The patent optimizes the osmolarity parameter by carefully balancing electrolyte concentrations (sodium, potassium, calcium, magnesium) and carbohydrate concentrations to achieve an osmolarity range that maximizes water absorption. The formulation uses glucose polymers with lower osmotic impact compared to equivalent energy from monosaccharides, allowing higher energy density without compromising water absorption efficiency
Solution Approach 2:
The patent creates a composite formulation integrating multiple carbohydrate types, electrolytes, and glucose polymers in specific ratios. This composite structure allows the drink to simultaneously provide high energy substrate concentration while maintaining optimal osmotic properties for efficient water and electrolyte absorption
3Quantity of substance
If sports drinks contain only cations like sodium and potassium, then they replace lost electrolytes, but they lack essential anions and metabolites needed for optimal performance
Solution Approach 1:
The patent enhances electrolyte functionality by adding gluconeogenic precursors and monocarboxylate compounds that serve multiple roles: they act as anionic counterions to balance cations, provide additional energy substrates, and support metabolic recovery. These multi-functional components address both electrolyte replacement and performance optimization needs simultaneously
4Ease of manufacture
If sports drinks follow traditional formulations since 1965, then they maintain simplicity and manufacturing ease, but they lack integration of modern understanding of exercise physiology and metabolism
Solution Approach 1:
The patent develops a composite formulation that integrates traditional simple sugars with modern additions including glucose polymers, electrolytes, gluconeogenic precursors, and monocarboxylate compounds. This composite approach maintains manufacturing feasibility while incorporating contemporary exercise physiology knowledge to optimize performance, bridging the gap between simplicity and scientific advancement
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
The formulation enables significant increase in energy substrate ingestion, supporting prolonged endurance performance by efficiently delivering energy, electrolytes, and water, reducing gastrointestinal distress and enhancing overall athletic performance.
Implementation Method 1
In terms of solute transport, current sports drink formulations do not recognize that some classes of intestinal transporters are faster than others for moving solute from GI tract into blood
Implementation Method 2
some transporters are symporters that facilitate solute transport with a cation, typically sodium ion (Na+), and to a lesser extent potassium ion (K+). Co-transport provides the opportunity to move into blood from intestine two efficacious moieties necessary for supporting needs of energy-depleted and dehydrated athletes
Data Source
AI summary
The present invention relates to nutritional formulations for increasing sports and other physical performance and that have beneficial effects on health and wellness for various populations. The invention includes molecular compounds as disclosed. A preferred embodiment is a molecule type based on a glycerol backbone, with three glycerol functional groups B1, B2, B3, wherein one or more of the B groups may correspond to one of the functional energy groups A1, A2 or A3, as disclosed. The invention includes nutritional formulations, some based on the inventive molecular compounds. The invention also includes method of using, administering, and implementing the above, including computer implemented and computer assisted methods.