Polymer Foam-Supported Supramolecular Gel for Flow Chemistry
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Supramolecular gels prepared from low molecular weight gelators are mechanically fragile, limiting their industrial applications, including their use in flow chemistry due to delamination under shear stress.
Innovation Solution
A supramolecular gel is integrated into the pores of an open-cell polymer foam, where nanofibers are anchored, forming a stable and catalytically active hydrogel with enhanced mechanical robustness and enzymatic activity, using enzymes to modify precursor peptides into gelators with lower water solubility, creating a robust catalytic system.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If supramolecular gel is prepared from low molecular weight gelators, then catalytic activity is achieved, but mechanical strength deteriorates due to inherent fragility
Solution Approach 1:
The patent creates a composite material by integrating the supramolecular gel into the porous structure of an open-cell polymer foam. The gelator molecules self-assemble within the foam pores, forming a composite structure that combines the catalytic properties of the supramolecular gel with the mechanical strength of the polymer foam support, thereby resolving the contradiction between catalytic activity and mechanical strength.
2Productivity
If supramolecular gel is used in flow chemistry, then chemical synthesis capability is improved, but reliability deteriorates due to delamination under shear stress
Solution Approach 1:
The patent utilizes the porous structure of open-cell polymer foam as a support matrix for the supramolecular gel. The foam's three-dimensional interconnected pore network provides a rigid framework that anchors the gel, preventing delamination under shear stress while maintaining porosity for reagent diffusion and product flow, thus enabling reliable use in flow chemistry applications.
3Reliability
If supramolecular gel is immobilized on planar substrate, then catalytic function is achieved, but mechanical robustness deteriorates
Solution Approach 1:
The patent transitions from immobilizing the supramolecular gel on a two-dimensional planar substrate to integrating it within the three-dimensional porous network of polymer foam. This dimensional change provides the gel with mechanical support from all directions through the foam's interconnected cell structure, significantly enhancing mechanical robustness while preserving catalytic function.
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 polymer foam-supported supramolecular gel exhibits stable catalytic activity and mechanical robustness, preventing delamination and maintaining enzymatic activity over time, even under flow conditions, enabling effective use in flow reactors for chemical synthesis and kinetic resolution.
Implementation Method 1
enzymes to modify precursor peptides into gelators with lower water solubility
Implementation Method 2
non self-assembling peptides (precursors) can be enzymatically transformed into self-assembling ones (gelators) leading to the growth of nanostructures exclusively from the surface
Implementation Method 3
a catalytic supramolecular gel has applications in chemical synthesis and kinetic resolution, in particular of organic compounds
Data Source
AI summary
The present invention relates to a polymer foam, said polymer foam comprising pores forming an open-cell polymer foam, said polymer foam comprising a supramolecular gel inside pores, and said polymer foam comprising at least one enzyme. The present invention relates to a supramolecular gel; its preparation and its applications, notably in chemical synthesis and kinetic resolution, in particular of organic compounds. The present invention also relates to flow chemistry.