Microstructured Textile with Embedded Volcanic Minerals and Microencapsulated Nutrients
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Solution Overview
Problem
Current textile materials lack the ability to provide both mild abrasive properties for skin exfoliation and sustained delivery of nutrients, which are essential for effective skin health and cosmetic benefits.
Innovation Solution
A textured textile is developed using microencapsulation technology, where volcanic minerals are embedded in polymer fibers to create a mild abrasive surface, and microencapsulated nutrients like Astaxanthin oil, silk amino acids, and fulvic acid are integrated into the fabric, allowing for gradual release and enhanced skin absorption.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Object-affected harmful factors
If volcanic minerals are embedded in polymer fibers to create abrasive surface, then skin exfoliation capability is improved, but textile complexity increases
Solution Approach 1:
The patent combines multiple functions into a single textile structure: volcanic minerals are embedded within polymer fibers during manufacturing, creating an integrated abrasive surface that performs microdermabrasion without requiring separate abrasive components or layers. This merging approach resolves the contradiction by incorporating the abrasive function directly into the base textile structure.
Solution Approach 2:
The textile uses composite materials by embedding volcanic mineral particles within polymer fiber matrices. This creates a multi-functional material that simultaneously provides textile structural integrity and abrasive exfoliation properties, resolving the contradiction between adding functional complexity and maintaining material simplicity.
2Duration of action of moving object
If microencapsulated nutrients are integrated into fabric, then nutrient delivery duration is improved, but manufacturing complexity increases
Solution Approach 1:
The microencapsulated nutrients are pre-integrated into the textile fibers during the manufacturing process rather than being applied as a post-processing step. The encapsulated compounds are incorporated into the polymer matrix before the textile is completed, allowing for sustained release over time while maintaining manufacturing efficiency through batch processing.
Solution Approach 2:
The patent uses nested structures by placing microencapsulated nutrient cores within polymer fiber matrices. The microcapsules are embedded during extrusion or weaving processes, creating a hierarchical structure where nutrients are contained within capsules that are themselves integrated into the textile structure, enabling prolonged release without complex assembly steps.
3Object-affected harmful factors
If three-dimensional stretch is increased for microdermabrasion, then skin absorption capability is improved, but textile structural stability worsens
Solution Approach 1:
The textile is designed with dynamic mechanical properties that allow it to stretch and conform to skin contours during wear. The polymer fiber composition and weaving structure enable elastic deformation that enhances microdermabrasion contact and nutrient absorption, while the material's viscoelasticity allows it to return to its original configuration, maintaining structural stability over repeated use cycles.
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 textile provides a three-dimensional stretch for microdermabrasion, improves skin microcirculation, and delivers nutrients over an extended period, enhancing skin health and appearance while protecting against UV damage.
Implementation Method 1
The textile is placed in a washer filled with the microencapsulate solution and mechanically agitated to allow the solution to penetrate to the individual fibers
Implementation Method 2
The textured yarn is made of polymers embedded with volcanic minerals to provide a mild abrasive
Implementation Method 3
The friction experienced by the enhanced textile during normal wear and use causes the microencapsulate shell to wear and eventually burst
Implementation Method 4
The textile's three-dimensional stretch increases microdermabrasion and in turn, microcirculation
Data Source
AI summary
A microstructured textile with microencapsulated compounds is used to enable a three part therapeutic delivery system. The microstructured textile can be turned into garments that passively deliver treatments to a user's skin. The microstructured textile has an a textile substrate, an abrasive material, and a microencapsulated compound. The textile substrate is an elastic material onto which the abrasive material is superimposed. The abrasive material removes dead skin when the microstructured textile is worn by the user. The microencapsulated compound is integrated into the textile substrate so that a therapeutic compound stored therein can be gradually released into the user's skin. Far infrared (FIR) emitting particles are integrated into the textile substrate. So, FIR radiation is applied to the user's skin to facilitate circulation.