Thermal Therapy Device Pliable Barrier
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Solution Overview
Problem
Conventional thermal therapy devices with hydrophilic absorbers suffer from clumping during extended freezing/thawing cycles, leading to reduced pliability and operational lifespan, as ice crystals bond together, causing the device to become rigid and less effective.
Innovation Solution
Incorporating planar polypropylene particulate as a physical barrier within the mixture of hydrophilic absorbers and hydrating liquid to prevent clumping, along with hydrophobic beads for increased thermal resistance, and a rigid storage container to allow expansion during freezing, ensuring the device remains pliable and functional over extended cycles.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If discrete hydrophilic absorbers are used in thermal therapy devices, then the device can maintain pliability during freezing/thawing cycles, but the absorbers will eventually clump together after extended cycles, causing the device to become rigid
Solution Approach 1:
A hydrophobic barrier material is introduced as an intermediary substance between the hydrophilic absorbers. This barrier prevents direct contact between adjacent absorbers, blocking the mechanism by which they would otherwise bond together during freezing cycles. The hydrophobic material acts as a permanent separator that maintains absorber dispersion without interfering with the freezing/thawing functionality.
Solution Approach 2:
The invention creates a composite mixture containing three distinct components: hydrophilic absorbers, hydrophobic barrier material, and liquid solution. This composite structure combines materials with opposing properties (hydrophilic and hydrophobic) to achieve both desired functions: the hydrophilic absorbers enable freezing/thawing cycles while the hydrophobic barrier prevents clumping, extending device lifespan.
2Volume of stationary object
If the device is frozen in a crowded freezer, then storage space is optimized, but the discrete ice/absorber formations bond together into rigid clumps
Solution Approach 1:
The hydrophobic barrier material serves as a protective intermediary between absorbers, creating a physical and chemical barrier that prevents bonding even when external pressure from crowded freezer conditions forces absorbers into close proximity. This intermediary protection ensures absorber dispersion stability regardless of storage density.
3Duration of action of moving object
If repeated freezing/melting cycles are performed, then extended usage is achieved, but the absorber material degrades and water flow control is diminished
Solution Approach 1:
The hydrophobic barrier material acts as a protective intermediary that prevents direct interaction and bonding between absorbers during repeated cycles. By maintaining physical separation, the barrier preserves absorber structural integrity and water flow pathways even after extensive usage, sustaining reliable water flow control throughout the device lifespan.
Solution Approach 2:
The hydrophobic barrier material provides beforehand protection against the degradation mechanism (clumping) that would otherwise occur during repeated cycles. This preventive measure cushions the absorbers from direct contact and bonding, maintaining their functional properties throughout extended usage.
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 solution extends the operational life of thermal therapy devices by preventing clumping and maintaining pliability, allowing for at least four times more usage compared to prior art devices, while ensuring safe and effective cold therapy application.
Implementation Method 1
the liquid water transitions from liquid to solid, the ice crystals forming on the exterior surface of the absorbers will tend to increase the overall volume of the mixture and therefore cause an expansion of the flexible container
Implementation Method 2
when freezing the device to Kolen, the water retained within the hydrophilic absorbers migrates out and freezes in discrete white ice crystals
Implementation Method 3
Incorporating planar polypropylene particulate as a physical barrier within the mixture of hydrophilic absorbers and hydrating liquid to prevent clumping
Implementation Method 4
along with hydrophobic beads for increased thermal resistance
Data Source
AI summary
A thermal therapy device comprising a flexible, water-impermeable container containing a plurality of discrete, non-water-soluble hydrophillic absorbers, a hydrating liquid mixture comprising water, means for physically separating at least two adjacent absorbers thereby providing a means for preventing clumping, and a plurality of insulating members. The means for preventing clumping maintaining the pliability of the device in a frozen state after prolonged and extend cycles of freezing/thawing. A rigid storage container is also provided.