Hyaluronic Acid-Based Lubrication Solutions for Diverse Industries
Legal Citation
Summary of the Inventive Concept
This inventive concept leverages the core technology of the original lubrication method patent to develop novel applications in wind energy, 3D printing, aerospace, industrial machinery, and hydraulic pumps, offering improved efficiency, reduced friction, and enhanced performance.
Background and Problem Solved
The original patent addressed the limitations of surface modification in the medical field. However, the same lubrication method can be adapted to tackle distinct challenges in various industries, such as wind turbine blade wear, 3D printing material performance, aerospace component friction, industrial machinery energy consumption, and hydraulic pump efficiency.
Detailed Description of the Inventive Concept
The inventive concept involves applying the hyaluronic acid-based lubrication method to diverse industries, utilizing titanium or zirconium chelates as crosslinking agents. In wind energy, the lubrication method reduces friction on wind turbine blades, increasing efficiency and reducing wear. In 3D printing, the lubricated printing nozzle enhances material performance and reduces clogging. In aerospace, the lubricant is applied to moving parts to minimize friction and wear. In industrial machinery, the lubrication method optimizes energy consumption and reduces wear on moving parts. In hydraulic pumps, the lubrication method increases output and reduces friction.
Novelty and Inventive Step
The novelty of this inventive concept lies in the application of the original lubrication method to entirely new industries, addressing distinct problems and providing innovative solutions. The inventive step involves adapting the core technology to accommodate the specific requirements of each industry, resulting in novel and non-obvious applications.
Alternative Embodiments and Variations
Alternative embodiments of this inventive concept could include the use of different crosslinking agents, varying the concentration of hyaluronic acid, or incorporating additional compounds to enhance lubrication performance. Variations could also involve adapting the lubrication method for use in other industries, such as automotive or textiles.
Potential Commercial Applications and Market
This inventive concept has significant commercial potential across multiple industries, offering opportunities for partnerships, licensing, and product development. The target markets include wind energy companies, 3D printing manufacturers, aerospace component suppliers, industrial machinery producers, and hydraulic pump manufacturers, among others.
CPC Classifications
| Section | Class | Group |
|---|---|---|
| A | A61 | A61L31/10 |
| A | A61 | A61L31/14 |
| C | C08 | C08L5/08 |
| A | A61 | A61L2400/10 |
| A | A61 | A61L2420/02 |
Section 103 Obviousness Analysis (PHOSITA)
Field of Art
Biomedical materials and surface modification technologies, with expertise in polymer chemistry, medical device lubrication, and crosslinking techniques for biomaterials
Person of Ordinary Skill (PHOSITA) Profile
A professional with advanced degree in materials science, polymer engineering, or biomedical engineering, possessing knowledge of surface functionalization, crosslinking agents, and lubricant design across multiple industrial applications
Obviousness Rationale
A PHOSITA would recognize that the fundamental hyaluronic acid lubrication method disclosed in the source patent has inherent adaptability across multiple technical domains. The core technology of using titanium or zirconium chelates for crosslinking hyaluronic acid represents a versatile lubrication approach that can be predictably applied to different mechanical systems with minimal inventive effort. The PTD's variations represent straightforward extensions of the original patent's core technological principles, demonstrating routine engineering adaptation rather than non-obvious innovation.
Obvious Combinations & Variations
Original Patent Information
| Patent Number | US 11,857,702 |
|---|---|
| Title | Lubrication method |
| Assignee(s) | NATVI |