Julius-Maximilians-Universität Würzburg (20240299627). Inverse thermogelling polyoxazoline copolymers simplified abstract
Contents
Inverse thermogelling polyoxazoline copolymers
Organization Name
Julius-Maximilians-Universität Würzburg
Inventor(s)
Robert Luxenhofer of Würzburg (DE)
Inverse thermogelling polyoxazoline copolymers - A simplified explanation of the abstract
This abstract first appeared for US patent application 20240299627 titled 'Inverse thermogelling polyoxazoline copolymers
The abstract describes a copolymer that allows for rapid thermoresponsive inverse gelation, resulting in a hydrogel with solid-like properties, shear thinning, rapid structure recovery, and good strain resistance, suitable for 3D printing applications.
- The copolymer contains ris methyl or ethyl, with r representing a group —CH—CH-phenyl.
- Achieves rapid thermoresponsive inverse gelation.
- Yields a hydrogel with viscoelastic solid-like properties.
- Exhibits shear thinning behavior.
- Demonstrates rapid structure recovery.
- Shows good strain resistance properties.
Potential Applications:
- 3D printing applications.
- Biomedical engineering for tissue scaffolds.
- Drug delivery systems.
- Wound healing applications.
Problems Solved:
- Rapid gelation for hydrogel formation.
- Enhanced mechanical properties for various applications.
- Improved versatility in 3D printing processes.
Benefits:
- Faster production of hydrogels.
- Enhanced structural integrity.
- Versatile applications in various industries.
Commercial Applications:
- Biomedical engineering for tissue engineering.
- Pharmaceutical industry for drug delivery systems.
- 3D printing companies for advanced materials.
Questions about the technology: 1. How does the copolymer's structure contribute to its thermoresponsive properties? 2. What specific advantages does this copolymer offer over traditional hydrogels in 3D printing applications?
Original Abstract Submitted
wherein ris methyl or ethyl, and rrepresents a group —ch—ch-phenyl. the copolymer of the present invention allows a rapid thermoresponsive inverse gelation to be achieved, yielding a hydrogel with viscoelastic solid-like properties, as well as shear thinning, rapid structure recovery and good strain resistance properties. the hydrogel can be favorably used in 3d printing applications.
