Novel Agarose Processing Techniques: Design and Characterization of a Sturdy, Porous Foam for Controlled Topical Drug Delivery
ISEF · 2018 Materials Science
Overview
Rapidly emergent within the scientific community are drug delivery systems, complex amalgamations of medicinals consolidated into a controllable vehicle that seeks to maximize immediacy and efficiency of medical relief. The field of hydrogel drying holds much promise for such a vehicle. This research aimed to design a sturdy agarose foam as a system for controlled topical drug delivery. The first phase of research was dedicated to developing a fundamental processing technique for constructing foam: this was desiccating an agitated agar gel preform in vacuum. Then, the foam’s physical characteristics were analyzed. Finally, the foam was impregnated in two phases. In the first phase, the foam was doped with an aesthetic dopant to demonstrate the foam’s conformity of appearance. In the second phase, a dopant, fluorescein, was released from the foam at controllable rates into deionized water. A novel, light, organic, porous foam was successfully produced and characterized. The visual dopant displayed the foam’s conformity of appearance, while the controlled release of fluorescein basally modeled the foam’s targeted application as a medicinal delivery system geared towards recovery from exhaustive violence, such as after terrorist attacks or combat situations. Preliminary bacterial testing has been initiated to assess antibacterial release from foam samples and efficacy on bacterial cultures. Alternative applications of the foam extend into the field of environmental engineering, demonstrating its versatile potentials.
Awards (1)
- American Chemical Society: Certificate of Honorable Mention
Competition history
- ISEF 2018
Resources
Related projects
ISEF · 2017
Novel Agarose Processing Techniques: Development and Impregnation of Hyper-Porous Agarose Emission Foam and Micro-Cylindrical Agarose Particles
ISEF · 2022
Development and Characterization of a Novel Laponite-Enhanced Tannic Acid-Based Hydrogel
ISEF · 2014
Calcium Alginate and Polyacrylamide Hydrogels as Drug Delivery Devices
ISEF · 2023
Development and Characterization of a Novel Instantaneous-Crosslinking Pectin-Based Hydrogel
Closest projects by meaning, across every fair and year in the corpus.
Source: Regeneron International Science and Engineering Fair