Abraham Joy is an associate professor of Polymer Science at the University of Akron. He obtained his Ph.D. in chemistry from Tulane University, working under the mentorship of Prof. V. Ramamurthy on organic asymmetric photoreactions. Following his doctoral work, he carried out his postdoctoral work at the Georgia Institute of Technology with Prof. Gary Schuster, working on charge migration in synthetic oligonucleotides. Subsequently, he was an NIH Ruth Kirschstein postdoctoral fellow at Rutgers University and Univ. Pennsylvania working with Prof. Joachim Kohn and Prof. Christopher Chen. During this time, he worked on designing biomaterials for modulating cellular functions. He is a recipient of the 3M Non-tenured faculty award and an NSF CAREER award. In early 2016, he became an associate professor with tenure.
B. Tech, Polymer Science and Engineering, Institute of Chemical Technology, 2010
My primary research pursuits include bottom-up synthesis of functional monomers for degradable block copolymers and synthesis of novel photo-responsive adhesives. My research interests are broad but meet at the intersection of functional organic materials, polymer chemistry and biomaterials.
B. Tech, Surface Coating Technology, Institute of Chemical Technology, 2014
I am trying to understand the effect of such bioactive molecules on the quality of 3D printed structures. I am also trying to correlate the bulk material properties of a polymer to its 3D printing parameters to achieve good quality 3D prints.
M.S., Polymer Science, University of Akron, 2015
My research focuses on tunable functionalized polyesters used as biomaterials. The polyester was synthesized through carbodiimide-mediated coupling of diols and diacids and via changing various functional pendant groups as well as different length of diacid, corresponding properties of the polyester were studied systematically.
B.S., Biochemistry, California Polytechnic State University, 2015
My research focuses on the synthesis of biodegradable thermoresponsive polyesters (TR-PEs) for biomedical applications. The TR‑PEs form coacervates above their LCST, which makes them attractive candidates for applications such as controlled drug release and degradable scaffolds.
My research focuses primarily on the synthesis and characterization of photoresponsive polymers. Most commonly I incorporate alkoxyphenacyl or nitrobenzyl chromophores into my polymers to enhance degradation or alter mechanical properties. I am also performing research on the functionalization of polyurethanes for use in biomedical applications.
M. S. in Chemistry, IISER Kolkata, 2015
I am presently looking at the mussel-inspired, hydrolytically-degradable wet-adhesives with unconventional cohesive and adhesive components. My research involves synthesis of innovative biomaterials and spectroscopic analysis of the decisive adhesion components both in bulk and at the surface.
M.S. in Chemistry, University of Calcutta, 2015
I am interested in synthesizing biodegradable, thermoresponsive polyesters suitable for drug and protein delivery applications. Another aspect of the project involves building a framework for understanding protein-polymer interactions within coacervates. My area of research includes but not limited to polymer synthesis, 1D and 2D NMR spectroscopy, protein expression and purification.
B. S. Chemistry, Prince of Songkla University, Thailand
Synthesis and modify polymer for antimicrobial and bio-film application.
M. S. in Chemistry, National Tsing Hua University, 2011
My research focuses on polyurethane polymers which can be further applied to 3D printing and adhesives.
B.Tech., Polymer Science and Technology, Indian Institute of Technology, Roorkee, 2016
I’m particularly interested in polymers that are inherently antimicrobial and effective against microbial biofilms. I’m currently working on understanding the structure-activity relationships of such polymers and modifying them to be useful in eradicating clinically relevant infections.
M.S., Polymer Science, University of Akron, 2018
My research aims to the synthesize the nanoparticles which enhance the sensitivity of MRI contrast agents. Based on the monomer in lab, introducing the crosslinking groups can lead to form the core of the nanoparticle. By controlling the composition of other monomers, it contributes to load of the contrast agents and shorten the relation of contrast agents.
B. S. Physics Applied to Electronics, University of Puerto Rico – Humacao, 2017
3D printing is an area with high demand for development of novel engineered platforms that manipulate biology for production of programmed advanced materials. Hydrogels have been used to incorporate and 3D print bacteria, but when it comes to mechanical properties, they do not meet the expectations. That is why my research focus in the implementation of bacteria to a polymer solution, to encapsulate bacteria in a 3D print shape. In order to do that it is important to understand the mechanics of the bacteria and polymer for separate and combined together, which is also a topic where I do research on.
B.S. Biochemistry, University of Akron 2020
Undergraduate Research Assistant
Currently I am focused on the synthesis of 3D printable polymers with adhesive properties. My hopes are to continue expanding my skills and knowledge while in Joy Lab.
B.S. Biomedical Engineering, University of Akron, 2019
Undergraduate Research Assistant
My research focuses on the detection of opioids through the use of polymers and observed colorimetric changes upon contact with drug. Potential applications include first responder scenarios, as well as healthcare and criminal settings.