Leading Innovation in Manufacturing Science & Technology
Plastic waste fills roadsides, rivers and oceans, threatening ecosystems and communities.
Do you want to help solve this problem, develop better recycling methods and find
new uses for plastics and medical waste? At Troy University's Center for Materials
and Manufacturing Sciences (CMMS), students can conduct research alongside TROY faculty
and other industry experts in areas like eco-friendly polymer recycling, packaging,
electronics, optoelectronics, energy harvesting, flexible technologies and biomedical
sensors. By integrating manufacturing science with groundbreaking research, CMMS empowers
the Wiregrass region with practical solutions that drive economic development, improve
environmental sustainability and advance healthcare technologies.
$95K
Cancer research grant
50+
Online academic programs
$10.2M
Research facility grant
Benefit from Undergraduate Research Opportunities
Backed by $10 million from the National Institute of Standards and Technology (NIST),
TROY's Center for Materials and Manufacturing Sciences (CMMS) is shaping the future
of sustainable manufacturing and materials science. From plastic recycling to repurposing
medical PPE, CMMS offers undergraduate research opportunities and access to cutting-edge
equipment early in your academic journey. Collaborate on research projects with widely published TROY faculty and industry partners, gaining hands-on experience through research, internships
and skill-building in fields like electronics, advanced manufacturing and materials
science. With a focus on interdisciplinary collaboration and real-world impact, CMMS
prepares you for careers in research, industry and higher education. Research assistantships
and funded projects with student stipends are also available.
Through CMMS, you'll work in specialized research labs funded by the National Institute
of Standards and Technology, supporting breakthroughs in manufacturing science & technology.
These include the Microscopy and Spectroscopy Lab, the Electrical and Optical Characterization
Lab, the Thermal, Mechanical and Chemical Testing and Analysis Lab, the Polymer Processing
Lab and the Pilot Plant Lab. You'll gain hands-on experience with advanced equipment used in advanced materials technology, such as a Bruker Ascend 400 MHz nuclear magnetic
resonance spectrometer (NMR), a Bruker Dimension Icon Atomic Force Microscope (AFM)
with PeakForce QNM and a scanning electron microscope (SEM). Mechanical testing tools
like a rheometer, differential scanning calorimeter (DSC) and thermogravimetric analyzer
(TGA) give you real-world exposure to the technology used in research and industry.
In CMMS labs, you'll use specialized tools to bring your research to life. From the
Poseidon 3D Printer to the Instron mechanical testing system and Intelli-Torque Plasti-Corder,
these instruments help you design, test and refine materials. Soon, even more precision
equipment — like a scanning electron microscope, energy-dispersive X-ray system and
gas permeability tester — will expand your hands-on learning.
At the Center for Materials and Manufacturing Sciences (CMMS), your research doesn't
stay in the lab — it reaches the broader scientific community. By collaborating with
faculty on cutting-edge projects in materials science and manufacturing technologies,
you'll contribute to peer-reviewed publications that advance innovation and showcase
Troy University's leadership in manufacturing science & technology.
Give to Advance Research, Education & Collaboration
Your support strengthens sustainable manufacturing and materials science research
at CMMS. Faculty lead groundbreaking projects in areas like plastic recycling and
medical PPE repurposing, working alongside industry partners to develop real-world
solutions.
With your gift, you also provide undergraduate research opportunities that give students
hands-on experience with cutting-edge technology, preparing them for careers in advanced
manufacturing, electronics, biotechnology and beyond.
Every contribution directly supports the tools, talent and research that make this
work possible
At CMMS, TROY faculty lead research projects in sustainable manufacturing and polymer
chemistry, solving real-world problems like plastic waste and biodegradable materials.
Students work alongside these experts through undergraduate research opportunities,
building hands-on experience in our specialized labs.
Dr. Brian Pillay
Developing a relationship between Melt Flow Index (MFI) and Molecular weight (Mw)
of PP and PE blends both recycled and virgin (for benchmark)
Using recycled PP and glass fiber for underground water meter vault application
Using recycled HDPE and used casting sand for low cost and light weight landscaping
blocks
Using recycled PP and glass fiber for storm water drain cover applications
Processing of PET and natural fiber composites
Pressing of grocery bags and natural fiber composites
Processing of post-consumer and postindustrial nylon 6 and glass fiber composites
Dr. Zhiyong Wang
Development of composite materials with enhanced mechanical properties from waste
plastics and chemically treated hemp fibers
Chemical recycling and upcycling of polyethylene terephthalate (PET) from waste drinking
bottles
Development of novel fully-recyclable polymer materials
Dr. Shaoyang Liu
Spectrometric analysis of contaminations and additives in recycled plastics with quantitative
chemometrics models
Nanostructure and nanomechanical property analysis with atomic force microscope
Monitoring volatile compounds and odors of recycled plastics
Crystallization kinetics of polymers and composites
Dr. Arun Ghosh
Converting bio-renewable lignocellulose and protein biomass into new materials
Recycling of post-consumer polymers into new materials
Analysis of processing/structures/properties/applications of the polymers and composites
Dr. Mojtaba Enayati
Chemical recycling of polyethylene terephthalate (PET) into monomers and functional
materials using the sustainable catalysts
Development of new catalysts for chemical recycling of polyethylene terephthalate
(PET)
Simultaneous depolymerization and polymerization of post-consumer polyethylene terephthalate
(PET) in a high-pressure reactor
Synthesis of polymer adsorbents for recovery of value-added products from waste stream
and removal of contaminants
Synthesis of complex and functional polymers via living radical polymerization
Recycling of surgical face masks as a pandemic waste
Dr. Aboulfazl Barati
Compounding, formulation, and surface modification of polymers
Polymerization (solution, suspension, and emulsion)
Micro/nano-emulsions based on organic/inorganic additives
Nanocomposite ion-exchange composite synthesis
Mechanical recycling processes of waste plastics
Biopolymer-based blends and composites
Utilization of waste-derived fillers in polymer compounding
Structure-property relationship
Dr. Amanda Kennell
Dr. Brooke Otten
Electronic and molecular structures of gold compounds
Optical properties of gold compounds
Development of gold catalyst for the breakdown of small organohalides
Photo-activation of gold-based catalysts
Dr. Raj Vinnakota
Semiconductor Plasmonics, Optics, Photonics and enhanced Light Matter Interactions.
Nanophotonics and nonlinear optics
Energy Harvesting Devices
Finite element modeling with applications Computational Electrodynamics.
Heat Transfer and fluid dynamics.
Fundamental problems in physics and engineering.
Dr. Shaimum Shahriar
Fabrication and characterization of perovskite thin films and planar solar cells.
Optimizing RF/DC sputtering, thermal evaporation, spin coating, and chemical bath
deposition techniques for planar perovskite solar cells.
Crystallography analysis of thin films, morphology and structural characterization,
surface composition, and oxidation state analysis.
Optical properties, absorbance, reflectance, and transmittance profiling.
Bandgap, carrier lifetime, mobility, and resistivity studies.
Pyroelectric energy harvesting of lithium niobate (LiNbO₃) and designed renewable
energy systems.
Designed and implemented photonic gas sensors inspired by nature with expertise in
structural and optical characterization.
Numerical analysis: Solving linear and nonlinear equations, curve-fitting, numerical
differentiation, and integration, simulation of optical properties (absorbance, reflectance,
transmittance) for thin films by using Transfer Matrix Method (TMM), Device modeling
and simulation by SCAPS and SETFOS.
Research interests: Flexible solar cells, Energy-harvesting materials and devices,
Nano-mechanical energy harvesting, and Photonic sensors.
FAQ About Manufacturing Science and TROY's CMMS
Learn more about the field of manufacturing science & technology and the CMMS at TROY.
What is the Center for Materials and Manufacturing Sciences (CMMS)?
CMMS is a research facility at TROY where you can explore advanced materials technology,
sustainable manufacturing, advanced polymer technology, electronics and biomedical
technologies. You'll gain hands-on experience and collaborate on cutting-edge research
projects in manufacturing science & technology.
Are research opportunities available at CMMS?
Yes. Both students and faculty can engage in innovative projects at the Center for
Materials and Manufacturing Sciences (CMMS). Students collaborate with TROY faculty
on pioneering research in advanced materials technology, electronics and manufacturing
science, contributing to technological advancements in sustainable manufacturing and
advanced polymer technology. Faculty members can secure research funding, partner
with industry leaders, and access state-of-the-art facilities to further their work
in materials science and manufacturing.
What specific research projects are currently underway at CMMS?
CMMS is actively pursuing several research initiatives, including:
Recycling and repurposing plastics: Developing methods to transform high-density polyethylene (HDPE) grocery bags into
fibers and filaments, and creating high-performance materials from single-use grocery
bags.
Composite material development: Enhancing mechanical properties of waste plastics by combining them with chemically
treated hemp fibers, and processing post-consumer and post-industrial nylon 6 with
glass fiber composites.
Chemical recycling innovations: Exploring the chemical recycling and upcycling of polyethylene terephthalate (PET)
from waste drinking bottles, and investigating microwave-assisted glycolysis of PET
into monomers and oligomers.
Advanced analytical techniques: Conducting spectrometric analysis of contaminants and additives in recycled plastics
using quantitative chemometric models, and analyzing nanostructures and nanomechanical
properties with atomic force microscopy.
These projects reflect the center's strong research focus and the real-world impact
of its work in sustainable materials and advanced manufacturing.
How can I get involved in research at CMMS?
Students interested in participating in CMMS research projects should reach out to
faculty members whose work aligns with their interests. Faculty members are encouraged
to propose new research initiatives and seek collaborations within CMMS. Industry
partners and donors can support CMMS by sponsoring research projects, funding scholarships,
investing in advanced equipment and collaborating on innovative solutions in materials
science and manufacturing.
Can you receive funding for research at CMMS?
If you work on a funded research grant you may receive a stipend. This financial
support allows you to focus on gaining valuable hands-on experience through undergraduate
research opportunities.
How does CMMS enhance students' academic and career prospects?
CMMS gives you access to groundbreaking undergraduate research opportunities, faculty
mentorship and real-world projects with CMMS partners in local and regional industries.
With hands-on research experience and exposure to industry collaborations, you'll
graduate with highly marketable skills and connections to employers in high-demand
fields. You'll also be well-prepared to pursue advanced degrees.