COLLEGE OF ENGINEERING & SCIENCE

Research Faculty Profiles

Biomaterials and Targeted Drug Delivery

Dr. Mary Caldorera-Moore
Research Lab: Caldorera-Moore Lab – Therapeutic Micro- and Nanotechnology Biomaterials Laboratory
Website: http://mcmoorelab.wixsite.com/mcmlab

Research in the Caldorera-Moore lab combines micro- and nanoscale technologies with intelligent biomaterials to create new and improved biomimetic platforms for studying the influence chemistry, surface topography, and material properties play on directing cell fate or the ability to respond and release therapeutics. The broader impacts of this work are for the development of innovative systems for targeted, cell-specific responsive drug delivery and regenerative medicine applications.

Biomedical Engineering and Health Sciences

Dr. Leon Iasemidis
Specialty: Brain Dynamics
Research Lab: The Brain Dynamics Laboratory
Website: http://www2.latech.edu/~leonidas/

Research in the Brain Dynamics Lab focuses on the design and implement novel methodology and advanced signal processing techniques to monitor, process and model the electrical and magnetic activity recorded from the brain for the purpose of diagnosis, differential diagnosis, evaluation of treatment, timely warning and intervention to avert catastrophic state transitions like epileptic seizures. The secondary goal is to interface the developed products with existing devices in biomedical industry used for monitoring and real-time treatment of the respective disorders, diseases and emergencies, for example, vagus nerve stimulators (VNS), deep brain stimulators (DBS), transcranial magnetic stimulators (TMS) and/or other neuromodulation devices based on timely in situ cooling of the brain or in situ administration of medication.

Cyber Security, Data Science and Analytics

Dr. Jean Gourd
Specialty: Cyber Security

Dr. Gourd’s research in computer science is currently focused in cybersecurity, artificial intelligence, soft computing, distributed computing and software engineering. He works primarily in mobile code management and security and in intelligent mobile software agents for cybersecurity. He has worked in projects in the evolution of intelligent agents for cybersecurity, the design principles for embedded tamper-resistant intelligent agents, FPGA-based network design for support of intelligent agents and increased cybersecurity, real-time visualization of network attacks, proactive and effective cybersecurity education and modeling multi-agent systems.

Micro and Nanotechnologies

Dr. Yuri Lvov
Specialty: Layer-by-Layer Nanoassembly

A layer-by-layer (LbL) assembly of alternating layers of oppositely charged polyelectrolytes and nanoparticles provides the formation of 5 – 500 nm thick films with monolayers of various substances growing in a pre-set sequence on any substrates at a growth step of about 1 nm. This technique was called “molecular beaker epitaxy” meaning by this that with simple instruments (exploiting the materials self-assembly tendency) one can get molecularly organized films similar to the ones obtained with highly sophisticated and expensive molecular beam epitaxy technology for metals and semiconductors. LbL films can coat solid supports, slides, silicon wafers, plastics and fiber optics (2D nanoassembly). Besides, LbL films can be assembled on micro- and nanotemplates, such as 100-500 nm diameter latex, drug microcrystals, biological cells and even viruses, provided by this method for 3D nanoassembly. Polymeric nanoshells also can be prepared with LbL assembly.

Energy and Sustainability

Dr. Hamzeh Bardaweel
Research Lab: Energy Harvesting and Microsystems Lab
Specialty: Energy Harvesting
Website: http://www2.latech.edu/~hamzehb/

The Energy Harvesting and Microsystems Lab research encompasses experimental studies as well as numerical modeling efforts. The main goal of our research is to apply fundamental engineering concepts to design and develop technologies. As a result, our research process goes through a cycle of design, modeling, fabrication, testing and characterization, analysis, optimization, and prototyping. Our research is funded through few agencies including The National Aeronautics and Space Administration (NASA), Louisiana Board of Regents (La BoR), the Louisiana Space Consortium (LaSPACE), and the NASA Experimental Program to Stimulate Competitive Research program (EPSCORE). We also partner with NASA Stennis Space Center and Radiance Technologies. Current Research themes and projects include:

  • Nonlinear dynamic vibration systems in micro and macro environments,
  • Design, modeling, and characterization of vibration energy harvesting,
  • Design, modeling, and characterization of Vibration isolation systems, and
  • Exploring vibration systems subject to combined stiffness and damping nonlinearities.
Transportation and Infrastructure

Dr. John Matthews
Specialty: Underground Infrastructure
Research Center: Trenchless Technology Center

Dr. Matthews’s research focuses on the development of infrastructure, particularly in water and wastewater rehabilitation projects.

STEM Education

Dr. Kelly Crittenden
Specialty: Entrepreneurship and Product Design
Website: http://kel546.wixsite.com/kellyc

Dr. Crittenden’s research focus is in curriculum design, K-12 outreach, strengths of materials, multidisciplinary design and innovative product design. He works closely with the Louisiana Tech IMPaCT (Innovation through Multidisciplinary Projects and Collaborative Teams), which provides Louisiana Tech students and faculty with opportunities to collaborate across disciplines to develop new products.

Basic and Applied Sciences

Dr. Rakitha Beminiwattha
Specialty: Particle Physics
Website: http://www2.latech.edu/~rakithab/

Dr. Beminiwattha’s main research interests include precision tests of the Standard Model (SM) of particle physics, search for new physics beyond the SM and study of nuclear medium effects on bound quarks (EMC effect).

Featured Research

Headshot of Dr. Mary Caldorara-Moore

Dr. Mary Caldorera-Moore

Research in the Caldorera-Moore lab combines micro- and nanoscale technologies with intelligent biomaterials to create new and improved biomimetic platforms for studying the influence chemistry, surface topography, and material properties play on directing cell fate or the ability to respond and release therapeutics. The broader impacts of this work are for the development of innovative systems for targeted, cell-specific responsive drug delivery and regenerative medicine applications.