Georgia Tech Wood Laboratory

Engineering systems-level insights into complex brain pathology.

Mission & Strategic Vision
Foundational Scientific Philosophy

At the Wood Laboratory, our core mission is to decode the multifaceted mechanisms of neurodegenerative disorders and traumatic brain injuries using rigorous systems-engineering frameworks.

Complex neurological diseases do not stem from single isolated pathways; they emerge from the systemic breakdown of vascular, neural, and immunological coordination. By unifying custom microfluidic platforms, validated animal models, and predictive computational network modeling, we isolate disease drivers with cellular-scale resolution.

Our objective is to deliver quantitative, reproducible findings that clarify underlying disease etiology and provide actionable therapeutic targets for clinical translation.

Atlanta, GA — Georgia Tech Campus
Explore Active Research
Principal Investigator
“By applying engineering precision to the tangled dynamics of neurodegeneration, we can systematically deconstruct disease progression and create real diagnostic clarity.”
LW

Dr. Levi Wood

Associate Professor & Lab Director

Georgia Institute of Technology

Core Methodological Frameworks

Integration of Physical & Computational Sciences

EXPERIMENTAL PLATFORMS
Microfluidic & Molecular Probing
Precision cellular microenvironments

Engineering microscale platforms to isolate cellular communication and recreate human neurovascular microenvironments under controlled hemodynamic conditions.

Key Technologies:
Microfluidic ChipsTissue MicroarraysPerfusion Assays
QUANTITATIVE ANALYSIS
Multi-Scale Computational Modeling
Systems-level network topologies

Integrating high-dimensional datasets through dynamic computational frameworks to uncover hidden regulatory signaling cascades in neurotrauma and dementia.

Key Technologies:
Pathway ModelingDynamic ClusteringMachine Learning
DISEASE TARGETING
Translational Clinical Discovery
Bridging bench to neurological therapies

Collaborating with clinicians to map in vitro findings directly against longitudinal patient trajectories in Alzheimer's disease and acute brain injury.

Key Technologies:
Mouse In Vivo ModelsBiomarker MappingTarget Validation
01

Systems Engineering

Deconstructing neurodegenerative disease not as isolated molecular lesions, but as interdependent network failures across cellular systems.

02

Physical & Biological Integration

Combining microfabrication, biomechanics, and molecular biology to test cellular responses to mechanical stress and inflammatory shocks.

03

Institutional Collaboration

Anchored at Georgia Tech, partnering across bioengineering, neurology, and data science consortia to accelerate research impact.

Interested in collaborative research or graduate positions?

Explore publication records or inquire about multidisciplinary trainee opportunities.

Institutional Progression

A Decade of Systems-Level Precision

From the initial founding of Wood Laboratory at Georgia Tech to major NIH and NSF research programs, explore the milestones and bioengineering breakthroughs shaping our investigations into Alzheimer’s disease and neurotrauma.

AUG 2016
Establishment

Laboratory Founded at Georgia Tech

Dr. Levi Wood establishes the laboratory within the bioengineering and mechanical engineering cluster at Georgia Tech, establishing the core framework for engineering-driven neurotrauma inquiry.

Initial Lab Space
1,200 sq.ft.
MAR 2018
Federal Award

Inaugural NIH R01 Award for Neurotrauma Pathways

Secured multi-year National Institutes of Health funding to map mechanical strain dynamics in microfluidic neural matrices following repetitive cellular stress.

Research Allocation
$1.85M Award
OCT 2019
Model Innovation

First Microfluidic Human Blood-Brain Barrier Chip

Engineered a high-throughput microfluidic vascular co-culture platform replicating human blood-brain barrier shear stresses and tight-junction integrity under inflammatory stimulus.

Flow Precision
±0.02 µL/min
FEB 2021
Publication

Pivotal Alzheimer's Systems Biology Framework

Published flagship research demonstrating how localized computational network modeling predicts glial cell activation cascades prior to detectable cognitive degeneration.

Journal Impact
Top 5% Cited
NOV 2022
Federal Award

NSF Bioengineering Multi-Institute Collaborative

Selected as primary lead for an interdisciplinary National Science Foundation initiative linking engineered neural microenvironments with computational transcriptomics.

Consortium Nodes
4 Universities
JUN 2024
Model Innovation

Traumatic Brain Injury Shear-Perfusion Platform

Unveiled next-generation 3D microfluidic tissue chambers that subject living neuronal-astrocytic networks to calibrated microsecond hydrostatic impact forces.

Temporal Resolution
< 5 ms Impact
Ongoing Inquiry at Georgia Tech

Explore current research thrusts and published findings

Learn more about our microfluidic systems, animal models, and systems biology pipelines investigating neurodegenerative pathways.