PIPages
Labs

Thomas Gernay

Johns Hopkins University, MD·Engineering·Early-career

Buildings must stay standing long enough during a fire for people to escape and firefighters to work. Newer building materials such as engineered mass timber and lightweight cold-formed steel can make construction cheaper, faster and more efficient.

Fields

Engineering

Materials Science

Topics

structural fire engineering

fire resilience

performance-based design

Grants
2 known grants, through Jun 2028

What they work on

  1. Derive accurate material models and properties for timber in realistic fires by analyzing recent fire test data with Bayesian inference and surrogate modeling.
  2. Build and validate a finite element framework for the fire-thermal-structural response of timber frames, and use it to construct fragility functions for fire-induced collapse.
  3. Use topology optimization, which finds the best placement of material, to design fire-resilient timber cross-sections and column layouts through a stiffness projection method.
  4. Test cold-formed steel studs and joists under a range of changing high temperatures with a new experimental method to measure how buckling and heat interact.
  5. Develop thermal-mechanical computer models, high-fidelity numerical benchmarks and analysis-based methods to assess the fire performance of cold-formed steel structures.

More about the research

However, their fire safety is often judged with simple rules or standard tests that do not capture how real fires and structures interact. Both projects aim to replace these rules with performance-based design, which predicts how a specific structure will actually behave in a realistic fire. They combine experiments and computer modeling to do so.

Why it matters

Fire safety gaps can slow the adoption of mass timber and make protecting cold-formed steel buildings costly. Better models and design methods could help engineers and building-code committees design safer, more resource-efficient and more affordable buildings. This could reduce the risk of fire-induced collapse for occupants and firefighters.

Known grants

From NIH and NSF research grants. Labs often have other funding we can't see.

Advancing Fire Resilient Design of Timber Buildings Through Computational Modeling

NSF · Jul 2025 – Jun 2028

CAREER: Performance-Based Fire Design for Cold-Formed Steel Structures

NSF · Jul 2023 – Jun 2028

Closest labs

Tara Hutchinson

University of California-San Diego, CA·Engineering

Test individual wall lines and building components of cold-formed steel framing to separate how designated shear walls, gravity walls, finishes and partitions each resist earthquake loads.

Andre Barbosa

Oregon State University, OR·Engineering

Isolate gross shear, net shear, and combined shear-torsion failure modes in lumber-based and veneer-based cross-laminated timber panels, using the Universal Panel Tester's controlled biaxial and twisting loads.

Alessandro F Rotta Loria

Northwestern University, IL·Engineering·Early-career

Measure the heat transfer, mass transfer and deformation of an underground garage wall retrofitted with geothermal panels, through continuous full-scale field monitoring of different fluid network setups.

The school

Johns Hopkins University: 100 labs on PI Pages, $4.1B a year on research, 622 research doctorates a year.

More about Johns Hopkins University

Reach out

A start for your email. Fill in the brackets.