01
Field tests of fluid-driven fracture
Controlled field experiments test how pressure, elasticity, freezing, heterogeneity, and boundary conditions govern crack growth and arrest.
Explore fracture mechanicsGeophysicist · University of Washington
Testing how Earth materials fracture, deform, and fail.
Brad Lipovsky combines controlled field experiments, dense fiber-optic sensing, and mechanics to test how fluid-driven fractures grow, arrest, and interact with ice, rock, and water.
~40Papers published or under review¹
$3.4M+Research support secured for the group¹
$13.3MUW awards involving the group¹
A mechanics-first research program
Mechanical theory, tested in real Earth systems.
Controlled experiments and dense observations test how pressure, elasticity, freezing, heterogeneity, and boundaries govern fracture and friction.
02
Ice as a natural laboratory for fracture and friction
Glacier beds, ice-shelf rifts, and calving fronts expose how deformation localizes and how failure couples ice, rock, water, and ocean.
Explore ice mechanics03
Fiber-optic observatories for field mechanics
Dense fiber measurements turn cables into thousands of sensors for observing deformation, fracture, friction, and wave propagation in natural systems.
Explore field observatoriesMechanics in practice
Fracture and friction, observed and tested.
The group designs field tests around specific mechanical questions, then builds the observations and models needed to resolve them.
Controlled field experiments
Watching fluid-driven fractures grow and arrest
Experiments combine controlled pressure forcing, dense strain observations, and mechanics to test how elasticity, freezing, heterogeneity, and boundaries govern crack propagation.
See the fracture program
Ice as a natural laboratory
Fracture and friction across the cryosphere
Ice-shelf rifts, calving fronts, and glacier beds reveal how cracks propagate, friction evolves, and failure couples ice to rock and water.
See the ice mechanics program
Enabling infrastructure
Fiber sensing built around mechanics questions
Purpose-built and existing cables provide dense measurements of strain, temperature, and wave propagation in systems that are otherwise difficult to instrument.
See the observation platformScientific leadership
Building the field around the science.
Leadership means more than publishing results: it means creating shared infrastructure, convening communities, opening data and code, and developing the people who will define what comes next.
Research infrastructure
Founder of the UW FiberLab, shared infrastructure for field experiments that test deformation, fracture, friction, and wave propagation.
Community leadership
Organizer of “Optical Seismology and the Next Era of Seismic Sensing,” plus sustained conference, working-group, and advisory leadership.
Open, reproducible science
Open data, code, training resources, equipment access, and research translation designed to make new methods useful beyond a single project.
Current highlights
Recent work and collaborations.
Recent measurements and collaborations that extend field mechanics across scales and settings.
Extending observations across optical repeaters
A UW–Nokia Bell Labs demonstration measured strain and wave propagation across multiple spans of the Ocean Observatories Initiative cabled array, extending the scale of field observations.
Greenland fjord dynamics in Nature
Seafloor strain measurements resolved how calving drives waves, circulation, and melt—work led by postdoctoral scholar Dominik Gräff with Lipovsky leading the NSF-funded fiber component.
Field mechanics in continuous monitoring
Applied Environmental Intelligence, co-founded by Brad Lipovsky, Stephanie Olinger, and Marine Denolle, applies dense sensing and physics-informed analysis to subsurface deformation and structure.
The Lipovsky research group
Ambitious science, built by people who own their ideas.
Our group pairs high expectations for ethical, reproducible work with kindness, inclusion, candid conversations about credit, sustainable careers, and intellectual ownership for students and postdoctoral scholars.
Selected publications
Fracture mechanics across systems.
Calving-driven fjord dynamics resolved by seafloor fibre sensing
Nature · Seafloor fiber sensing resolves how iceberg calving drives Greenland fjord dynamics.
Ocean coupling limits rupture velocity of fastest observed ice shelf rift propagation event
AGU Advances · A coupled fracture-mechanics and fluid-dynamics explanation for an extraordinary Antarctic rift event.
Vibrational modes of hydraulic fractures
Journal of Geophysical Research: Solid Earth · Uses resonance to infer the geometry and fluid properties of hydraulic fractures.
¹ Publication count includes manuscripts under review, with approximately thirty papers from the UW period. Funding figures summarize awards led or co-led by Lipovsky: more than $3.4M supporting his group, contributing to $13.3M at UW and $26.5M across partner institutions.