Paweł Baranowski

Assistant Professor

Military University of Technology in Warsaw

Poland

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About

Paweł Baranowski is an Assistant Professor at the Military University of Technology in Warsaw, Poland. His research areas include the numerical and experimental evaluation of materials for ballistic applications, energy absorption in lattice structures and 3D-printed components, and dynamic compression testing methodologies. His recent articles reflect a strong focus on advanced materials and their mechanical properties, particularly in the context of dynamic simulations and modeling blood flow in cerebral arteries.

Articles (23)

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2025

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2024

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2024

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2024

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2024

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2024

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2024

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2024

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2024

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2023

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2023

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2023

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2022

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2022

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2022

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2022

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2021

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2021

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2021

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2020

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2020

Collaborators (4)

Łukasz Mazurkiewicz

Military University of Technology in Warsaw

POLAND

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Krzysztof Damaziak

Military University of Technology

POLAND

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Jerzy Małachowski

professor

Military University of Technology in Warsaw

POLAND

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Piotr Sielicki

Professor PUT

Poznan University of Technology

POLAND

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Paweł Baranowski

Research Interests

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About

Articles (23)

Numerical and experimental evaluation of maraging steel cellular topologies for ballistic panel design

Studies of energy absorption of lattice structures manufactured from PETG filament with FFF 3D printing

Numerical studies of the energy absorption capacities and deformation mechanisms of 2D cellular topologies

STUDY OF CONTACT ALGORITHMS INFLUENCING SPECIMEN RESPONSE IN NUMERICAL SIMULATION OF DYNAMIC COMPRESSION TEST

Study of Contact Algorithms Influencing Specimen Response in Numerical Simulation of Dynamic Compression Test

JH-2 constitutive model of sandstone for dynamic problems

JH-2 constitutive model of sandstone for dynamic problems

Influence of 3D-printed cellular shoe soles on plantar pressure during running − Experimental and numerical studies

Basilar tip fenestration giving rise to Percheron's and mesencephalic arteries

Numerical aspects of modeling flow through the cerebral artery system with multiple small perforators

Comparison of selected blasting constitutive models for reproducing the dynamic fragmentation of rock

Application of the split Hopkinson pressure bar technique to study the influence of inertial confinement on the dynamic mechanical response of concrete

Comparison of selected blasting constitutive models for reproducing the dynamic fragmentation of rock

Optimization of a land vehicle suspension subjected to a buried charge explosion

Mechanical behavior of bilayer structures of Ti64 alloy and its composites with TiC or TiB under quasi-static and dynamic compression

Investigation of dolomite’ rock brittle fracture using fully calibrated Karagozian Case Concrete model

Shock-induced fracture of dolomite rock in small-scale blast tests

Study of rock fracture under blast loading

Failure behavior of a concrete slab perforated by a deformable bullet

Experimental testing and 3D meso-scale numerical simulations of SCC subjected to high compression strain rates

Numerical Simulation of Vehicle–Lighting Pole Crash Tests: Parametric Study of Factors Influencing Predicted Occupant Safety Levels

Experimental testing and numerical simulations of blast-induced fracture of dolomite rock

Dolomite fracture modeling using the Johnson-Holmquist concrete material model: Parameter determination and validation

Collaborators (4)

Łukasz Mazurkiewicz

Krzysztof Damaziak

Jerzy Małachowski

Piotr Sielicki

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