Costantini Lab
Engineering the future of skeletal muscle tissues and porous materials through 3D bioprinting and microfluidics.
Institute of Physical Chemistry, Polish Academy of Sciences,·Warsaw
Led bydr hab. Marco Costantini
What we do
We build living tissues and porous materials by combining microfluidics, 3D (bio)printing and data-driven design.
Microfluidic biofabrication
We combine microfluidic printheads with extrusion, wet-spinning and light-based 3D printing to pattern cells and materials with micrometre precision, including multi-material and gradient constructs.
Skeletal muscle & musculoskeletal models
We engineer functional skeletal muscle, tendon and myotendinous-junction tissues, both as in vitro models and as implants for volumetric muscle loss.
Functionally graded porous materials
Microfluidic foaming and emulsion templating give us precise control over pore size and gradients, while machine-learning-aided design links architecture to mechanical performance.
Vascularisation & regenerative biomaterials
We build perfusable microvascular networks and bioactive hydrogels for tissue repair and, in our FNP FIRST TEAM project, bioresorbable dressings for negative-pressure wound therapy.
Latest News
Recent announcements and highlights from the lab.
A big milestone, a proud moment, and a new chapter begins for Maria Celeste Tirelli!
Our new website is live!
Research Projects
Current and recent funded research projects from the lab.

Diffusion of rods and flexible polymers in complex fluids
View project
Inverse design-assisted biodegradable modular dressings for negative pressure wound healing
View project
Optomechanical Transduction for in vitro maturation and functional enhancement of biofabricated skeletal MUScles
View projectAcademic Output
Research articles, reviews, book chapters and conference contributions from the lab.
Recent papers
Our latest original research articles and reviews.
- Original Research
MLATE V3: An Open-Source Multi-Tissue AI Framework for Data-Driven Optimization of 3D-Printed and Bioprinted Scaffolds
Biofabrication • 2026
- Original Research
A comprehensive toolkit for manipulation and analysis of sprouting capillary networks based on magnetic ordering of multiple EC-coated microcarriers and their use in tissue modelling and drug testing
Lab on a Chip • 2026
- Original Research
Circulating extracellular vesicles from early-stage lung cancer patients trigger endothelial activation to drive pre-metastatic niche formation through synergistic miR-29a and C4A signaling
Journal of Experimental & Clinical Cancer Research • 2026
Our Multidisciplinary Team
Postdocs
PhDs
Visiting
Get in Touch
Interested in collaborating, joining our team, or learning more about our functionally graded materials research? Reach out to us below.
Send a Message