CMAM's facilities and equipment are dedicated to academic research, scientific discovery, and collaborative research projects. We welcome partnerships with academic institutions, industry, and research organizations to address challenging problems in materials mechanics, characterization, and advanced manufacturing.
Our facilities are intended for research activities and collaborative investigations. CMAM does not provide routine commercial testing, characterization, or fee-for-service laboratory services. Access to equipment is coordinated through approved research collaborations, subject to availability and university policies.
The Circular Materials and Advanced Manufacturing (CMAM) Laboratory at the University of Michigan–Dearborn integrates experimental testing, materials characterization, computational mechanics, and advanced manufacturing to investigate the behavior, durability, and failure of engineering materials.
Our experimental and computational capabilities support research across metals, polymers, elastomers, and architected materials. By connecting experimental observations with physics-based modeling and artificial intelligence, we develop and validate predictive frameworks for materials engineering, manufacturing process optimization, and sustainable technologies.
We investigate the mechanical response of engineering materials under different loading conditions to understand their deformation, damage evolution, fatigue, and failure.
Research capabilities include:
Quasi-static and cyclic mechanical testing
Tensile and compressive characterization
Fatigue and durability investigations
Full-field deformation and strain measurement using digital image correlation (DIC)
Experimental validation of constitutive and damage models
These capabilities support the development of reliable material models and improved predictions of structural performance and service life.
We investigate how material structure, thermal properties, and environmental exposure influence mechanical behavior and long-term performance.
Research capabilities include:
Differential scanning calorimetry (DSC)
Dynamic mechanical analysis (DMA)
Microscopy and microstructural characterization
Polymer and elastomer aging investigations
Thermal and environmental degradation studies
Analysis of relationships between material structure, degradation, and mechanical properties
By combining characterization techniques with mechanical testing, we seek to identify the physical mechanisms governing material degradation and failure.
Computational modeling is a central component of CMAM's research. We develop numerical and data-driven methods to predict material behavior, simulate manufacturing processes, and accelerate engineering design.
Research capabilities include:
Finite-element analysis (FEA)
Constitutive modeling, plasticity, and continuum damage mechanics
User-defined material models (UMAT/VUMAT)
Peridynamic modeling of damage and fracture
Machine-learning and graph-neural-network surrogate models
Digital twins and AI-enabled manufacturing process simulation
Computational optimization and data-driven materials design
These approaches connect fundamental material behavior with predictive simulations and intelligent engineering decision-making.
Our research investigates how manufacturing processes and geometric design influence material properties, structural performance, and product reliability.
Research capabilities include:
Additive manufacturing and rapid prototyping
Design and evaluation of architected materials
Manufacturing process modeling and optimization
Process–structure–property relationships
Manufacturing-aware computational design
Sustainable material processing and recycling research
These activities support the development of innovative materials, manufacturing processes, and engineering solutions.
CMAM welcomes academic and industrial collaborations involving experimental materials characterization, mechanical testing, computational modeling, and advanced manufacturing.
Access to laboratory equipment and research capabilities is coordinated through collaborative research arrangements, subject to equipment availability, university policies, and project requirements.
For research inquiries or potential collaborations, please contact:
Prof. Georges Ayoub
Director, Circular Materials and Advanced Manufacturing Laboratory
University of Michigan–Dearborn
gayoub@umich.edu