From human organs to engineering tools that are used in aerospace and automotive sectors, 3D printing promises to open up novel and significant manufacturing methods. These methods and other potential benefits have led to accelerated investment in the validation of current 3D printing technologies and the rapid exploration of new concepts, such as lightweight structural components and multifunctional tissue scaffolds. The rapid growth and disruptive potential of 3D printing demand further research that addresses the fundamental principles of 3D printing and likewise enables engineers to realize its capabilities. We can use these capabilities to develop material systems that obtain some of their properties via their structural organization rather than their intrinsic constituents. I am interested in applying the fundamentals of engineering mechanics to investigate novel material systems (e.g., nature-inspired and mathematical systems) with qualitatively different mechanical behaviors but using the same material composition. If structural patterns with different length scales are combined in a hierarchical manner, mixed-mode mechanical responses, such as bending–stretching, are possible. Multiscale metamaterials with properties heretofore unseen in engineered materials can be created by the 3D printing of flexible inks. 


Research Background

Postdoctoral Research, Khademhosseini Lab, HST (Prof. A. Khademhosseini)   Aug. 2015 - Dec. 2017

  • Bioprinting and organ-on-a-chip models
  • Design, fabrication and optimization of photolithography-based printers
  • Cell-biomaterials interactions in bioprinted structures

Postdoctoral Research, Biomaterials Lab, McGill University (Prof. S.N. Nazhat)  Sep. 2013 - May 2015

  • Design and characterization of collagen-based gel scaffolds
  • Tissue regeneration under static and dynamic stimulations
  • Study of cell-biomaterial interactions

Doctoral Research, Biomechanics Lab, McGill University (Prof. L. Mongeau)  Jan. 2009 - Aug. 2013

  • Design and characterization of collagen-based gel scaffolds
  • Mechanical characterization of vocal folds using tensile testing, shear rheometry and AFM-based indentation
  • Microstructural characterization of normal and scarred vocal folds using nonlinear laser scanning microscopy
  • Poroviscoelastic modeling of vocal folds to determine nanoscale viscoelasticity of extracellular matrix proteins
  • Anisotropic hyperelastic modeling of collagen-reinforced soft tissues with application to collagen remodeling
  • Well-experienced in tissue dissection and sample preparation using vibrotome, microtome and cryostat

Research Assistant, Sharif University of Technology (Prof. A. Nosier)  Jan. 2006 - Sep. 2008

  • Development of a layerwise formulation for composite, laminated, cylindrical, shell panels
  • Study of free-edge effects in composite, shell panels under hygro-thermo-mechanical loading

Research Assistant, Acoustic Research Lab, IUST (Prof. S.M. Hasheminejad)  Sep. 2005 - Dec. 2007

  • Field study of acoustic radiation of cylindrical bars in poroelastic foundations
  • Theoretical study of wave propagation in solids in the presence of inhomogeneties

Undergraduate Research, Fluid Mechanics Lab, IUST (Profs. Nouri & Hasheminejad)  Sep. 2004 - Dec. 2005

  • Numerical study of acoustic forces on ocean pipes associated with oil industry