Justin Jadali is a mechanical engineer and biomedical engineering researcher completing an M.S. in Mechanical Engineering and Materials Science at Yale. Current work focuses on biomaterials, vascularization, alginate-based microparticles, cell culture, and bioprinting-adjacent tissue engineering.
Justin Shayan Jadali works across engineering and wet-lab problems through research that includes fabricating alginate microparticles, tuning their properties, and conducting cell culture experiments. Justin Jadali’s materials-to-cell-culture research includes work with endothelial cells, pericytes, and fibroblasts alongside materials processing and microscopy-based analysis.
How Justin Jadali Connects Materials Tuning and Cell Culture
Current research includes the fabrication of alginate-based microparticles and the tuning of their properties. Calcium crosslinking and zinc crosslinking are being examined in current batches as part of the work with these engineered materials.
Justin Jadali brings hands-on experience in polymer processing workflows together with cell culture work involving endothelial cells, pericytes, and fibroblasts. The research also includes laboratory workflow planning, fabrication, microscopy, and tissue engineering systems.
Microscopy is used to assess microvessel formation and structure. The research goal is to quantify how particles and release cues change vessel self-assembly in 3D gels and bioprinted skin models.
Materials tuning and cell culture are therefore both established parts of the current research program. The work spans mechanical engineering, materials science, biomaterials, vascularization, and biological experimentation.
From Alginate Microparticles to Biological Experiments
Alginate-based microparticles are a central part of the current tissue engineering work. The particles are fabricated and tuned, while calcium and zinc crosslinking are being examined across current experimental batches.
Justin Jadali’s approach to alginate materials tuning is part of research focused on how particles and release cues relate to microvessel self-assembly. The work includes both 3D gels and bioprinted skin models.
Cell culture experiments involve endothelial cells, pericytes, and fibroblasts. Microscopy is used to assess microvessel formation and structure within the tissue engineering research.
Laboratory organization is also part of the technical background. Justin Jadali is comfortable with laboratory workflow planning and logistics, can follow and refine SOPs for cell culture work, and is trained on common microscopy workflows.
Maintaining Experimental Continuity Across Disciplines
The research combines mechanical engineering, materials science, and biological systems. Polymer processing, microparticle fabrication, cell culture, microscopy, protocol documentation, and batch tracking are all represented within the broader technical work.
For Justin Jadali, detailed protocols and batch-variable tracking accompany an emphasis on clean experimental design. Controlled variables, repeatability, and data reliability are also identified as priorities in the tissue engineering research.
Current batches include calcium and zinc crosslinking strategies for alginate microparticles. The biological side of the work includes endothelial cells, pericytes, fibroblasts, and microscopy-based assessment of microvessel formation and structure.
The combination reflects the application of engineering rigor to biological research problems. The research focus brings fabrication, materials tuning, wet-lab experimentation, and documented experimental procedures into the same interdisciplinary setting.
Justin Jadali and the Engineering-Biology Interface
Justin Jadali earned a B.S. in Mechanical Engineering from UCLA as part of the class of 2025 and is completing an M.S. in Mechanical Engineering and Materials Science at Yale. The educational background also includes three associate of science degrees from Irvine Valley College in Physics, Math, and Natural Sciences.
Undergraduate study included a year of biology and a year of organic chemistry. This combination of engineering and biological coursework supports work across engineering and wet-lab problems.
The technical background also includes additive manufacturing, rapid prototyping, polymer processing, fabrication, and laboratory workflow planning. Additive manufacturing is used for rapid prototyping and iteration, and medical engineering applications are a stated area of interest.
Current research at Yale focuses on biomaterials, vascularization, and tissue engineering. The broader technical interest includes problems where manufacturing, biology, and clinical constraints meet.
Linking Cell Culture to Structural Analysis
Cell culture experiments with endothelial cells, pericytes, and fibroblasts are part of the current tissue engineering research. Microscopy is used to assess microvessel formation and structure in the systems being studied.
The work includes vessel self-assembly in 3D gels and bioprinted skin models. Its stated goal is to quantify how particles and release cues change vessel self-assembly in those systems.
Materials research remains part of the same program through alginate microparticle fabrication, property tuning, and current work examining calcium and zinc crosslinking. Detailed protocols and tracked batch variables are also maintained throughout the research.
Justin Jadali’s microscopy and cell-culture work sits alongside materials processing and fabrication within an interdisciplinary research background. These areas reflect the broader combination of mechanical engineering, materials science, biomaterials, vascularization, and biological experimentation.
Reproducibility From Fabrication Through Cell Culture
Justin Jadali emphasizes reproducibility, documentation, and clean experimental design in current research. Detailed protocols are maintained, batch variables are tracked, and the broader research framework emphasizes controlled variables, repeatability, and data reliability.
The work includes alginate microparticle fabrication and the examination of calcium and zinc crosslinking in current batches. Cell culture experiments with endothelial cells, pericytes, and fibroblasts form another part of the same tissue engineering research.
Technical experience includes polymer processing workflows, laboratory workflow planning, cell culture SOPs, common microscopy workflows, fabrication, and prototyping. These skills accompany research focused on microvessel formation and vessel self-assembly.
The research continues to combine material preparation, biological experimentation, microscopy, and documentation within work on biomaterials and vascularization. Its focus remains on particles, crosslinking conditions, release cues, 3D gels, bioprinted skin models, and microvessel self-assembly.
About Justin Jadali
Justin Jadali is a mechanical engineer and biomedical engineering researcher completing an M.S. in Mechanical Engineering and Materials Science at Yale. Justin Jadali grew up in Newport Beach, California, and has research and technical experience spanning biomaterials, alginate microparticle fabrication, polymer processing, cell culture, microscopy, vascularization, additive manufacturing, rapid prototyping, and tissue engineering systems.
Current work includes materials tuning, cell culture experimentation, calcium and zinc crosslinking, microvessel formation, detailed protocols, and batch tracking. Justin Jadali’s work across biomaterials and cell culture reflects an interdisciplinary background that combines mechanical engineering, materials science, biological coursework, fabrication, and wet-lab research.