Professor in iPSC cell therapy, with experience (14+ years) in iPSC biology, bioprocess development, analytical assays, genome editing, laboratory automation, and drug discovery and safety. Background in biopharmaceutical industry and academic sectors, with publication record of 25+ papers, cited >4,500 times. Driven to lead and facilitate development of preclinical research programs, including translational biology, bioprocess development and scaled manufacturing of cell therapies, disease model development and mechanism investigation, assay development, target identification and validation, and lead generation and optimization. Professor Elena Matsa was previously a postdoctoral fellow and Instructor at the Stanford Cardiovascular Institute, Stanford University School of Medicine, where she studied human induced pluripotent stem cells (iPSC) to model cardiovascular disease and cardiomyocyte-drug interactions. Since 2017, Professor Matsa has held several roles in industry, including a Director position at Ncardia - a company focusing on iPSC-based drug discovery and safety assessment. Through this role, she used state-of-the-art technologies for next-generation sequencing, genome editing, high throughput automated characterisation of hiPSC-derivatives such as skeletal muscle cells, neurons, macrophages and hematopoietic stem cells, and high throughout screening to advance new therapeutic products towards the clinic. In her most recent industry role as Senior Vice President in Cell Therapy Research at Cellistic- a company specialising in process development and large-scale manufacture of cell therapies based on iPSC technology, Professor Matsa strengthened the leadership team providing expertise and strategic guidance on bioreactor-based hiPSC specification towards immune cell types, such as T-regulatory cells (Treg), Natural Killer (NK) cells, and T-cells. Professor Matsa has expertise and experience i

The lab's current research aims to enhance cell identity, purity, yield, reproducibility, and cost-effectiveness in the manufacturing of iPSC-based cell therapies for immune cell applications. Research interests include: · Modulating key lymphoid lineage developmental pathways · Developing cryopreservation formulations · Creating cost-effective media formulations · Advancing process development systems and sensors · Integrating AI into process development · Exploiting single-cell in-process analytics · Developing disease-relevant in vitro organoid models

Cell therapy, including regenerative medicine, cancer immunotherapy, genome editing, bioprocess development, and ATMP regulatory considerations, iPSC biology and applications in disease modelling, drug discovery, and cell therapy.