{"data":{"people":{"nodes":[{"name":"Nima Khadem Mohtaram"},{"name":"Laura de la Vega"},{"name":"Andrew Agbay"},{"name":"Amy Montgomery"},{"name":"Henry Zheng"},{"name":"Laila Abelseth"},{"name":"Tara Styan"},{"name":"Emily Abelseth"},{"name":"Meghan Robinson"},{"name":"Sukhi Singh"},{"name":"Cory Blood"},{"name":"Ollie McKee-Reid"},{"name":"Ian Fraser"},{"name":"Gillian Nixon"},{"name":"Sarah Douglas"},{"name":"Diego Gomez"},{"name":"Victor Allison Da Silva"},{"name":"Evan Stefamek"},{"name":"Karina Karmirian"},{"name":"Marie Schultz"},{"name":"Brendon Restall"},{"name":"Parv Chapani"},{"name":"Emma Bibault"},{"name":"Hien Thu (Sarah) Luong"},{"name":"Nathan Muller"},{"name":"Ben Hoffman-Kipp"},{"name":"Briana Dallinger"},{"name":"Austyn Roelofs"},{"name":"Jordan Watson"},{"name":"Sarah Wong"},{"name":"Craig King"},{"name":"Michael Carlson"},{"name":"Darcy Ippolito"},{"name":"Stephanie Morrison"},{"name":"Daniel Pedde"},{"name":"Krista Wilson"},{"name":"Tia Sojonky"},{"name":"Azra 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Kelpin"},{"name":"Thiago Andrade"},{"name":"Dixita Basumatary"},{"name":"Logan O'Reilly"},{"name":"Christine Wong"},{"name":"Jess Thomson"},{"name":"Maria Hangad"},{"name":"Danika Pal"},{"name":"Victoria Hartman"},{"name":"Amanda Juraski"},{"name":"Tania Garay"},{"name":"Lennard Shopperly"},{"name":"Sarah Keshvani"},{"name":"Farnoosh Kalantarnia"},{"name":"Giselle Diaz"},{"name":"Amanda Orr"},{"name":"Bita Raeisi"},{"name":"Jasmine Navabi"},{"name":"Payton Bray"},{"name":"Ekaterina Shteinberg"},{"name":"Shannon Eley"},{"name":"Evan Broome"}]},"googleScholarPublications":{"list":[{"title":"Bioprinting functional neural networks"},{"title":"Next generation in vitro models of the human blood-brain/cerebrospinal fluid barrier"},{"title":"Modeling the neuroimmune system in Alzheimer’s and Parkinson’s diseases"},{"title":"Evaluating the biocompatibility of ceramic materials for constructing artificial reefs"},{"title":"Machine Learning Approaches to 3D Models for Drug Screening"},{"title":"The Impact of Biomaterial Surface Properties on Engineering Neural Tissue for Spinal Cord Regeneration"},{"title":"3D bioprinting for organ and organoid models and disease modeling"},{"title":"Differentiation of peritubular myoid‐like cells from human induced pluripotent stem cells"},{"title":"Recent advances in personalized 3D bioprinted tissue models"},{"title":"hiPSC-derived GRN-deficient astrocytes delay spiking activity of developing neurons"},{"title":"3D-bioprinted cardiac tissues and their potential for disease modeling"},{"title":"3D bioprinting patient-derived induced pluripotent stem cell models of Alzheimer’s disease using a smart bioink"},{"title":"Protocol for 3D Bioprinting Mesenchymal Stem Cell–derived Neural Tissues Using a Fibrin-based Bioink"},{"title":"Utilizing Additive Manufacturing to Produce Organ Mimics and Imaging Phantoms"},{"title":"Novel biomaterial strategies for osteogenic treatments"},{"title":"Optimization of precision nanofiber micelleplexes for DNA delivery"},{"title":"3D bioprinting complex models of cancer"},{"title":"Using nanomaterials to address SARS-CoV-2 variants through development of vaccines and therapeutics"},{"title":"Length-Controlled Nanofiber Micelleplexes as Efficient Nucleic Acid Delivery Vehicles"},{"title":"Testing specificity and sensitivity of wastewater-based epidemiology for detecting SARS-CoV-2 in four communities on Vancouver Island, Canada"},{"title":"Microfluidic Generation of Therapeutically Relevant Polycaprolactone (PCL) Microparticles: Computational and Experimental Approaches"},{"title":"Protocol for printing 3D neural tissues using the BIO X equipped with a pneumatic printhead"},{"title":"Using clinically derived human tissue to 3-dimensionally bioprint personalized testicular tubules for in vitro culturing: first report"},{"title":"The effect of SARS-CoV-2 on the nervous system: a review of neurological impacts caused by human coronaviruses"},{"title":"Trends in hydrogel-based encapsulation technologies for advanced cell therapies applied to limb ischemia"},{"title":"Smart Bioinks for the Printing of Human Tissue Models"},{"title":"Characterizing the Mechanical Performance of a Bare-Metal Stent with an Auxetic Cell Geometry"},{"title":"Engineering brain and spinal cord tissue constructs"},{"title":"Drug‐releasing Microspheres for Stem Cell Differentiation"},{"title":"Evaluation of 3D-printer settings for producing personal protective equipment"},{"title":"3D Printing for Medical Applications: Current State of the Art and Perspectives during the COVID-19 Crisis"},{"title":"3D Bioprinting Mesenchymal Stem Cell-Derived Neural Tissues Using a Fibrin-Based Bioink"},{"title":"3D Bioprinting Human‐Induced Pluripotent Stem Cells and Drug‐Releasing Microspheres to Produce Responsive Neural Tissues"},{"title":"Effect of bioactive Biosilicate®/F18 glass scaffolds on osteogenic differentiation of human adipose stem cells"},{"title":"Physical and Mechanical Characterization of Fibrin-Based Bioprinted Constructs Containing Drug-Releasing Microspheres for Neural Tissue Engineering Applications"},{"title":"Recent advances in the design of microfluidic technologies for the manufacture of drug releasing particles"},{"title":"Stem Cell Systems Bioengineering"},{"title":"3D tissue models as an effective tool for studying viruses and vaccine development"},{"title":"Natural Biomaterials and Their Use as Bioinks for Printing Tissues"},{"title":"Strategies for delivering online biomedical engineering electives during the COVID-19 pandemic"},{"title":"Morphogenic compound-releasing microspheres and use in bioink"},{"title":"Metal additive manufacturing: Technology, metallurgy and modelling"},{"title":"The Use of Patient-Derived Induced Pluripotent Stem Cells for Alzheimer’s Disease Modeling"},{"title":"Novel N-cadherin antagonist causes glioblastoma cell death in a 3D bioprinted co-culture model"},{"title":"Extrusion and Microfluidic‐Based Bioprinting to Fabricate Biomimetic Tissues and Organs"},{"title":"Three-dimensional bioprinting healthy and diseased models of the brain tissue using stem cells"},{"title":"CRISPR, prime editing, optogenetics, and DREADDs: new therapeutic approaches provided by emerging technologies in the treatment of spinal cord injury"},{"title":"3D bioprinting pluripotent stem cell derived neural tissues using a novel fibrin bioink containing drug releasing microspheres"},{"title":"Determining the mechanism behind yoga’s effects on preventing the symptoms of Alzheimer’s disease"},{"title":"Quantitative Analysis of the Rewiring of Signaling Pathways to Alter Cancer Cell Fate"},{"title":"How can microsphere-mediated delivery of small molecules serve as a novel tool for engineering tissues from stem cells?"},{"title":"The 2019 Young Innovators of Cellular and Molecular Bioengineering"},{"title":"A Visible Light-Cross-Linkable, Fibrin–Gelatin-Based Bioprinted Construct with Human Cardiomyocytes and Fibroblasts"},{"title":"3D Printing Breast Tissue Models: A Review of Past Work and Directions for Future Work"},{"title":"3D bioprinting models of neural tissues: the current state of the field and future directions"},{"title":"Modeling the Effects of Yoga on the Progression of Alzheimer’s Disease in a Dish"},{"title":"Advancements in Canadian biomaterials research in neurotraumatic diagnosis and therapies"},{"title":"A Novel Toolkit for Characterizing the Mechanical and Electrical Properties of Engineered Neural Tissues"},{"title":"Bioprinting a novel glioblastoma tumor model using a fibrin-based bioink for drug screening"},{"title":"Advancements in Canadian Biomaterials and Implications for Neurotraumatic Diagnosis and Therapies"},{"title":"1.12 Electrospun Nanofibers for Diverse Applications"},{"title":"Direct Reprogramming Somatic Cells into Functional Neurons: A New Approach to Engineering Neural Tissue In Vitro and In Vivo"},{"title":"Electrospun Nanofibers for Diverse Applications"},{"title":"3D Bioprinting Human Induced Pluripotent Stem Cell-Derived Neural Tissues Using a Novel Lab-on-a-Printer Technology"},{"title":"Engineering neural tissue from human pluripotent stem cells using novel small molecule releasing microspheres"},{"title":"Bioprinting neural tissues using stem cells as a tool for screening drug targets for Alzheimer’s disease"},{"title":"3D printing of neural tissues derived from human induced pluripotent stem cells using a fibrin-based bioink"},{"title":"Transdifferentiating astrocytes into neurons using ASCL1 functionalized with a novel intracellular protein delivery technology"},{"title":"Using Biomaterials to Deliver Cells In Vivo for Neural Tissue Engineering Applications"},{"title":"Biomaterial Scaffolds for Human Embryonic Stem Cell Culture and Differentiation"},{"title":"Direct reprogramming of glioblastoma cells into neurons using small molecules"},{"title":"3D Bioprinting Stem Cell Derived Tissues"},{"title":"Guggulsterone-releasing microspheres direct the differentiation of human induced pluripotent stem cells into neural phenotypes"},{"title":"3D bioprinting human induced pluripotent stem cell-derived neural tissues using a novel lab-on-a-printer technology"},{"title":"Localized tacrolimus delivery repairs the damaged central nervous system"},{"title":"Modeling the behavior of human induced pluripotent stem cells seeded on melt electrospun scaffolds"},{"title":"3-D Bioprinting of Neural Tissue for Applications in Cell Therapy and Drug Screening"},{"title":"Commercializing electrospun scaffolds for pluripotent stem cell-based tissue engineering applications"},{"title":"An Affordable Microsphere-Based Device for Visual Assessment of Water Quality"},{"title":"Mechanically stable fibrin scaffolds promote viability and induce neurite outgrowth in neural aggregates derived from human induced pluripotent stem cells"},{"title":"Engineering Neural Tissue from Stem Cells"},{"title":"Emerging biofabrication strategies for engineering complex tissue constructs"},{"title":"Fibrin hydrogels induce mixed dorsal/ventral spinal neuron identities during differentiation of human induced pluripotent stem cells"},{"title":"Biomimetic strategies for replicating the neural stem cell niche"},{"title":"5.8 Scaffold Materials for Human Embryonic Stem Cell Culture and Differentiation"},{"title":"Melt electrospinning in tissue engineering"},{"title":"Biomaterial strategies for delivering stem cells as a treatment for spinal cord injury"},{"title":"Engineering personalized neural tissue using functionalized transcription factors"},{"title":"Functionalizing Ascl1 with novel intracellular protein delivery technology for promoting neuronal differentiation of human induced pluripotent stem cells"},{"title":"Incorporation of retinoic acid releasing microspheres into pluripotent stem cell aggregates for inducing neuronal differentiation"},{"title":"Electrospun biomaterial scaffolds with varied topographies for neuronal differentiation of human‐induced pluripotent stem cells"},{"title":"Neural Tissue Engineering: Applications"},{"title":"Mathematical model for predicting topographical properties of poly (ε-caprolactone) melt electrospun scaffolds including the effects of temperature and linear transitional speed"},{"title":"Development of a glial cell-derived neurotrophic factor-releasing artificial dura for neural tissue engineering applications"},{"title":"Optimizing Differentiation Protocols for Producing Dopaminergic Neurons from Human Induced Pluripotent Stem Cells for Tissue Engineering Applications: Supplementary Issue: Stem …"},{"title":"Engineering personalized neural tissue by combining induced pluripotent stem cells with fibrin scaffolds"},{"title":"Multifunctional electrospun scaffolds for promoting neuronal differentiation of induced pluripotent stem cells"},{"title":"Using mathematical modeling to control topographical properties of poly (ε-caprolactone) melt electrospun scaffolds"},{"title":"Controlled release of glial cell line-derived neurotrophic factor from poly (ε-caprolactone) microspheres"},{"title":"Fabrication of poly (ϵ-caprolactone) microfiber scaffolds with varying topography and mechanical properties for stem cell-based tissue engineering applications"},{"title":"Combining protein-based biomaterials with stem cells for spinal cord injury repair"},{"title":"Biomaterial-based drug delivery systems for the controlled release of neurotrophic factors"},{"title":"Biomaterial Scaffolds for Human Embryonic Stem Cell Culture and Differentiation"},{"title":"Preparation of 3D fibrin scaffolds for stem cell culture applications"},{"title":"Towards high throughput tissue engineering: development of chitosan-calcium phosphate scaffolds for engineering bone tissue from embryonic stem cells"},{"title":"Neural tissue engineering using embryonic and induced pluripotent stem cells"},{"title":"Scaffold materials for hES cell culture and differentiation"},{"title":"Development of a low bias method for characterizing viral populations using next generation sequencing technology"},{"title":"Advances in Tissue Engineering: Volume 2 Kinetic Analysis of Neurotrophin-3–Mediated Differentiation of Embryonic Stem Cells into Neurons"},{"title":"Conductive core–sheath nanofibers and their potential application in neural tissue engineering"},{"title":"Kinetic Analysis of Neurotrophin-3–Mediated Differentiation of Embryonic Stem Cells into Neurons"},{"title":"The differentiation of embryonic stem cells seeded on electrospun nanofibers into neural lineages"},{"title":"Erratum to “The effect of controlled growth factor delivery on embryonic stem cell differentiation inside fibrin scaffolds”[Stem Cell Res 1 (2008) 205–218]"},{"title":"The effect of controlled growth factor delivery on embryonic stem cell differentiation inside fibrin scaffolds"},{"title":"Combining stem cells and biomaterial scaffolds for constructing tissues and cell delivery"},{"title":"Cell therapy for spinal cord regeneration"},{"title":"The effect of controlled delivery of growth factors on embryonic stem cell differentiation inside of fibrin scaffolds"},{"title":"The effects of soluble growth factors on embryonic stem cell differentiation inside of fibrin scaffolds"},{"title":"Approaches to neural tissue engineering using scaffolds for drug delivery"},{"title":"Rationally designed peptides for controlled release of nerve growth factor from fibrin matrices"},{"title":"Optimization of fibrin scaffolds for differentiation of murine embryonic stem cells into neural lineage cells"},{"title":"Evaluating the Biocompatibility of Ceramic Materials for Artificial Reef Construction"}]},"markdown":{"edges":[{"node":{"id":"e6e04c98-1b85-5fb4-81a2-3e1bb484b8c7"}}]}}}