In vitro tissue models that mimic in vivo human physiology to improve drug discovery
In vitro tissue models that mimic in vivo human physiology to improve drug discovery
In vitro tissue models that mimic in vivo human physiology to improve drug discovery
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Utilization of high – content imaging for the study of lung fibrosis
High content imaging (HCI) assays enable the study of the fibrotic processes: fibroblast – to – myofibroblast transition (FMT) and epithelial – to – mesenchymal transition (EMT)
The aProximateTM model for renal drug safety/efficacy and transporter studies
Analysis of the effect of a compound on retinal microtissue composition
Find out moreDevelopment of a human in vitro model for retinitis pigmentosa
Find out moreAssessing the validity of a nephron model for a metabolic disease study
Find out moreDDI study on renal creatinine clearance mechanism
Find out morePredicting renal retention of radioconjugates in a human relevant in vitro model
Find out moreSafety and efficacy evaluation of a novel therapeutic AAV vectors using a human retinal organoid model
Find out moreComparing the transduction efficiency of two AAV vectors in RPE and Retinal Organoid models derived from iPSC lines
Find out moreComprehensive toxicity study on retinal ganglion cells in early-stage human retinal organoids
Find out moreDevelopment and characterisation of an early-stage retinal organoid disease model (for non-ocular disease)
Find out moreQuantitative Fibroblast-to-Myofibroblast Transition (FMT) studies
Quantitative FMT assay with high content imaging
Find out moreComprehensive in vitro evaluation of ocular toxicity and phenotypic rescue
Find out moreIn vitro selection of the most relevant species to predict human
Evaluation of glomerular ADC toxicity in podocytes
Find out moreGene therapy viral vector assessment on retinal organoids
Find out moreGene therapy viral vector assessment on RPE cells
Find out morePredicting human renal injury from antisense oligonucleotide (ASO)
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