Revolution
Induced Pluripotent Stem Cells (iPSC) Technology
Induced pluripotent stem cell (iPSC) technology has the potential to transform the fields of drug discovery and cell therapy by providing a reliable source of human cells for research and therapeutic purposes.
iPSCs can be differentiated into a wide range of cell types, allowing researchers to study disease mechanisms and test potential drug candidates in a more physiologically relevant context. In addition, iPSCs can be used to generate organ-specific cells for use in cell therapies, which have the potential to treat a variety of diseases and conditions.
Application of iPSC
iPSC are generated by reprogramming somatic cells, such as skin or blood cells, to an embryonic-like state through the forced expression of specific transcription factors. iPSCs have the capacity to differentiate into any cell type of the body,
allowing for the creation of patient/organ-specific cells that can be used to study disease mechanisms and develop new therapies.
Application of iPSC
Drug Discovery
iPSC-derived cells can be used to create disease models by restoring disease phenotypes, either from patient samples or by CRISPR editing. Researchers can generate iPSCs from patients with specific genetic mutations or disease phenotypes, and differentiate these cells into relevant cell types such as cardiomyocytes, neurons, or liver cells. These cells are then used to study disease mechanisms, screen large libraries of compounds or drugs, and identify potential therapeutics that can restore normal function or alleviate disease symptoms.
Available Disease Models in LumiSTAR
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- Cardiac Disease Models
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- Neurodegenerative Disease Models- Parkinson’s and Alzheimer’s Diseases

Application of iPSC
Cell Therapy
Induced pluripotent stem cells (iPSCs) can be used in cell therapy to treat various diseases or injuries by differentiating them into functional cells that can replace or repair damaged cells or tissues, addressing unmet medical needs such as neurodegenerative disorders, spinal cord injuries, and kidney diseases (such as chronic kidney disease or acute kidney injury).
LumiSTAR’s Pipelines
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- Parkinson’s Disease
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- Cancer
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- Kidney Disease

Pain Points on Developing Applications of iPSC Technology
Maturation states of Cells
Differentiated cells must achieve a certain level of maturity to best reflect the disease phenotype and be suitable for translation to cell therapy.
High Throughput Screening
Advanced technologies are essential for efficient screening of iPSC-derived cells to gain more information on cellular functionality and drug response.
OUR SOLUTION
Integrating iPSCs with Bioimaging Methods
LumiSTAR is a leader in the field of developing genetically encoded tools for live cell bioimaging, by which enables high-throughput screening of
cellular functions for drug discovery and quality control of iPSC cell therapy.
By visualizing and quantifying changes in cellular morphology, activities, and other cellular features, LumiSTAR’s bio imaging platform can provide valuable insights into how drugs affect cells at the cellular level. In addition to drug discovery, bio imaging is also crucial for quality
control in cell therapy. The success of iPS cell therapies relies on the maturation states of the cells to perform their intended functions in
vivo. LumiSTAR’s platform can be used to evaluate the quality and functionality of cells prior to their use in therapy. By assessing key
cellular parameters mentioned above, LumiSTAR’s system can help ensure the safety and efficacy of cell therapies.
Advantages of LumiSTAR’s Genetically Encoded Tools
Advantages of LumiSTAR’s Bioimaging Platform
How
Triple Core Technology
LumiSTAR’s triple core technology platform represents a sophisticated combination of iPSCs, viral vectors, and genetically encoded tools that enable high throughput/content screening for developing novel therapeutics
iPSC Derived Cells

Genetically Encoded Tools

Viral Vectors

Demonstration of Our Platform
High-Throughput Optical Controlling and Recording Calcium Signal in iPSC-Derived Cardiomyocytes for Toxicity Testing and Phenotypic Drug Screening
Chang, Y. F., Su, W. C., Su, C. C., Chung, M. W., Chang, J., Li, Y. Y., Kao, Y. J., Chen, W. P., Daniels, M. J. High-Throughput Optical Controlling and Recording Calcium Signal in iPSC-Derived Cardiomyocytes for Toxicity Testing and Phenotypic Drug Screening. J. Vis. Exp. (181), e63175, doi:10.3791/63175 (2022).
link to the article and video