iPSC-Derived Cells

iPSC-Derived Cells

Accelerate breakthroughs with confidence

Accelerate breakthroughs
with confidence

From drug discovery to regenerative medicine, our iPSC-derived platform accelerates development across the entire R&D pipeline. These physiologically relevant models empower high-throughput screening, toxicity evaluation, and mechanism-of-action studies with human-specific precision.


Scalable, accessible, and ready to use, our iPSC-derived cells help researchers enhance translational value and move faster toward clinical success.

From drug discovery to regenerative medicine, our iPSC-derived platform accelerates development across the entire R&D pipeline. These physiologically relevant models empower high-throughput screening, toxicity evaluation, and mechanism-of-action studies with human-specific precision.


Scalable, accessible, and ready to use, our iPSC-derived cells help researchers enhance translational value and move faster toward clinical success.

How It Works

How It Works

From Patient to Therapy

From Patient
to Therapy

Transforming Disease Research with Human-Relevant Models

Somatic Cell Isolation

Obtain somatic cells, such as skin fibroblasts or blood cells, from a donor.

Reprogramming and Expansion

Use defined transcription factors to reprogram donor somatic cells into induced pluripotent stem cells (iPSCs). Expand and characterize iPSC colonies under strict quality controls to ensure pluripotency, genetic stability, and suitability for downstream applications.

Differentiation

Differentiate iPSCs into specialized human cell types (e.g., neurons, cardiomyocytes, epithelial cells, or hepatocytes) for mimicking physiological function.

Drug Development

Utilize iPSC-derived cells to model human diseases or predict drug toxicity in vitro, providing human-relevant data for preclinical research and safety screening.

Regenerative Medicine Development

Develop iPSC-derived cellular therapies tailored to patient needs, enabling transplantation or cell replacement strategies for treating a range of conditions.

Clinical Applications

Apply drugs validated using disease models or deliver iPSC-derived cell therapies to patients, advancing precision medicine and improving clinical outcomes.

Somatic Cell Isolation

Obtain somatic cells, such as skin fibroblasts or blood cells, from a donor.

Reprogramming and Expansion

Use defined transcription factors to reprogram donor somatic cells into induced pluripotent stem cells (iPSCs). Expand and characterize iPSC colonies under strict quality controls to ensure pluripotency, genetic stability, and suitability for downstream applications.

Differentiation

Differentiate iPSCs into specialized human cell types (e.g., neurons, cardiomyocytes, epithelial cells, or hepatocytes) for mimicking physiological function.

Drug Development

Utilize iPSC-derived cells to model human diseases or predict drug toxicity in vitro, providing human-relevant data for preclinical research and safety screening.

Regenerative Medicine Development

Develop iPSC-derived cellular therapies tailored to patient needs, enabling transplantation or cell replacement strategies for treating a range of conditions.

Clinical Applications

Apply drugs validated using disease models or deliver iPSC-derived cell therapies to patients, advancing precision medicine and improving clinical outcomes.

LumiStem™ iPSC-Derived Cells

LumiStem™ iPSC-Derived Cells

LumiStem™
iPSC-Derived Cells

Our ready-to-use iPSC-derived cells are engineered for reliability, consistency, and biological accuracy.

Each cell type is manufactured under stringent quality controls to deliver verified performance and reproducibility. By capturing the physiological characteristics of native human tissues, our iPSC-derived cells enable deeper disease insights and more predictive results than conventional cell lines or animal models.

Our ready-to-use iPSC-derived cells are engineered for reliability, consistency, and biological accuracy. Each cell type is manufactured under stringent quality controls to deliver verified performance and reproducibility. By capturing the physiological characteristics of native human tissues, our iPSC-derived cells enable deeper disease insights and more predictive results than conventional cell lines or animal models.

Our ready-to-use iPSC-derived cells are engineered for reliability, consistency, and biological accuracy. Each cell type is manufactured under stringent quality controls to deliver verified performance and reproducibility. By capturing the physiological characteristics of native human tissues, our iPSC-derived cells enable deeper disease insights and more predictive results than conventional cell lines or animal models.

Cardiac cells

Cardiomyocytes

Human iPSC-derived ventricular cardiomyocytes with spontaneous beating, mature calcium handling, and stable electrophysiology

iCM003

Cardiomyocytes

Human iPSC-derived ventricular cardiomyocytes with spontaneous beating, mature calcium handling, and stable electrophysiology

iCM003

Nerve cells

GABAergic Neurons

mCherry-tagged human iPSC-derived precursors that mature into functional inhibitory neurons with real-time fluorescent tracking

LumiGR01

GABAergic Neurons

mCherry-tagged human iPSC-derived precursors that mature into functional inhibitory neurons with real-time fluorescent tracking

LumiGR01

Cortical Neurons

Human iPSC-derived wild-type cortical neurons forming functional excitatory networks with mature synaptic activity

LumiCR03

Cortical Neurons

Human iPSC-derived wild-type cortical neurons forming functional excitatory networks with mature synaptic activity

LumiCR03

Cortical Neurons PSEN1ᴬ²⁴⁶ᴱ

Human iPSC-derived cortical neurons carrying the PSEN1 A246E familial Alzheimer's mutation with altered amyloid processing phenotype

LumiCR02

Cortical Neurons PSEN1ᴬ²⁴⁶ᴱ

Human iPSC-derived cortical neurons carrying the PSEN1 A246E familial Alzheimer's mutation with altered amyloid processing phenotype

LumiCR02

Cortical Neurons APPᵛ⁷¹⁷ᴵ

Human iPSC-derived cortical neurons harboring the APP V717I familial Alzheimer's mutation with elevated Aβ42/40 ratios

LumiCR05

Cortical Neurons APPᵛ⁷¹⁷ᴵ

Human iPSC-derived cortical neurons harboring the APP V717I familial Alzheimer's mutation with elevated Aβ42/40 ratios

LumiCR05

Glial cells

Microglia

Human iPSC-derived microglia with native immune surveillance, phagocytic activity, and cytokine responsiveness

LumiMG01

Astrocytes

Human iPSC-derived astrocytes with functional glutamate uptake, calcium signaling, and neurotrophic support

LumiAC01

Microglia

Human iPSC-derived microglia with native immune surveillance, phagocytic activity, and cytokine responsiveness

LumiMG01

Microglia

Human iPSC-derived microglia with native immune surveillance, phagocytic activity, and cytokine responsiveness

LumiMG01

Astrocytes

Human iPSC-derived astrocytes with functional glutamate uptake, calcium signaling, and neurotrophic support

LumiAC01

Astrocytes

Human iPSC-derived astrocytes with functional glutamate uptake, calcium signaling, and neurotrophic support

LumiAC01

Microglia

Human iPSC-derived microglia with native immune surveillance, phagocytic activity, and cytokine responsiveness

LumiMG01

Microglia

Human iPSC-derived microglia with native immune surveillance, phagocytic activity, and cytokine responsiveness

LumiMG01

Astrocytes

Human iPSC-derived astrocytes with functional glutamate uptake, calcium signaling, and neurotrophic support

LumiAC01

Astrocytes

Human iPSC-derived astrocytes with functional glutamate uptake, calcium signaling, and neurotrophic support

LumiAC01

Copyright © 2025 LumiSTAR Biotechnology, Inc. All Rights Reserved

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Copyright © 2025 LumiSTAR Biotechnology, Inc. All Rights Reserved

Privacy Policy | Terms & Conditions

Copyright © 2025 LumiSTAR Biotechnology, Inc. All Rights Reserved

Privacy Policy | Terms & Conditions