iPSC & Stem Cell Technology

How induced pluripotent stem cells revolutionize drug testing by creating patient-specific human tissues—without embryos and without animals

How iPSCs Are Created

From a patient's skin or blood cells to any tissue type in the body

1

Collect Cells

Take skin biopsy or blood sample from patient

2

Reprogram

Add Yamanaka factors (Oct4, Sox2, Klf4, c-Myc)

3

iPSC Colony

Cells revert to pluripotent stem cell state

4

Differentiate

Guide cells into desired tissue type

5

Use for Testing

Test drugs on patient-specific tissues

What iPSCs Can Become

Pluripotent cells can differentiate into virtually any cell type

Cardiomyocytes (Heart)

Beating heart muscle cells for cardiotoxicity testing

  • Measure contractility
  • Detect arrhythmias
  • QT prolongation testing

Hepatocytes (Liver)

Liver cells for metabolism and toxicity studies

  • CYP450 activity
  • Drug metabolism
  • Hepatotoxicity screening

Neurons (Brain)

Brain cells for neurology drug development

  • Neurotoxicity testing
  • Disease modeling
  • Electrophysiology

Pancreatic Beta Cells

Insulin-producing cells for diabetes research

  • Insulin secretion
  • Glucose response
  • Cell replacement therapy

Kidney Cells

Renal cells for nephrotoxicity assessment

  • Drug transport
  • Filtration function
  • Kidney disease models

Immune Cells

T cells, macrophages for immunology research

  • CAR-T development
  • Immune responses
  • Cytokine release

iPSCs in Drug Development

How stem cell technology accelerates safer medicine

🧬

Disease Modeling

Create patient-derived cells with genetic diseases to study mechanisms and test treatments.

💊

Drug Screening

Test thousands of compounds on human cells to identify effective candidates early.

⚠️

Toxicity Testing

Detect human-specific toxicity that animal models miss before clinical trials.

👤

Personalized Medicine

Test drugs on a patient's own cells to predict individual response and side effects.

🔬

Organoid Creation

Grow 3D mini-organs for more realistic tissue-level drug responses.

🩺

Cell Therapy

Generate replacement cells for treating diseases like Parkinson's and diabetes.

Why iPSCs Matter

Advantages over traditional testing methods

1

Human Relevance

Test on actual human cells with human biology, not approximations from other species.

2

Patient-Specific

Create cells from individual patients to predict personal drug responses and side effects.

3

Unlimited Supply

iPSCs can be expanded indefinitely, providing consistent cell sources for large studies.

4

Ethical

No embryos required—cells are reprogrammed from adult tissues with informed consent.

5

Disease Modeling

Study diseases in human cells from patients who actually have the condition.