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Biological Models

(Cell Models, Organoid Models, Mouse Models)

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3D High-Throughput Micro-Chip for Organoid Culture and Drug Screening

IBAC (Integrated Biomimetic Array Chip) - S

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High-Throughput Barrier Function Organ-on-Chips

IBAC (Integrated Biomimetic Array Chip) - M1

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Organoid Expansion Chip for Dynamic Culture

IBAC (Integrated Biomimetic Array Chip) - 01

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Organoid Expansion Chip for Dynamic Culture

IBAC (Integrated Biomimetic Array Chip) - O2

Organoids for Regenerative Medicine and Developmental Biology

Organoids are transforming regenerative medicine by providing platforms for tissue repair and organ transplantation. Liver, intestinal, and kidney organoids hold promise for treating organ failure and chronic diseases. In developmental biology, organoids mimic organogenesis, offering insights into human development and congenital disorders. These 3D structures replicate tissue architecture and function, enabling researchers to study cellular interactions and developmental pathways. Organoids bridge the gap between in vitro and in vivo models, advancing regenerative therapies and our understanding of human biology and disease.

Intestinal Organoid Model

An intestinal organoid model is a 3D miniature structure derived from stem cells that mimics the intestinal epithelium's cellular organization and function. It provides a platform for studying gut development, nutrient absorption, disease mechanisms like inflammatory bowel disease and infections, and is extensively used in drug screening, microbiome research, and regenerative medicine.

Organoids for Disease Modeling and Drug Development

Organoids have transformed disease modeling and drug development by replicating human tissue structure and function within a 3D environment. They enable the study of complex diseases, including cancer, genetic disorders, and infections, while providing platforms for drug screening, toxicity testing, and therapy optimization. Additionally, organoids support personalized medicine and bridge the gap between preclinical research and clinical applications, offering vast potential for future applications.

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