High-Fidelity In Vitro Models for Predictive Human Response

Our cutting-edge technology platform seamlessly merges physiological relevance with high-throughput screening capabilities. By integrating advanced Organoid self-assembly, microfluidic Organ-on-a-Chip systems, and interconnected Multi-Organ Models, we deliver in vitro solutions that significantly surpass traditional 2D culture and animal models. We provide a more accurate, physiologically relevant approach for drug screening, toxicology testing, and disease modeling, accelerating your preclinical pipeline with unparalleled human predictability.

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Core Technology Platforms

We leverage the self-organization capacity of induced Pluripotent Stem Cells (iPSCs) or adult stem cells to cultivate complex three-dimensional micro-tissues in vitro. These models possess the characteristic cell types, structural organization, and key physiological functions of native human organs (e.g., brain, gut, liver organoids).

  • High physiological relevance and cellular complexity
  • Scalable and reproducible models for diverse organ types
  • Compatible with drug efficacy, toxicity, and disease studies

Combining microfluidic engineering with cell biology, we utilize polymer chips to establish functional tissue units that precisely mimic the organ's microenvironment. The platform allows for the exact control of fluid flow, mechanical stresses (like breathing motion), and cell-cell/cell-matrix interactions.

  • Precise control over microenvironment
  • Enables long-term culture and functional assays
  • Supports mechanistic studies and high-content analysis

Multi-Organ Systems

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Through optimized fluidic connection and integrated control systems, we link two or more different Organ-on-a-Chips (e.g., Liver, Kidney, and Heart chips) to construct an in vitro system that simulates systemic human physiology and inter-organ communication.

  • Integrates multiple organ models for comprehensive studies
  • Predicts pharmacokinetics, toxicity, and systemic responses
  • Facilitates complex disease modeling

Supporting Technologies

3D Bioprinting

Utilizing high-precision bioprinting and custom bio-inks, we are able to accurately and reproducibly construct complex 3D tissue models and organoid scaffolds with a predefined geometrical structure and controlled cell arrangement.

3D Imaging

We employ state-of-the-art systems, including Light-Sheet Microscopy and high-content Confocal Microscopy, to perform non-destructive, rapid, and high-resolution deep imaging of our thick organoid and chip models.

Why Choose Us

Scientific Rigor

Our models are functionally validated against in vivo data, ensuring the highest level of physiological concordance.

Industrial Standard

3D Bioprinting and microfluidics ensure high reproducibility and compatibility with high-throughput screening (HTS) platforms.

Integrated Solutions

We offer an end-to-end service, from model construction and drug testing to comprehensive data analysis.

Expert Support

Our interdisciplinary team of biologists, engineers, and drug discovery specialists provides deep scientific guidance and bespoke services.

Our Model Development Workflow

1. Project Consultation

We define research goals, target organs, and assay needs to determine the optimal model strategy.

2. Model Design & Cell Preparation

Platforms (organoid, organ-on-chip, or multi-organ) are selected, and validated human cells are sourced and QC-tested.

3. Model Construction

Organoids are grown or chips are seeded and assembled under controlled microenvironment conditions.

4. Functional Validation

Key physiological and structural features are verified to ensure model quality and reproducibility.

5. Study Execution & Reporting

Experiments are performed, and comprehensive data packages, imaging results, and analysis reports are delivered.

For research use only. Not for any other purpose.

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