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Multi-Organ Toxicity Testing

Predict systemic toxicity using integrated human multi-organ systems that capture organ–organ crosstalk, metabolite-driven effects, and downstream secondary toxicity.

Includes advanced applications such as connected barrier modeling across intestinal, blood–brain, and CSF systems.

Organ–organ crosstalk
Metabolite-mediated effects
Systemic toxicity prediction
Liver cells in multi-organ microphysiological system
Brain cells in multi-organ microphysiological system

Why Multi-Organ Toxicity Testing

Conventional single-organ models fail to capture systemic toxicity, secondary organ injury, and metabolite-driven effects.

Many safety liabilities arise from inter-organ communication and circulating metabolites — not direct toxicity to a single tissue.

Revivocell's multi-organ systems enable controlled biochemical communication between human tissues, allowing mechanistic investigation of systemic drug effects under defined conditions.

We run the study for you

Fully managed multi-organ toxicity studies from design to interpretation.

  • Study design and organ-axis selection
  • Compound dosing and experimental execution
  • Quality control, data analysis, and interpretation
  • Comprehensive systemic toxicity evaluation
Multi-organ microphysiological system platform

Multi-Organ Microphysiological System Platform — modular NANOSTACKS™ architecture enabling independent organ compartments with controlled biochemical communication.

Supported Organ Axes

Configure organ-specific systems to model defined biological pathways and interactions.

Click on each configuration to explore its specific applications

Advanced Applications Enabled by Multi-Organ Systems

Leverage integrated organ systems to study complex biological processes beyond single-organ models

Connected Barrier Modeling (IB–BBB–BCSFB)

Model sequential drug transport across intestinal, blood–brain, and CSF barriers within a unified human multi-organ system.

  • Sequential barrier transport (gut → blood → brain)
  • Integrated metabolism and permeability readouts
  • CNS exposure prediction in human-relevant systems

Evidence-Based, Decision-Ready Data

Our multi-organ toxicity studies use microphysiological systems with demonstrated human-relevant function, providing confidence in the biological relevance of systemic safety data.

Why our models deliver confident decisions

  • Controlled organ–organ biochemical communication
  • Human-relevant metabolism and downstream effects
  • Mechanistic insight into secondary and off-target toxicity
  • Structured, multiparametric datasets for advanced analysis

How It Works

1
Week 1

Introductory Call

Discuss organ axes, hypotheses, and decision points

2
Week 2

Study Plan & Quote

Receive a detailed protocol and pricing

3
4-8 Weeks

Experimental Execution

Performed by our scientific team

4
Final Week

Report Delivery

With data, QC, and interpretation

Who this service is for

  • Pharmaceutical and biotechnology companies
  • AI / machine-learning companies
  • CROs
  • Academic and translational research groups

Core Study Endpoints

Organ-specific biomarkers

Liver function, neural activity, metabolic capacity

Metabolite production

Quantitative profiling via HPLC-MS

What you receive

Comprehensive, decision-ready outputs:

Detailed study report

Full experimental protocol, raw data, statistical analysis, and quality control metrics

Quality control documentation

Cell viability, functional benchmarks, and assay performance indicators

Scientific interpretation

Expert analysis of organ-organ interactions, dose-response patterns, and compound-specific findings

Decision-ready outputs

Clear conclusions and recommendations to support go/no-go decisions or regulatory submissions

Models used in this service

Multi-Organ MPS

Modular platform for liver-brain, liver-gut, and custom organ axis configurations

Plan Your Multi-Organ Study

Discuss your organ combinations, hypotheses, and timelines with our scientific team.

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