
Disease modeling platforms are designed to identify the effects of a drug candidate in disease relevant cells and microenvironments. The results corroborate efficacy, reduce translational risk and guide strategic decisions across your discovery pipeline.
Within all our assays, it’s possible to select the most appropriate cell type (such as T cells polarized towards a disease phenotype, or iPSC-derived microglia carrying disease-associated mutations and isogenic controls) and model system (including tumor spheroids and organotypic brains slices), providing you with a clear disease-relevant understanding of the impact of your therapeutic. Our PhD qualified scientists are happy to discuss adapting existing assays to your needs or developing entirely new approaches.
Drug discovery and development, with an increase in new approach methodologies (NAMs), continues the significant shift toward human-centric disease models. By applying disease models across multiple therapeutic themes, including immuno-oncology, immunology, oncology, neuroscience and liver disease as well as inflammation, autoimmunity and fibrosis, we ensure that your development program is grounded in disease-relevant biology.
Traditional animal and simplistic in vitro models often fail to predict human outcomes, contributing to late-stage failures. By contrast NAMs using human-centric, multi-cellular disease models help you:
With this as our foundation, at Concept Life Sciences we embed our disease modeling capabilities into each therapeutic area to reinforce your confidence in target selection and candidate validation.
Read more about NAMs in the article by Hayley Gooding, Biology Services Director:
New Approach Methodologies: Why the Future of Drug Development Must Be Human in The Medicine Maker.
The solutions we offer are tailored to reflect the complexity of human disease. To provide flexibility, we layer complexity across three axes:
Supporting models using disease-associated mutations and matched isogenic controls, enables our scientists to dissect mechanism in a controlled, human-relevant setting. Learn more about our functional assays.
Below is how our disease modeling services integrate with and enhance the capabilities you expect from your therapeutic area strategy.
Build tumor + immune cell co-culture / 3D spheroid systems to mimic the tumor microenvironment, including TAMs, exhausted T cells, stromal elements.
Dissect immune suppression, test immunomodulators, support combination strategies. Immuno-oncology CRO services
Recreate autoimmune or inflammatory circuits using immune cell co-cultures, cytokine networks, and tissue-resident components.
Understand immune regulation, validate modulators, explore biomarker linkages. Advanced drug discovery and immune research.
Model tumor growth, invasion, heterogeneity, drug response, and resistance via organoids, spheroids, and orthogonal cell systems.
Identify vulnerability, stratify responders, support mechanism-anchored decisions. Cancer Drug Discovery and Tumor Research
Recapitulate neuronal circuits, glial interactions, and neuroinflammation using iPSC-derived neurons + supporting cells.
Probe neurodegeneration, synaptic dysfunction, target rescue, and mechanistic readouts (e.g. electrophysiology).
Fibrosis CRO services
Recreate human fibrotic progression using iPS‑derived cells, hepatic stellate cells, and immune cells to model, fibroblast activation, chronic injury signaling, wound‑healing dynamics, EMT processes, and MASH‑relevant fibrosis pathways.
Dissect fibrogenesis mechanisms, quantify myofibroblast activation and ECM remodeling, run wound‑healing and EMT functional assays, and evaluate therapeutic modulation in human MASH‑fibrosis models (e.g., collagen deposition, α‑SMA induction, TGF‑β pathway response, EMT marker profiling).
By integrating disease modeling into each therapeutic domain, we help you generate biologically grounded hypotheses, validate your mechanism, and define functional benchmarks early.
Early discovery: Test target perturbation in physiologically relevant contexts.
Lead optimization: Monitor functional endpoints (e.g. cytotoxicity, synaptic rescue) in disease contexts.
Preclinical de-risking: Complement in vivo studies with human-relevant evidence.
Biomarker strategy: Correlate model readouts with translational endpoints.
Our disease models provide the contextual relevance needed to reduce ambiguity and promote confident advancement.
Whether you’re developing immunotherapies, neuroprotective agents, or immune-modulating drugs, we can collaborate from concept through clinical translation. Our disease modeling team, integrated with assay development, molecular biology, and translational biology, delivers the support you need to move forward with conviction.
Speak with an expert to explore how our disease modeling platforms can power your therapeutic area strategy.
A: We offer a range of human-relevant in vitro models, from simple 2D systems to complex 3D co-cultures and organoids, supporting oncology, immuno-oncology, immunology, and neuroscience research.
A: Yes. We frequently co-develop bespoke models to explore unique disease mechanisms or therapeutic modalities, incorporating custom cell types, gene edits, or microenvironmental conditions.
A: Our disease models support diverse readouts including viability, cytokine profiling, immune activation markers, imaging-based phenotypes, electrophysiology, and gene expression analysis, enabling both mechanistic and functional insight.
A: We focus on human biology, using primary cells, iPSC-derived systems, and clinically relevant materials and benchmark against known pharmacology and biomarkers to ensure clinical alignment.
A: By capturing disease-specific interactions, our models help you validate mechanisms, test therapeutic hypotheses, and de-risk translation across immuno-oncology, immunology, oncology, and neuroscience programs.
A: Get in touch with our biology team to discuss your therapeutic focus and discovery goals. We will help define the right disease modeling strategy to accelerate your next stage of development.