Efficacy models for specialised indications

Beyond major therapeutic areas, many innovative programmes target complex, niche or organ‑specific indications requiring highly specialised preclinical models. These indications often combine structural damage, immune dysregulation, tissue remodelling or acute pathological events, making standard models insufficient to generate meaningful pharmacodynamic data.

At CER Groupe, we support these programmes through customised preclinical efficacy and pharmacodynamic studies, leveraging our research centre + CRO model to design, adapt or co‑develop disease‑relevant models. This hub page presents a selection of specialised domains where CER Groupe provides robust, translational support.

Bone & skeletal disorders

Scope & applications

Bone‑related programmes often focus on regeneration, repair, infection or structural integrity, requiring precise control of defect size, location and mechanical environment.

In vivo efficacy models

  • Critical and sub‑critical size bone defect models
  • Osteochondral defect models
  • Ovariectomy (OVX)‑induced bone loss models (osteoporosis‑related)
  • Bone infection models (including osteomyelitis)

Key readouts

µCT‑based structural analysis, histology and histomorphometry, biomaterial integration, inflammatory and remodelling biomarkers.

Pulmonary & respiratory diseases

Scope & applications

Pulmonary indications involve acute or chronic inflammation, tissue remodelling and impaired respiratory function, often requiring integrated functional and pathological assessment.

In vivo efficacy models

  • LPS‑induced lung inflammation
  • Pulmonary fibrosis‑associated inflammation models
  • Asthma‑ and COPD‑like inflammatory settings (where relevant)

Key readouts

Inflammatory cell infiltration, cytokine profiling, histopathology, lung structure and functional endpoints (study‑dependent).

Liver diseases

Scope & applications

Liver diseases are characterised by metabolic stress, inflammation, fibrosis and progressive tissue damage, requiring models that capture both systemic and organ‑specific effects.

In vivo efficacy models

  • NAFLD / NASH‑like models
  • Liver fibrosis models (chemical‑induced)
  • Acute liver injury models (e.g. drug‑induced)

Key readouts

Serum biomarkers (ALT, AST, ALP), lipid and metabolic parameters, histopathology (steatosis, inflammation, fibrosis), molecular biomarkers.

GVHD & immune‑mediated complications

Scope & applications

Graft‑versus‑host disease (GVHD) and related immune complications require immune‑driven models capturing systemic and tissue‑specific immune damage.

In vivo efficacy models

  • Acute and chronic GVHD models
  • Immune‑mediated tissue injury settings

Key readouts

Survival, clinical scoring, immune‑cell profiling, cytokine panels, tissue histopathology.

Wound healing & tissue repair

Scope & applications

Wound healing programmes focus on tissue regeneration, angiogenesis and inflammation resolution, often in compromised settings.

In vivo efficacy models

  • Excisional wound healing models
  • Delayed or impaired wound healing models (e.g. metabolic context)
  • Biomaterial‑assisted repair settings

Key readouts

Wound closure kinetics, digital imaging, histology (re‑epithelialisation, angiogenesis), inflammatory and regenerative biomarkers.

Thrombolysis & acute vascular events

Scope & applications

Thrombolytic strategies target acute vascular occlusion, requiring short‑term, highly controlled models.

In vivo efficacy models

  • Catheter‑induced thrombus models
  • Acute thrombosis and clot‑resolution settings

Key readouts

Clot dissolution, vascular patency, haemodynamic parameters, safety‑related endpoints.

Supporting in vitro & cell‑based assays

Across these specialised domains, in vivo studies can be complemented by targeted in vitro and cell‑based assays, including:

  • Cell characterisation and phenotyping (flow cytometry, ICC/IF)
  • Inflammatory and immune‑modulation assays (MSD multiplex, ELISA, qPCR)
  • Cytotoxicity and biocompatibility profiling (MTT, LDH, apoptosis/necrosis)
  • Functional assays (migration, secretion profiling)

These assays support mechanism validation, candidate ranking and biomarker selection.

Custom model development for niche indications

Many specialised indications require bespoke preclinical approaches. CER Groupe offers:

  • Adaptation of existing models to specific pathophysiology
  • Co‑development of new or hybrid models
  • Integration of novel biomarkers and functional readouts
  • Pilot feasibility and validation studies

This flexibility is a key differentiator for first‑in‑class therapies and innovative medical devices.

Why choose CER Groupe for specialised domains?

  • Research centre + CRO, enabling rapid model adaptation
  • Strong expertise in complex and niche indications
  • Integrated in vivo, in vitro, imaging and biomarker platforms
  • GLP-like data integrity supporting downstream development
  • Experience across pharma, biotech and medtech programmes