Metabolic research
ZeClinics provides preclinical in vivo CRO services using innovative zebrafish models of metabolic disorders such as obesity, non-alcoholic fatty liver disease (NAFLD), and atherosclerosis, with the added value of larger and statistically significant populations than classic animal models.
Zebrafish solutions for accelerating metabolic preclinical research.
Our metabolic field experts offer their experience in drug discovery using zebrafish to help you design and run efficient and cost-effective studies to accelerate your R&D process.
WHY ZEBRAFISH?
Zebrafish represents a fantastic model to study metabolic disorders because of the remarkable genetic, anatomic, and functional similarities with humans in lipid metabolism, adipogenic pathways, pancreas structure, and glucose homeostasis.
Zebrafish share with mammals:
- Key organs for energy homeostasis and metabolism regulation: including digestive organs, adipose tissues, and skeletal muscle.
- Conserved metabolic pathways: including appetite, hormonal regulation, and lipid storage.
- System for transporting lipids: including apolipoproteins, all main nuclear receptors, and enzymes involved in lipoprotein metabolism.
- Orthologues of human genes important for lipid metabolism with comparable expression patterns: including microsomal TG transfer protein (mttp), fatty acid transport protein (slc27a), and acyl-CoA synthetase (acsl) gene families, as well as the LDL receptor (ldlr) and the cholesteryl ester transfer protein (cetp).
The conservation of a critical human lipoprotein-modifying enzyme (CETP) makes zebrafish prone to dyslipidemia with short dietary interventions, unlike rodents, which are generally resistant to atherosclerosis.
HOW CAN WE HELP YOU?
Our preclinical metabolic research services are developed to help you addressing:
Disease modeling
Generation of custom genetic models of metabolic disorders.
Target validation
Use of genetic models to understand gene biological function in a given condition.
Compound screening
Application of zebrafish to efficacy evaluation in drug discovery.
Several studies demonstrated significant metabolic changes can be generated in zebrafish through relatively short dietary interventions. Similar to mammals, excessive nutrients in zebrafish cause increased plasma triglyceride levels and hepatic steatosis. Obese zebrafish also exhibit dysregulation of pathways that control lipid metabolism, including SREBF1, PPARs, NR1H3, and LEP.
ZeClinics' metabolic experts have developed in-house and gold standard nutritional models for metabolic conditions. Our diet-based adult, juvenile, and larval zebrafish models recapitulate the key aspects of metabolic diseases, and represent an efficient, cost-effective, and human-relevant option to study these conditions.
Obesity Model
For genetic functional studies of potential obesity-modulating genes.
NAFLD Model
For genetic functional studies of potential hepatic steatosis-modulating genes.
Atherosclerosis Model
For genetic functional studies of potential cholesterol-regulatory genes.
References
- Schlegel A, Gut P. Metabolic insights from zebrafish genetics, physiology, and chemical biology. Cell Mol Life Sci. 2015 Jun;72(12):2249-60.
- Faillaci F, Milosa F, Critelli RM, Turola E, Schepis F, Villa E. Obese zebrafish: A small fish for a major human health condition. Animal Model Exp Med. 2018 Nov 21;1(4):255-265.
Get the milestone data you need to make important decisions in the early stages of drug discovery. Contact us to learn more about ZeClinics’ preclinical metabolic research services and how we can help accelerate your R&D process.
View our Metabolic research services
ZeEfficacy
Non-Alcoholic Fatty Liver Disease (NAFLD) Model
ZeEfficacy
Metabolic Disorders and Obesity Model