The high failure rate of drug candidates due to endocrine toxicity is a major concern for the pharmaceutical industry and scientific researchers. By advanced 3D biological concepts, Creative Biolabs provides our clients with accurate assessments of substance toxicity levels, providing valuable insights for drug development and safety predictions.
Drug-induced endocrine disruption is one of the most common reasons for safety screening failures in this regard. Endocrine disruptors can interfere with the normal functioning of the endocrine system, leading to hormonal imbalances and adverse effects on various physiological processes.
Animal models, commonly used in pancreatic endocrine toxicity evaluation, exhibit differences in pancreatic physiology compared to humans, limiting the translatability of findings to clinical applications. Here, Creative Biolabs proudly provides 3D biology-based pancreatic endocrine toxicity evaluation service that overcomes limitations of traditional model.
Standout Qualities
By faithfully recapitulating the intricate interactions amongst pancreatic islet cells, hormones, and other components of the endocrine microenvironment, our model enables prolonged in vitro culturing to ascertain the effects of long-term drug exposure.
Typically, we consider both cell cytotoxicity and β-cell function as pivotal indicators of endocrine activity. Our endpoints for testing encompass:
Should you desire to incorporate additional endpoints as toxicity evaluation indicators, please do not hesitate to contact our team of experts to discuss your specific requirements.
At Creative Biolabs, we are committed to providing you with highly authentic 3D biology models and enhanced bio-toxicity prediction services of unparalleled fidelity, which represents a paradigm shift in addressing the constraints associated with traditional models. We deliver services of the highest caliber and accuracy. Ready to elevate your toxicity evaluation to new heights? Contact Creative Biolabs now and tap into the potential of our cutting-edge 3D biology-based approach.
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