The use of human tissue in safety assessment

Biosafety and biobanking: Current understanding and knowledge gaps

Infectious disease outbreaks, such as 'Coronavirus disease 2019' (COVID-19), can constitute major global health threats with far-reaching consequences. As outbreaks develop, the international scientific community must provide high-quality scientific research-ready biological samples to solve the existing clinical and epidemiological questions to better combat the pandemic. Such examples are provided by dedicated biobank facilities, the latter collecting increasingly high volumes of biological samples. However, the more significant concentrations of infectious or potentially infectious biological materials can create a safety risk. The current short report describes the first attempt to identify the published scientific works on biobanking and safety. Three broad thematic areas have been identified: the physical security relevant to staff and sample integrity, the data safety aspects, and the governance parameters relating to the previous two. While the current publications reflect a broad alignment with existing standards and best practices in the biobanking field, they also demonstrate an opportunity for further in-depth work on this field in the post-COVID-19 era.

Human Heart Cardiomyocytes in Drug Discovery and Research: New Opportunities in Translational Sciences

In preclinical drug development, accurate prediction of drug effects on the human heart is critically important, whether in the context of cardiovascular safety or for the purpose of modulating cardiac function to treat heart disease. Current strategies have significant limitations, whereby, cardiotoxic drugs can escape detection or potential life-saving therapies are abandoned due to false positive toxicity signals. Thus, new and more reliable translational approaches are urgently needed to help accelerate the rate of new therapy development. Renewed efforts in the recovery of human donor hearts for research and in cardiomyocyte isolation methods, are providing new opportunities for preclinical studies in adult primary cardiomyocytes. These cells exhibit the native physiological and pharmacological properties, overcoming the limitations presented by artificial cellular models, animal models and have great potential for providing an excellent tool for preclinical drug testing. Adult human primary cardiomyocytes have already shown utility in assessing drug-induced cardiotoxicity risk and helping in the identification of new treatments for cardiac diseases, such as heart failure and atrial fibrillation. Finally, strategies with actionable decision-making trees that rely on data derived from adult human primary cardiomyocytes will provide the holistic insights necessary to accurately predict human heart effects of drugs.