Multidisciplinary approaches in electronic nicotine delivery systems pulmonary toxicology: emergence of living and non-living bioinspired engineered systems

TL;DR

This paper reviews how new bioengineering tools like Organs-on-Chips can better assess the lung toxicity of e-cigarettes compared to traditional methods.

Contribution

The paper introduces multidisciplinary bioengineering approaches as a novel solution for more accurate ENDS pulmonary toxicity evaluation.

Findings

Current preclinical methods fail to capture 3D lung architecture and inhalation mechanics.

Emerging technologies like Organs-on-Chips and bioinspired robotics offer improved human-relevant data.

Multidisciplinary approaches can accelerate regulatory data generation for public health protection.

Abstract

Technology-based platforms offer crucial support for regulatory agencies in overseeing tobacco products to enhance public health protection. The use of electronic nicotine delivery systems (ENDS), such as electronic cigarettes, has surged exponentially over the past decade. However, the understanding of the impact of ENDS on lung health remains incomplete due to scarcity of physiologically relevant technologies for evaluating their toxicity. This review examines the societal and public health impacts of ENDS, prevalent preclinical approaches in pulmonary space, and the application of emerging Organ-on-Chip technologies and bioinspired robotics for assessing ENDS respiratory toxicity. It highlights challenges in ENDS inhalation toxicology and the value of multidisciplinary bioengineering approaches for generating reliable, human-relevant regulatory data at an accelerated pace.

Kambez Benam reviews preclinical approaches to assess lung health impacts of e-cigarettes, highlighting limitations of current strategies in capturing 3D lung architecture and inhalation mechanics. The review article emphasizes the promise of Organs-on-Chips and Bioinspired Robotics.

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