E-cigarette aerosol exposure of pulmonary surfactant impairs its surface tension reducing function

E-cigarette (EC) and vaping use continue to remain popular amongst teenage and young adult populations, despite several reports of vaping associated lung injury. One of the first compounds that EC aerosols comes into contact within the lungs during a deep inhalation is pulmonary surfactant. Impairme...

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Veröffentlicht in:PloS one 2022-11, Vol.17 (11), p.e0272475-e0272475
Hauptverfasser: Graham, Emma, McCaig, Lynda, Shui-Kei Lau, Gloria, Tejura, Akash, Cao, Anne, Zuo, Yi Y, Veldhuizen, Ruud
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container_issue 11
container_start_page e0272475
container_title PloS one
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creator Graham, Emma
McCaig, Lynda
Shui-Kei Lau, Gloria
Tejura, Akash
Cao, Anne
Zuo, Yi Y
Veldhuizen, Ruud
description E-cigarette (EC) and vaping use continue to remain popular amongst teenage and young adult populations, despite several reports of vaping associated lung injury. One of the first compounds that EC aerosols comes into contact within the lungs during a deep inhalation is pulmonary surfactant. Impairment of surfactant's critical surface tension reducing activity can contribute to lung dysfunction. Currently, information on how EC aerosols impacts pulmonary surfactant remains limited. We hypothesized that exposure to EC aerosol impairs the surface tension reducing ability of surfactant. Bovine Lipid Extract Surfactant (BLES) was used as a model surfactant in a direct exposure syringe system. BLES (2ml) was placed in a syringe (30ml) attached to an EC. The generated aerosol was drawn into the syringe and then expelled, repeated 30 times. Biophysical analysis after exposure was completed using a constrained drop surfactometer (CDS). Minimum surface tensions increased significantly after exposure to the EC aerosol across 20 compression/expansion cycles. Mixing of non-aerosolized e-liquid did not result in significant changes. Variation in device used, addition of nicotine, or temperature of the aerosol had no additional effect. Two e-liquid flavours, menthol and red wedding, had further detrimental effects, resulting in significantly higher surface tension than the vehicle exposed BLES. Menthol exposed BLES has the highest minimum surface tensions across all 20 compression/expansion cycles. Alteration of surfactant properties through interaction with the produced aerosol was observed with a basic e-liquid vehicle, however additional compounds produced by added flavourings appeared to be able to increase inhibition. EC aerosols alter surfactant function through increases in minimum surface tension. This impairment may contribute to lung dysfunction and susceptibility to further injury.
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One of the first compounds that EC aerosols comes into contact within the lungs during a deep inhalation is pulmonary surfactant. Impairment of surfactant's critical surface tension reducing activity can contribute to lung dysfunction. Currently, information on how EC aerosols impacts pulmonary surfactant remains limited. We hypothesized that exposure to EC aerosol impairs the surface tension reducing ability of surfactant. Bovine Lipid Extract Surfactant (BLES) was used as a model surfactant in a direct exposure syringe system. BLES (2ml) was placed in a syringe (30ml) attached to an EC. The generated aerosol was drawn into the syringe and then expelled, repeated 30 times. Biophysical analysis after exposure was completed using a constrained drop surfactometer (CDS). Minimum surface tensions increased significantly after exposure to the EC aerosol across 20 compression/expansion cycles. Mixing of non-aerosolized e-liquid did not result in significant changes. 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subjects Aerosols
Biology and Life Sciences
Cigarettes
Compression
Earth Sciences
Electronic cigarettes
Exposure
Flavorings
Flavors
Health aspects
Impairment
Inhalation
Lipids
Lungs
Medicine and Health Sciences
Menthol
Nicotine
Physical Sciences
Properties
Respiration
Smoking
Social Sciences
Surface active agents
Surface tension
Surfactants
Syringes
Vaping
Variance analysis
Weddings
Young adults
title E-cigarette aerosol exposure of pulmonary surfactant impairs its surface tension reducing function
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