Antimicrobial 405 nm violet-blue light treatment of ex vivo human platelets leads to mitochondrial metabolic reprogramming and potential alteration of phospho-proteome
Jana, Sirsendu and Heaven, Michael R. and Dahiya, Neetu and Stewart, Caitlin Fiona and Anderson, John and MacGregor, Scott and Maclean, Michelle and Alayash, Abdu I. and Atreya, Chintamani D (2023) Antimicrobial 405 nm violet-blue light treatment of ex vivo human platelets leads to mitochondrial metabolic reprogramming and potential alteration of phospho-proteome. Journal of Photochemistry and Photobiology B: Biology, 241. 112672. ISSN 1011-1344 (https://doi.org/10.1016/j.jphotobiol.2023.112672)
Preview |
Text.
Filename: VoR-Antimicrobial-405-nm-violet-blue-light-treatment-of-ex-vivo-human-platelets-leads-to-mitochondrial-metabolic-reprogramming.pdf
Final Published Version License: Download (4MB)| Preview |
Preview |
Text.
Filename: Jana_etal_JPPBB_2023_Antimicrobial_405_nm_violet_blue_light_treatment_of_ex_vivo_human_platelets_leads_to_mitochondrial_metabolic_reprogramming.pdf
Accepted Author Manuscript License: Download (1MB)| Preview |
Abstract
Continued efforts to reduce the risk of transfusion-transmitted infections (TTIs) through blood and blood components led to the development of ultraviolet (UV) light irradiation technologies known as pathogen reduction technologies (PRT) to enhance blood safety. While these PRTs demonstrate germicidal efficiency, it is generally accepted that these photoinactivation techniques have limitations as they employ treatment conditions shown to compromise the quality of the blood components. During ex vivo storage, platelets having mitochondria for energy production suffer most from the consequences of UV irradiation. Recently, application of visible violet-blue light in the 400–470 nm wavelength range has been identified as a relatively more compatible alternative to UV light. Hence, in this report, we evaluated 405 nm light-treated platelets to assess alterations in energy utilization by measuring different mitochondrial bioenergetic parameters, glycolytic flux, and reactive oxygen species (ROS). Furthermore, we employed untargeted data-independent acquisition mass spectrometry to characterize platelet proteomic differences in protein regulation after the light treatment. Overall, our analyses demonstrate that ex vivo treatment of human platelets with antimicrobial 405 nm violet-blue light leads to mitochondrial metabolic reprogramming to survive the treatment, and alters a fraction of platelet proteome.
ORCID iDs
Jana, Sirsendu, Heaven, Michael R., Dahiya, Neetu, Stewart, Caitlin Fiona, Anderson, John ORCID: https://orcid.org/0000-0003-4151-1619, MacGregor, Scott ORCID: https://orcid.org/0000-0002-0808-585X, Maclean, Michelle ORCID: https://orcid.org/0000-0001-5750-0397, Alayash, Abdu I. and Atreya, Chintamani D;-
-
Item type: Article ID code: 89662 Dates: DateEventApril 2023Published21 February 2023Published Online18 February 2023AcceptedSubjects: Medicine
Science > Physics > Optics. Light
Medicine > Biomedical engineering. Electronics. InstrumentationDepartment: Faculty of Engineering > Electronic and Electrical Engineering Depositing user: Pure Administrator Date deposited: 19 Jun 2024 10:24 Last modified: 11 Nov 2024 13:49 URI: https://strathprints.strath.ac.uk/id/eprint/89662