Nalazite se na CroRIS probnoj okolini. Ovdje evidentirani podaci neće biti pohranjeni u Informacijskom sustavu znanosti RH. Ako je ovo greška, CroRIS produkcijskoj okolini moguće je pristupi putem poveznice www.croris.hr
izvor podataka: crosbi

A novel time-lapse imaging method for studying developing bacterial biofilms (CROSBI ID 319548)

Prilog u časopisu | izvorni znanstveni rad | međunarodna recenzija

Futo, Momir ; Široki, Tin ; Koska, Sara ; Čorak, Nina ; Tušar, Anja ; Domazet-Lošo, Mirjana ; Tomislav Domazet-Lošo A novel time-lapse imaging method for studying developing bacterial biofilms // Scientific reports, 12 (2022), 21120, 13. doi: 10.1038/s41598-022-24431-y

Podaci o odgovornosti

Futo, Momir ; Široki, Tin ; Koska, Sara ; Čorak, Nina ; Tušar, Anja ; Domazet-Lošo, Mirjana ; Tomislav Domazet-Lošo

engleski

A novel time-lapse imaging method for studying developing bacterial biofilms

In nature, bacteria prevailingly reside in the form of biofilms. These elaborately organized surface‑bound assemblages of bacterial cells show numerous features of multicellular organization. We recently showed that biofilm growth is a true developmental process, which resembles developmental processes in multicellular eukaryotes. To study the biofilm growth in a fashion of eukaryotic ontogeny, it is essential to define dynamics and critical transitional phases of this process. The first step in this endeavor is to record the gross morphological changes of biofilm ontogeny under standardized conditions. This visual information is instrumental in guiding the sampling strategy for the later omics analyses of biofilm ontogeny. However, none of the currently available visualizations methods is specifically tailored for recording gross morphology across the whole biofilm development. To address this void, here we present an affordable Arduino‑based approach for time‑lapse visualization of complete biofilm ontogeny using bright field stereomicroscopy with episcopic illumination. The major challenge in recording biofilm development on the air–solid interphase is water condensation, which compromises filming directly through the lid of a Petri dish. To overcome these trade‑offs, we developed an Arduino microcontroller setup which synchronizes a robotic arm, responsible for opening and closing the Petri dish lid, with the activity of a stereomicroscope‑mounted camera and lighting conditions. We placed this setup into a microbiological incubator that maintains temperature and humidity during the biofilm growth. As a proof‑of‑principle, we recorded biofilm development of five Bacillus subtilis strains that show different morphological and developmental dynamics.

bacterail biofilms ; time‑lapse visualization ; Arduino ; stereomicroscopy

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

Podaci o izdanju

12

2022.

21120

13

objavljeno

2045-2322

10.1038/s41598-022-24431-y

Povezanost rada

Biologija, Biotehnologija u biomedicini (prirodno područje, biomedicina i zdravstvo, biotehničko područje), Računarstvo

Poveznice
Indeksiranost