This collection of discussions demonstrates high curiosity and support for the research, with examples such as posts praising the visualization of internal structures and sharing videos and 3D printed models, which highlight both interest and perceived significance. The tone is enthusiastic and collaborative, emphasizing the innovative use of high-speed atomic force microscopy to better understand bacterial movements and internal machinery.
AgreementModerate agreement
Most discussions show enthusiasm and support for the significance of the findings, with phrases like 'innovative collaboration' and 'visualization of real-time movements' indicating agreement with the value of the research.
InterestHigh interest
The posts express high curiosity, especially with mentions of YouTube videos, visual demonstrations, and optical dolls, demonstrating strong interest in the visual and practical aspects of the study.
EngagementModerate engagement
The conversations include sharing multimedia content, primary methodology descriptions, and collaborative acknowledgments, reflecting a moderate level of deep engagement.
ImpactModerate impact
Users appear to recognize the importance of visualizing bacterial internal machinery, suggesting that the findings could influence future research and applications, though the impact remains somewhat preliminary.
Abstract in brief
The study used high-speed atomic force microscopy (HSAFM) to visualize and analyze the internal structures of Mycoplasma mobile cells, which are parasites that glide on surfaces using energy from ATP hydrolysis.
Researchers observed particles inside the cells that move in coordination with ATP hydrolysis, particularly slowing down when sodium azide (an ATP reaction inhibitor) was applied, indicating these movements are energy-dependent.
The findings provide real-time insights into the internal gliding machinery of Mycoplasma mobile, enhancing the understanding of how these bacteria move and interact with their environment.]
Mar 5, 2022 · 21 likes · 4 shares · 979 followersView post →
M宮
Makoto MIYATA(宮田真人)
@miyata_makoto · X
We released a video introducing this paper, with Japanese subtitle and LINE stamps.
https://t.co/dYfVdM3dov
Movements of Mycoplasma mobile Gliding Machinery Detected by High-Speed Atomic Force Microscopy | mBio https://t.co/9KV0z44Lio https://t.co/SEyxLh70DX
A new publication in @mBioJournal documents the visualization of real-time movements of the internal structures of the Mycoplasma mobile gilding machinery. https://t.co/Hj14VR02Ea https://t.co/MpkzBQMnUL
Jun 7, 2021 · 12 likes · 6 shares · 91,206 followersView post →
M宮
Makoto MIYATA(宮田真人)
@miyata_makoto · X
We made "dolls" of AFM-scanned 'Mycoplasma cells' by a 3D printer. https://t.co/FNBMtXKR30 https://t.co/7Vry7lHhFq
Jun 1, 2021 · 11 likes · 4 shares · 979 followersView post →
WN
WPI-NanoLSI
@nanolsi · X
Prof. Noriyuki Kodera, Prof. Toshio Ando of NanoLSI detect internal motor structure of Mycoplasma mobile using high-speed atomic force microscopy in collaboration with Prof. Makoto Miyata of Osaka City University. #AFM #mycoplasmamobile
@mbiojournal
https://t.co/ZRLI6dm9HA
Jun 16, 2021 · 10 likes · 2 shares · 572 followersView post →
This video discusses the force and stepwise movements of gliding motility in Mycoplasma pneumoniae, highlighting recent research that visualizes the internal structures and energy-dependent processes involved in…
This week, we explore critical insights on SARS-CoV-2 and microbiology. Emphasizing the importance of Open Science, the video highlights its role in ensuring transparency and reliability in research during the COVID-19…
We released a video introducing this paper, with Japanese subtitle and LINE stamps.
https://t.co/dYfVdM3dov
Movements of Mycoplasma mobile Gliding Machinery Detected by High-Speed Atomic Force Microscopy | mBio https://t.co/9KV0z44Lio https://t.co/SEyxLh70DX
https://t.co/5zb350LFXr
本日、先輩から細胞くんパーカーをいただきました。
めっちゃ嬉しいので先輩の論文を置いておきます。
めっちゃ可愛い細胞くんを見てあげてください。
Plz, watch so ADORABLE character of a cell from the upper URL !
RT @nanolsi: Prof. Noriyuki Kodera, Prof. Toshio Ando of NanoLSI detect internal motor structure of Mycoplasma mobile using high-speed atom…
Jun 16, 2021 · 2 shares · 387 followersView post →
金
金沢大学
@KanazawaUniv_O · X
RT @nanolsi: Prof. Noriyuki Kodera, Prof. Toshio Ando of NanoLSI detect internal motor structure of Mycoplasma mobile using high-speed atom…
Jun 16, 2021 · 2 shares · 5,036 followersView post →
WN
WPI-NanoLSI
@nanolsi · X
Prof. Noriyuki Kodera, Prof. Toshio Ando of NanoLSI detect internal motor structure of Mycoplasma mobile using high-speed atomic force microscopy in collaboration with Prof. Makoto Miyata of Osaka City University. #AFM #mycoplasmamobile
@mbiojournal
https://t.co/ZRLI6dm9HA
Jun 16, 2021 · 10 likes · 2 shares · 572 followersView post →
EV
Eduardo Villalobo
@ptu_us_es · X
RT @mbiojournal: Movements of Mycoplasma mobile Gliding Machinery Detected by High-Speed Atomic Force Microscopy https://t.co/a1C0BcHFNj ht…
Jun 8, 2021 · 4 shares · 1,117 followersView post →
MH
Miryam Andrea Hortua
@mahortua · X
RT @mbiojournal: Movements of Mycoplasma mobile Gliding Machinery Detected by High-Speed Atomic Force Microscopy https://t.co/a1C0BcHFNj ht…
A new publication in @mBioJournal documents the visualization of real-time movements of the internal structures of the Mycoplasma mobile gilding machinery. https://t.co/Hj14VR02Ea https://t.co/MpkzBQMnUL
Jun 7, 2021 · 12 likes · 6 shares · 91,206 followersView post →
Iト
Işıl Tulum (イシル トゥルム)
@iciltlm · X
RT @miyata_makoto: Movements of Mycoplasma mobile gliding machinery detected by high-speed atomic force microscopy https://t.co/Q9H0RVShSS…
RT @miyata_makoto: Movements of Mycoplasma mobile gliding machinery detected by high-speed atomic force microscopy https://t.co/Q9H0RVShSS…
Jun 3, 2021 · 2 shares · 1,427 followersView post →
M宮
Makoto MIYATA(宮田真人)
@miyata_makoto · X
Movements of Mycoplasma mobile gliding machinery detected by high-speed atomic force microscopy https://t.co/Q9H0RVShSS Our innovative collaboration has been published in mBio. https://t.co/owiB3BDfw1
Jun 3, 2021 · 4 likes · 2 shares · 979 followersView post →