Cells Now Emit Light: Tiny Lasers Developed for Inside Biological Functions

Tiny new lasers can now fit inside living cells to measure forces up to 50 nanonewtons. This helps scientists understand cell functions better.

#MicroLasers, #CellBiology, #ScientificResearch, #MedicalInnovation, #ForceMeasurement

https://newsletter.tf/micro-lasers-measure-force-inside-cells/

Scientists have created tiny lasers that can go inside cells. These lasers can measure forces, which is a new way to study how cells work.

#MicroLasers, #CellBiology, #ScientificResearch, #MedicalInnovation, #ForceMeasurement
https://newsletter.tf/micro-lasers-measure-force-inside-cells/

New Micro-Lasers Measure Force Inside Cells

Tiny new lasers can now fit inside living cells to measure forces up to 50 nanonewtons. This helps scientists understand cell functions better.

NewsletterTF
Deadline is this Friday 1 May to submit your research to the JCS special issue: Imaging Cell Architecture and Dynamics
#imaging #cellbiology #bioimaging https://journals.biologists.com/jcs/pages/imaging
Cytotoxic T lymphocytes are specialized immune cells that eliminate infected or cancerous cells by establishing an "immune synapse" to release toxic molecules without damaging adjacent healthy tissue.
#Immunology #CellBiology #Oncology #sflorg
https://www.sflorg.com/2026/04/imgy04292601.html
An unprecedented view of the immune system’s killer cells

A collaboration between UNIGE and CHUV-UNIL reveals in 3D how T lymphocytes destroy cancer cells.

Real-time high-resolution imaging of live cells enabled by AI-enhanced microscopy

📰 Original title: AI-enhanced microscopy produces crisp, real-time video inside live cells

🤖 IA: It's not clickbait ✅
👥 Usuarios: It's not clickbait ✅

View full AI summary: https://killbait.com/en/real-time-high-resolution-imaging-of-live-cells-enabled-by-ai-enhanced-microscopy/?redirpost=db3239c9-33ca-45ea-9e68-58da9e39043b

#science #microscopy #ai #cellbiology

Real-time high-resolution imaging of live cells enabled by AI-enhanced microscopy

Researchers at the University of California San Diego have developed a new AI-driven microscopy technique called unrolled blind-SIM (UBSIM) that allows scientists to observe live cells in real time…

KillBait Archive

Real-time high-resolution imaging of live cells enabled by AI-enhanced microscopy

📰 Original title: AI-enhanced microscopy produces crisp, real-time video inside live cells

🤖 IA: It's not clickbait ✅
👥 Usuarios: It's not clickbait ✅

View full AI summary: https://killbait.com/en/real-time-high-resolution-imaging-of-live-cells-enabled-by-ai-enhanced-microscopy/?redirpost=db3239c9-33ca-45ea-9e68-58da9e39043b

#science #microscopy #ai #cellbiology

Real-time high-resolution imaging of live cells enabled by AI-enhanced microscopy

Researchers at the University of California San Diego have developed a new AI-driven microscopy technique called unrolled blind-SIM (UBSIM) that allows scientists to observe live cells in real time…

KillBait Archive
U01.17.064 Replicative Potential of Cancer Cells: Telomerase and Immortality

Master the hallmarks of cancer (U01.17.064) for USMLE Step 1. Learn how cancer cells achieve replicative immortality through telomerase activation and the evasion of senescence. High-yield guide on mymedschool.org.

mymedschool.org
The aggressiveness of squamous cell carcinomas (SCC), a common type of epithelial cancer, is determined not solely by the cancer cells themselves, but by the lipid metabolism of fibroblasts within the surrounding tumor microenvironment.
#Oncology #CellBiology #Biochemistry #MolecularBiology #Cancer #sflorg
https://www.sflorg.com/2026/04/ongy04272601.html
Study reveals why epithelial cancer is more aggressive in some tissues

Cancers common in older adults exposed to environmental damage behaves so differently depending on where they develop in the body.

NEW PAPER!

Vanda Gunning and co. show how to target the TACC3-clathrin interaction using stapled peptides. The design was guided by structural studies. The inhibitors are cell permeable and inhibit mitosis, so have the potential for cancer therapy.
Collaboration between Bayliss, Kennedy and Royle labs.

"Mechanistic design of cell-penetrating disruptors for phospho-dependent TACC3-CHC interaction”

https://authors.elsevier.com/sd/article/S0969-2126(26)00107-3

#biochemistry #structuralbiology #CellBiology