Accelerate to discover
Related topics
Cesium-137 versus X-ray irradiation preconditioning in immunodeficient NOG mice
Dec 28, 2020
Radio-active sources have been used routinely for the preconditioning in humanized mouse models, but safety issues have...
EV imaging series: Using ONI super-resolution to characterize single-EVs
Dec 23, 2020
To date, researchers commonly use flow-based characterization methods, fluorescence imaging techniques and electron...
Don’t Let Waste Anesthetic Gases Harm You!
Dec 21, 2020
Many projects have been devoted to the study of the correlation between anesthetics and Alzheimer’s disease....
Coming in spring 2021, meet the Cytek Aurora CS
Dec 16, 2020
Ever wanted to take your full spectrum panel from your Cytek Aurora or Northern Lights cytometer and sort? Soon, you...
Advances in Leukemia research using shear flow and Bioflux system
Dec 10, 2020
Leukemia is a rare cancer with many subtypes. The production of abnormal leukocytes create disruptions in the immune...
Do you have our CellRad benchtop irradiator? It’s the only one on the market!
Dec 8, 2020
The CellRad is a smaller, simpler, safer, and more cost effective alternative to radioisotope or high-powered X-ray...
Dosimetric characterization of an X-ray irradiator for use with cells
Dec 4, 2020
This study aims to characterize an X-ray irradiator for use with cells using its internal parallel-plate ionization...
Modeling multiple myeloma-Bone Marrow interactions using Synthecon rotating-wall vessels
Dec 2, 2020
Multiple myeloma develops primarily inside the bone marrow microenvironment, that confers pro-survival signals and drug...
Jan 26, 2018
Life only exists because of the ability of cells to replicate, and death can come early when a cell’s replication spins out of control. Yet exactly where eukaryotic cells start when their large genomes need to be copied is still somewhat of a mystery. Studies looking into replication origins have largely focused on simple organisms with smaller genomes. Observing this process in large genomes like ours is difficult because eukaryotic cells have up to 50,000 replication start points per cell per cycle, and even the most commonly observed replication origin in the genome functions as such in just 10 percent of cells. To find answers to the question of where and when replication starts in individual cells, one needs a technology that can image and identify large single DNA molecules that are fluorescently labeled at high resolution and throughput… and of course we knew just what technology that could be!
Related technologies: Genome mapping
Get more info
Brand profile
A revolutionary NanoChannel technology for Genome mapping of extremely long DNA without amplification, providing long-range contiguity and eliminating PCR bias.
More info at:
www.bionanogenomics.com
BioFocus newsletter
Register to receive Brand new technology development, Important product updates, Interesting scientific events and more!
BioTech a.s. © 2014
Designed & developed by imagineit
Technologies
