Anonymous ID: 9ed6c6 May 13, 2021, 4:18 p.m. No.13654958   🗄️.is 🔗kun

>>13654916

Tried to stick a magnet to a coworker that got the jab last Saturday, wouldn’t stick, but she said I made her arm feel funny and weak for about 2 hours. KEK anon thinks it need to be right after injection.

This anon won’t take the jab!

Anonymous ID: 9ed6c6 May 13, 2021, 4:32 p.m. No.13655081   🗄️.is 🔗kun

>>13655027

Brown Chemists Create Cancer-Detecting Nanoparticles

PROVIDENCE, R.I. [Brown University] — Magnetic resonance imaging (MRI) can be a doctor's best friend for detecting a tumor in the body without resorting to surgery. MRI scans use pulses of magnetic waves and gauge the return signals to identify different types of tissue in the body, distinguishing bone from muscle, fluids from solids, and so on.

 

Scientists have found that magnetic nanoparticles can be especially helpful in locating cancerous cell clusters during MRI scans. Like teeny guide missiles, the nanoparticles seek out tumor cells and attach themselves to them. Once the nanoparticles bind themselves to these cancer cells, the particles operate like radio transmitters, greatly aiding the MRI's detection capability.

 

Now, Brown University chemist Shouheng Sun and a team of researchers have created the smallest magnetic nanoparticles to date that can be employed on such seek-and-find missions. With a thinner coating, the particles also emit a stronger signal for the MRI to detect.

 

The results have been published online this week in the Journal of the American Chemical Society. Brown graduates students Jin Xie, Chenjie Xu and Sheng Peng collaborated on the research, along with Professor Xiaoyuan Chen and his associates from Stanford University.

 

The team created peptide-coated iron oxide nanoparticles — particles billionths of a meter in size. The researchers injected the particles into mice and tested their ability to locate a brain tumor cell called U87MG. Sun and his collaborators concentrated specifically on the nanoparticle's size and the thickness of the peptide coating, which ensures the nanoparticle attaches to the tumor cell.

 

 

Size is important because the trick is to create a nanoparticle that is small enough to navigate through the bloodstream and reach the diseased area. Bigger particles tend to stack up, creating the circulatory system's version of a traffic jam. Sun's team developed a nanoparticle that is about 8.4 nanometers in overall diameter — some six times smaller than the size of particles currently used in medicine.

 

https://www.understandingnano.com/nanomedicine-nanoparticles-iron-oxide-mri.html

 

Used as an MRI contrast solution so conclusion is no