Toggle light / dark theme

A parasite takes advantage of a nice person they have no respect for the person this happens a lot especially with people from other countries who call themselves your friends.


There was only one rule. Work hard and be nice, and everything would go just fine. That should be the rule for life, too… But, of course, that wasn’t how […] More.

The consistency and vulnerability of the brain is demonstrated along with the clear and glistening pia and arachnoid and the tough dura. The cushioning function of the CSF is stressed and the features are pointed out on the ventral surface. The uncus and temporal lobes are normal with arteries free of atherosclerosis.

This is 2 of a series of 26 videos to be viewed in the suggested order or intermixed with other curricular materials. The entire series can be accessed here:
https://neurologicexam.med.utah.edu/adult/html/brain-dissections.html.

The videos may be downloaded in various formats by going here:
https://neurologicexam.med.utah.edu/adult/html/download_instructions.html.

Password Request form for downloadable Neuroanatomy Brain Dissection videos here: https://library.med.utah.edu/neuro-exam/

Read the story: https://aperture.gg/blogs/the-universe/should-we-seek-immortality.
Merch: https://aperture.gg/merch.

Although we’ve been socialized to accept death as an inevitability, and live our lives knowing that its looming shadow will one day catch up with us, many of us might never really come to terms with it. Throughout our evolution, we’ve come up with ideas, beliefs and theories that attempt to shine a light deep into the cold, dark abyss of death to give ourselves a hope of continued living and everlasting existence. Could we really stop our cells from aging? If you could, would you want to be immortal?

Stay connected with Aperture:
Website: https://aperture.gg/
Instagram: https://www.instagram.com/theapertureyt/
Twitter: https://twitter.com/TheApertureYT

Check out our other channels:

The motor cortex controls the voluntary movement of muscles. It remains largely unclear why its electrical or magnetic stimulation can alleviate therapy-resistant chronic pain—albeit unreliably. An interdisciplinary research group at the Medical Faculty of Heidelberg (MFHD) has now tracked down the underlying mechanisms and nerve pathways in mice.

The scientists showed that certain nerve pathways of the motor cerebral cortex are indirectly connected to the emotion centers in the brain, process both -related information and emotions by direct activation, and thus reduce the sensation of pain. Consequently, the team not only defines a new brain circuit for neurostimulation in pain therapy, but also brings the brain’s own reward system into focus as a starting point for future treatments. The results are now published in the journal Science.

The research was conducted within the framework of CRC1158 “From Nociception to Chronic Pain,” whose spokesperson is Professor Dr. Rohini Kuner, Director of the Institute of Pharmacology at the MFHD.