Science Is Her True Love

I have loved science since I was a child watching the Magic School Bus and Bill Nye The Science Guy. As I grew and started learning more complex sciences I found that Biology and Chemistry were among the most fascinating things I had ever encountered. I decided when I was about 13 that I wanted to be a scientist. I wanted to work with some of the best scientists in the world. I wanted to accomplish something great. I am now working on my associate's degree in Biotechnology at Athens Technical College, in Athens, Georgia. As soon as I finish that I plan on transferring to the University of Georgia (also here in Athens, Georgia) to eventually obtain my doctorate in Biotechnology. I started this blog not only because I love science and everything about it, but because I wanted to chronicle my path to my dream. Starting with my most basic learnings (like my Biology 1111 and BTEC 2000 classes that I am taking right now) to the day I obtain my doctorate, you guys will be following me. Please, tell your friends to follow. After all, it is not an easy task I am setting out on and could use the support! I hope you enjoy this blog as much as I am going to enjoy writing it.
A Note To My Followers

world-shaker:

*GASP*

OMG!!! How did… I not… see this!!!!

(via fabulousfictionista)

laboratoryequipment:

Artificial Uterus Sheds Light on EmbryosPioneering work by a leading Univ. of Nottingham scientist has helped reveal for the first time a vital process in the development of the early mammalian embryo. A team led by professor of tissue engineering, Kevin Shakesheff, has created a new device in the form of a soft polymer bowl which mimics the soft tissue of the mammalian uterus in which the embryo implants. The research has been published in the journal Nature Communications.Read more: http://www.laboratoryequipment.com/news-Artificial-Uterus-Sheds-Light-on-Embryos-030512.aspx

laboratoryequipment:

Artificial Uterus Sheds Light on Embryos

Pioneering work by a leading Univ. of Nottingham scientist has helped reveal for the first time a vital process in the development of the early mammalian embryo. A team led by professor of tissue engineering, Kevin Shakesheff, has created a new device in the form of a soft polymer bowl which mimics the soft tissue of the mammalian uterus in which the embryo implants. The research has been published in the journal Nature Communications.

Read more: http://www.laboratoryequipment.com/news-Artificial-Uterus-Sheds-Light-on-Embryos-030512.aspx

logicianmagician:

Prosthetic Breakthrough Might Fuse Nerves With Prosthetic Limbs

A replacement limb that moves, feels and responds just like flesh and blood. It’s the holy grail of prosthetics research. The Pentagon’s invested millions to make it happen. But it’s been elusive — until, quite possibly, now. The body’s own nerves are arguably the biggest barrier towards turning the dream of lifelike replacements into a reality. Peripheral nerves, severed by amputation, can no longer transmit or receive any of the myriad sensory signals we rely on every day. Trying to fuse them with robot limbs, to create a direct neural-prosthetic interface, is no easy task.

psydoctor8:

I believe connectomes are the meeting ground for nature and nurture. The gene controls how the brain wires up, but experiences also modify the connections of the brain.”- MIT Neuroscientist, Sabastian Seung [via]

Most of you have heard of the Human Connectome Project. If not, have a look.

Using “state-of-the-art diffusion-imaging scanner” images of neural pathways are collected via a MRI looking machine, which allows scienctists to view connections of the brain “by tracking the passage of water molecules through nerve fibers, giving a more accurate picture of the brain’s structure and its neuronal pathways”. [via] Eventually, the idea is to identify connectopathies (abnormal circuits) then treat with appropriate pharmacology targeted for that area.

Above: [via] “White matter fiber architecture of the brain. Measured from diffusion spectral imaging (DSI). The fibers are color-coded by direction: red = left-right, green = anterior-posterior, blue = through brain stem. Martinos Center for Biomedical Imaging, Randy Buckner, PhD and the Laboratory of Neuro Imaging.”

thecabinetofawesome:

I really, really do :)

thecabinetofawesome:

I really, really do :)

(via earthandscience)