brassmama:

Some people have these like fandom specific blogs and then there’s me:

image





amy-rory-melody:

gytrash:

The Glorious Ponds

MY URL. out of order but still. oh god I miss them.


thatsparrow:

“Exterminate, Regenerate,
I thought you always knew our fate
To just keep fighting on and on
While time keeps turning
Regenerate, Exterminate
And even though we are the same
Why don’t you hop into your ship
And leave me burning”

Exterminate, Regenerate - Chameleon Circuit


niftyncrafty: 25 Free Colourful Fonts! 1. Parish, by George Williams | 2. Intro, by FontFabric | 3. Always in My Heart, by ByTheButterfly | 4. Silverfake, by Alexey Frolov | 5. Archivo Narrow, by Omnibus Type | 6. Arsenale White, by zetafonts | 7. Trocchi, by New Typography | 8. DK Kusukusu, by David Kerkhoff | 9. Courier New, by Adrian Frutiger | 10. Fradley, by Roger White  | 11. Impact | 12. Freebooter Script, by Apostrophic Labs | 13. Grand Hotel, by Astigmatic | 14. Arvil, by Ben Dalrymple | 15. Desyrel, by Apostrophic Labs | 16. Cac Champagne, by American Greetings | 17. Marmellata, by Fonts Cafe | 18. Myriad Pro, by Robert Slimbach | 19. Blanch, by Atipus | 20. Gabriela, by Eduardo Tunni  | 21. Dubiel, by David Rakowski | 22. Weston, by ZKA | 23. English Essay, by Brittney Murphy | 24. Amatic, by Vernon Adams | 25. Freestyle Script, by Martin Wait 

niftyncrafty:

25 Free Colourful Fonts!

1. Parish, by George Williams | 2. Intro, by FontFabric | 3. Always in My Heart, by ByTheButterfly | 4. Silverfake, by Alexey Frolov | 5. Archivo Narrow, by Omnibus Type | 6. Arsenale White, by zetafonts | 7. Trocchi, by New Typography | 8. DK Kusukusu, by David Kerkhoff | 9. Courier New, by Adrian Frutiger | 10. Fradley, by Roger White  | 11. Impact | 12. Freebooter Script, by Apostrophic Labs | 13. Grand Hotel, by Astigmatic | 14. Arvil, by Ben Dalrymple | 15. Desyrel, by Apostrophic Labs | 16. Cac Champagne, by American Greetings | 17. Marmellata, by Fonts Cafe | 18. Myriad Pro, by Robert Slimbach | 19. Blanch, by Atipus | 20. Gabriela, by Eduardo Tunni  | 21. Dubiel, by David Rakowski | 22. Weston, by ZKA | 23. English Essay, by Brittney Murphy | 24. Amatic, by Vernon Adams | 25. Freestyle Script, by Martin Wait 


the-absolute-best-posts: geekrest: All it needed was a little groovy love.

the-absolute-best-posts:

geekrest:

All it needed was a little groovy love.


complexdomo: There’s Hell Above me.

complexdomo:

There’s Hell Above me.



did-you-kno: Source

did-you-kno:

Source



neurosciencestuff: Pay attention: How we focus and concentrate Scientists at Newcastle University have shed new light on how the brain tunes in to relevant information. Publishing in Neuron, the team reveal the interplay of brain chemicals which help us pay attention in work funded by the Wellcome Trust and BBSRC. By changing the way neurons respond to external stimuli we improve our perceptual abilities. While these changes can affect the strength of a neuronal response, they can also affect the fidelity of that response. Lead author Alex Thiele, Professor of Visual Neuroscience explains: “When you communicate with others, you can make yourself better heard by speaking louder or by speaking more clearly. Neurons appear to do similar things when we’re paying attention. They send their message more intensely to their partners, which compares to speaking louder. But more importantly, they also increase the fidelity of their message, which compares to speaking more clearly. “Our earlier work has shown that attention is able to affect the intensity of responses – in effect the loudness - by means of the brain chemical acetylcholine. Now we have shown that the fidelity of the response is altered by a different brain chemical system.” In the paper, the team reveal that the quality of the response is altered by means of glutamate coupling to NMDA receptors (a molecular device that mediates communication between neurons). Carried out in a primate model, these studies for the first time isolate different attention mechanisms at the receptor level. The research builds on the team’s previous studies and has potentially significant implications not only for our understanding of how our brains work but also give an insight into conditions such as schizophrenia, Alzheimer’s disease and attention deficit disorder, and may aid in the development of treatments for them.

neurosciencestuff:

Pay attention: How we focus and concentrate

Scientists at Newcastle University have shed new light on how the brain tunes in to relevant information.

Publishing in Neuron, the team reveal the interplay of brain chemicals which help us pay attention in work funded by the Wellcome Trust and BBSRC.

By changing the way neurons respond to external stimuli we improve our perceptual abilities. While these changes can affect the strength of a neuronal response, they can also affect the fidelity of that response.

Lead author Alex Thiele, Professor of Visual Neuroscience explains: “When you communicate with others, you can make yourself better heard by speaking louder or by speaking more clearly. Neurons appear to do similar things when we’re paying attention. They send their message more intensely to their partners, which compares to speaking louder. But more importantly, they also increase the fidelity of their message, which compares to speaking more clearly.

“Our earlier work has shown that attention is able to affect the intensity of responses – in effect the loudness - by means of the brain chemical acetylcholine. Now we have shown that the fidelity of the response is altered by a different brain chemical system.”

In the paper, the team reveal that the quality of the response is altered by means of glutamate coupling to NMDA receptors (a molecular device that mediates communication between neurons). Carried out in a primate model, these studies for the first time isolate different attention mechanisms at the receptor level.

The research builds on the team’s previous studies and has potentially significant implications not only for our understanding of how our brains work but also give an insight into conditions such as schizophrenia, Alzheimer’s disease and attention deficit disorder, and may aid in the development of treatments for them.