Nature is Metal
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So you’re saying you wouldn’t want to personally step in to break up the grizzly fight I posted above?
wrote on 21 Jul 2020, 18:09 last edited by Aqua Letifer@jon-nyc said in Nature is Metal:
So you’re saying you wouldn’t want to personally step in to break up the grizzly fight I posted above?
I'd pull out my phone and do exactly what the person recording it did. Except I might have to edit the audio afterward to mute out my pants-shitting, depending on how close I was.
I've been up close to black bears a couple times. They're freaky enough.
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wrote on 22 Jul 2020, 01:29 last edited by
I think I mentioned this in another thread on bears
(BTW, we have more than one??? 5555)
If it is black, fight back
if it is brown, lay down
if it is white, good night! -
wrote on 22 Jul 2020, 01:43 last edited by
Think about how many hominids had to die to pass that heuristic down to us.
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wrote on 22 Jul 2020, 02:02 last edited by
@jon-nyc said in Nature is Metal:
Think about how many hominids had to die to pass that heuristic down to us.
Stories do preserve the collected wisdom of a culture.
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wrote on 25 Jul 2020, 11:38 last edited by
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wrote on 25 Jul 2020, 11:42 last edited by
"Stay the FUCK away from my babies!"
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wrote on 25 Jul 2020, 22:47 last edited by
"Yes, that's our chicken. How did you know we named her Karen?"
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wrote on 26 Jul 2020, 17:18 last edited by
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wrote on 27 Jul 2020, 00:35 last edited by
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wrote on 28 Jul 2020, 03:15 last edited by
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wrote on 28 Jul 2020, 04:00 last edited by
I really didn't need to see or know that.
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wrote on 28 Jul 2020, 11:47 last edited by
https://en.wikipedia.org/wiki/Sodium_channel
In excitable cells such as neurons, myocytes, and certain types of glia, sodium channels are responsible for the rising phase of action potentials. These channels go through three different states called resting, active and inactive states.
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Voltage-gated sodium channels play an important role in action potentials. If enough channels open when there is a change in the cell's membrane potential, a small but significant number of Na+ ions will move into the cell down their electrochemical gradient, further depolarizing the cell. Thus, the more Na+ channels localized in a region of a cell's membrane the faster the action potential will propagate and the more excitable that area of the cell will be. This is an example of a positive feedback loop. The ability of these channels to assume a closed-inactivated state causes the refractory period and is critical for the propagation of action potentials down an axon.Na+ channels both open and close more quickly than K+ channels, producing an influx of positive charge (Na+) toward the beginning of the action potential and an efflux (K+) toward the end.
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wrote on 28 Jul 2020, 13:39 last edited by
Love this thread.
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wrote on 29 Jul 2020, 16:17 last edited by
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wrote on 29 Jul 2020, 16:24 last edited by
I wondered if the turtle was hurt.
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wrote on 29 Jul 2020, 16:34 last edited by
lazy ass gator.
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wrote on 30 Jul 2020, 19:03 last edited by
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wrote on 30 Jul 2020, 19:09 last edited by
Brutal
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wrote on 5 Aug 2020, 16:48 last edited by
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wrote on 5 Aug 2020, 18:56 last edited by
Looks like it's rotating from the cameraman's vantage.