Check out https://avaloniaui.net as well. It's basically a cross-platform reimplementation of WPF. It's not quite as simple as C#+WinForms or Lazarus+LCL because you don't get drag-and-drop UI designer, and you need to write markup by hand (albeit with live preview). But unlike HTML, it's actually designed for desktop UI apps from the get go, so it's much easier to write for anything non-trivial. And you can still write "quick and dirty" GUI code by directly connecting event handlers to buttons and updating values etc in it, ignoring data bindings and other more advanced facilities.
I think colechristensen had a test for episodic memory. Such a test is not included in the Wechsler intelligence scales (currently WAIS-IV for adults, WISC-V for older children), but tests for working memory are. Simplified, working memory are that limited number of items you can keep in mind, until you are disturbed or thinks about something else. Episodic memory is what you still remember after your thoughts are disturbed, and what you may remember for 10 minutes or 50 years. Surprisingly, episodic memory is not closely related to IQ and is, thus, not included in intelligence tests. What colechristensen seems to describe is that his learning was hampered by an attention deficit, but he was able to retain the information in his episodic memory when he eventually registered it.
I always wondered how we feel being tired - whatever the underlying reason is. Where in the brain does it happen, what system does the perception of beeing tired - reporting it to consciousness? Also, it must exist to stop something harmful to happen to the brain or other parts of the body.
Something else: Abnormal fatigue happens after brain injuries but also in depression. In brain injury some basic mechanism - like transmitter metabolism my be damaged, and cause the fatigue, but may fatigue also protect the psyche in some way, or may it sometimes give "false readouts"?
I'm amazed how little we understand, but even more that nobody seem to ask the question about or investigate the question of the "tiredness-perception-brain-curcuit".
No, it's definitely in study and a lot of computational models of how these mechanisms may work were put forward.
Most definitely it has to do with "to stop something harmful to happen to the brain" but since the brain is such a huge interconnected mess, it's difficult to make a grand statement.
An analogy with weight-lifting (or long-distance running) is easier: when you are lifting weights sometimes you reach failure and you think you can go no further, but usually this is a message having to do with the body parts you are exercising just being to hot... some weight-lifters quickly cool down the palms of their hands (under the arms, under the feets, etc...) and can continue lifting.
Is very simple, you don't want to cook yourself, but the message that we consciously feel is akin to, "I can't go no more" when instead by lowering body temperature, you can come back.
So one factor, definitely, is temperature (you don't want your brain to get too hot) but also is the rate at which you can recreate new neuronal connections (when learning for example. And what are the constituents of these new neuronal pathways? Do you also delete?)
These are only two factors and there has to be a whole panoply of them (electrolytes, vitamins, glucose, dopamine, etc...)
