You are correct. Granted, 30 meters is enough distance that if the jounin is remotely within the range of ability for Mari to keep distracted, Noburi can take them out.
Unrelatedly... Could we, theoretically, combine skywaddlers with PMYF to make distance vertically?
I would like to humbly request that everyone run a mental simulation for me. How does the little Noburi who lives in your head respond when Hazou proposes this training plan?
I would like to humbly request that everyone run a mental simulation for me. How does the little Noburi who lives in your head respond when Hazou proposes this training plan?
Sympathy/pity because Hazou is being paranoid again? Except he goes along with it, because my mental model of Noburi has fewer issues than the reality.
I would like to humbly request that everyone run a mental simulation for me. How does the little Noburi who lives in your head respond when Hazou proposes this training plan?
"Noburi, wazzup? So, I was thinking... you're acing your support roles already, and you're the most flexible of all of us. I thought perhaps you want to hear of this idea I had that lets you be front-and-centre of taking people down, too. A real all-rounder, master of all trades. I have a feeling with a bit of practice and support from the team you might even be a match for Zabuza himself!"
I would like to humbly request that everyone run a mental simulation for me. How does the little Noburi who lives in your head respond when Hazou proposes this training plan?
When you're the main guy doing damage to Zabuza, you're front and centre in all but physical position. When did we last give a damn about what physics had to say?
When you're the main guy doing damage to Zabuza, you're front and centre in all but physical position. When did we last give a damn about what physics had to say?
Second pitch. So Noburi for my first list back I've came up with a plan to turn you into a kage level in combat, medicine, and diplomacy. Want to look it over?
[X] Training Noburi: Slightly More Likely To Succeed
Vampiric Dew 21 [21]
Vampiric Dew 22 [43]
Vampiric Dew 23 [66]
Vampiric Dew 24 [90]
Vampiric Dew 25 [115]
Chakra Control 11 [137]
Chakra Control 12 [161]
Chakra Control 13 [187]
Medical Ninjutsu 11 [198]
Medical Ninjutsu 12 [210]
Medical Ninjutsu 13 [223]
Medicine 11 [234]
Medicine 12 [246]
I quite like the idea of a "they had it all backwards" speech, where we talk about how stupid it was to put the Wakahisa in support when really it should have been everyone else supporting the Wakahisa. That sounds like it would snag him pretty well.
If anyone can help figure out what actually happens when you compress three million cubic meters of air into the size of a small notebook, it would be hugely appreciated.
STP air: 273.15 K, 10ᴇ5 Pa. Dinitial: 1.275ᴇ3 g/m3.
1.275ᴇ3 g/m3 x Vinitial: 1ᴇ6 m3 = Mfinal: 1.275ᴇ9 g.
nair: 4.15712ᴇ7 mol.
Dimensions of spiral pocket notebook: 3" x 5" x 0.25" = Vfinal: 6.145ᴇ-5 m3.
1.275ᴇ9 g / 6.145ᴇ-5 m3 = Dfinal: 1.666ᴇ10 g/m3.
Assuming spherical effect: Afinal: 7.531ᴇ-3 m2. Rfinal: 2.448ᴇ-2 m.
Boyel's Law: Pinitial x Vinitial / Vfinal = Pfinal.
Substituting: 10ᴇ5 Pa x 1ᴇ6 m3 / 6.145ᴇ-5 m3 = Pfinal: 1.627ᴇ16 Pa.
Ideal Gas Law: (Pfinal x Vfinal) / (nair x 8.3144621 J mol-1 K-1) = Tfinal.
Substituting: (1.627ᴇ16 Pa x 6.145ᴇ-5 m3) / (4.15712ᴇ7 mol x 8.3144621 J/molK) = Tfinal: 2.893ᴇ3 K.
The first thing that happens is it has a mass of 1.275 Gigagrams (about half the mass of a Saturn V rocket) and a density of 16.66 Gigagrams/m3 (a little above the density of the most diffuse of white dwarf stars) in a space the size of plum. Congratulations, you've created degenerate matter. The affected air is now a single molecule, despite the best wishes of its constituent atomic valences and electron bonds, which are crying themselves to sleep in the corner. But it gets worse. See, the pressure here is 16.27 PetaPascals (a bit over half that of the core of the sun), and it has a balmy temperature of 2893 Kelvin.
What happens in the next instants depends on what kind of container it's in. And how far away from it we are when it decides not to be. Edit: Hold up, that temperature looks low to me for something as dense as a white dwarf and as pressurized as the core of a star. I need to doublecheck my ideal gas law.
Guh. Gas law checks out. Checked it three times.
Extra edit: GAH I WAS SO NAIVE. MORE MATH LATER.
STP air: 273.15 K, 10ᴇ5 Pa. Dinitial: 1.275ᴇ3 g/m3.
1.275ᴇ3 g/m3 x Vinitial: 1ᴇ6 m3 = Mfinal: 1.275ᴇ9 g.
nair: 4.15712ᴇ7 mol.
Dimensions of spiral pocket notebook: 3" x 5" x 0.25" = Vfinal: 6.145ᴇ-5 m3.
1.275ᴇ9 g / 6.145ᴇ-5 m3 = Dfinal: 1.666ᴇ10 g/m3.
Assuming spherical effect: Afinal: 7.531ᴇ-3 m2. Rfinal: 2.448ᴇ-2 m.
Boyel's Law: Pinitial x Vinitial / Vfinal = Pfinal.
Substituting: 10ᴇ5 Pa x 1ᴇ6 m3 / 6.145ᴇ-5 m3 = Pfinal: 1.627ᴇ16 Pa.
Ideal Gas Law: (Pfinal x Vfinal) / (nair x 8.3144621 J mol-1 K-1) = Tfinal.
Substituting: (1.627ᴇ16 Pa x 6.145ᴇ-5 m3) / (4.15712ᴇ7 mol x 8.3144621 J/molK) = Tfinal: 2.893ᴇ3 K.
The first thing that happens is it has a mass of 1.275 Gigagrams (about half the mass of a Saturn V rocket) and a density of 16.66 Gigagrams/m3 (a little above the density of the most diffuse of white dwarf stars) in a space the size of plum. Congratulations, you've created degenerate matter. The affected air is now a single molecule, despite the best wishes of its constituent atomic valences and electron bonds, which are crying themselves to sleep in the corner. But it gets worse. See, the pressure here is 16.27 PetaPascals (a bit over half that of the core of the sun), and it has a balmy temperature of 2893 Kelvin.
What happens in the next instants depends on what kind of container it's in. And how far away from it we are when it decides not to be. Edit: Hold up, that temperature looks low to me for something as dense as a white dwarf and as pressurized as the core of a star. I need to doublecheck my ideal gas law.
Guh. Gas law checks out. Checked it three times.
A key assumption of the ideal gas law is that the particles don't interact with each other aside from through purely perfectly elastic collisions. That assumption is very false in this scenario, and so math involving it will return the wrong answer.
A key assumption of the ideal gas law is that the particles don't interact with each other aside from through purely perfectly elastic collisions. That assumption is very false in this scenario, and so math involving it will return the wrong answer.
While that is true, any deviations will be on the side of making things worse, not better. So consider this a conservative estimate.
That said, even by ideal gas law standards, you've made white dwarf matter. And that's bad. Adding in the other forces that would make it repel at this point will have the pressure rising a lot more, and though we won't get fusion we will have the anger of the world's largest and most explosive molecule backing it beyond what the mere heat and pressure of the air itself would produce.
When this thing pops, you'll get all kinds of nonsensical compounds of carbon, oxygen, helium compounds wtf, hydrogen nitrogen...
While that is true, any deviations will be on the side of making things worse, not better. So consider this a conservative estimate.
That said, even by ideal gas law standards, you've made white dwarf matter. And that's bad.
Indeed it does! Thank you. We can assume it would have the radiance spectra of the least dense white dwarves, and calculate its temperature from that.
We've also performed an "ideal" compression, meaning we didn't spend any energy into heat accelerating and decelerating the air particles into their new positions.
