Science already knows the magic of gravity

What makes you think that helium will behave any differently from hydrogen?
 
By your logic, if I take an apple and a potato to the top of a building and drop them, they should do different things...
No, you misunderstand, they will will both fall at the same rate, but if you attached the apple to a helium filled balloon, you can either make the apple rise or slow down the fall rate of the apple.

If a person had to jump out of a burning building and had an inflatable balloon that was inflated by helium, it could be critical balanced so they hit the floor without hardly any force.
 
The CO2 is denser, gravity has a better grip, the Co2 exchange rate to gravity is always greater than natural energy intake, The air has a greater energy intake than out take to gravity so also steals energy from the Co2,

It becomes simpler to visualise if you consider the Earths core as a plus output always, and all matter surrounding the core is a plus and negative at the same time, and the sun is a plus output.

All the plus and negative matter is attracted to the nearest plus by having a greater negative than a positive,
It is kind of fun to watch you make up such over the top silly stuff. You're a troll but at least you are a fairly humorus troll. I don't think you're as stupid as you pretend.
 
No, you misunderstand, they will will both fall at the same rate
Wrong.
You claimed that hydrogen and helium don't behave the same because (in your own words) "they are two different things with two different properties".
This also applies to apples and potatoes.
Therefore they WILL fall at different rates (by your "logic").

If a person had to jump out of a burning building and had an inflatable balloon that was inflated by helium, it could be critical balanced so they hit the floor without hardly any force.
1) It would depend ENTIRELY on what size the hydrogen balloon was.
2) "Critical balance" as you have been informed many times previously is a made up bullshit term with NO RELEVANCE to science.
 
No, you misunderstand, they will will both fall at the same rate, but if you attached the apple to a helium filled balloon, you can either make the apple rise or slow down the fall rate of the apple.

If a person had to jump out of a burning building and had an inflatable balloon that was inflated by helium, it could be critical balanced so they hit the floor without hardly any force.

If they had a balloon full of helium that could lift them, they would have a balloon roughly... well...

the buoyant force for one m³ of helium in air is: 1 m3 * (1.292 - 0.178) kg/m3 * 9.8 N/kg = 10.9 N

In a "standard" atmosphere, a one cubic foot helium filled balloon would weigh .0115 pounds, and would have a lift capacity (from its buoyancy compared to the air around it) of .0807 pounds. This gives it a total "lift capacity" of .069 pounds per cubic foot.

So, to have a total "lift capacity" of 100 pounds, which would also include the weight of whatever is containing it, you would need 100 / .069 = 1,449 cubic feet of helium... which equates to a balloon of roughly 15.5 feet in diameter... alternatively, using 1 foot diameter balloons (your average party balloon), which hold about half cubic foot of gas, you would need around 2750 of them.

The problem is, if you buy a balloon from a store, it is only about 93-97% helium... a small amount, for sure, but it has a fairly drastic effect on its overall buoyancy.
 
I don't think you're as stupid as you pretend.
After a year or so interacting with him, on here and the forum he was banned from, I disagree: he IS that stupid and B) he's not pretending.
 
Wrong.
You claimed that hydrogen and helium don't behove the same because (in your own words) "they are two different things with two different properties".
This also applies to apples and potatoes.
Therefore they WILL fall at different rates.


1) It would depend ENTIRELY on what size the hydrogen balloon was.
2) "Critical balance" as you have been informed many times previously is a made up bullshit term with NO RELEVANCE to science.
Science has new terms all the time.
You completely miss the point, if you had to hang onto a large helium balloon you would start to rise with the balloon, you can clearly feel gravity wants to pull you down, but you can also feel that the balloon is using force to lift you up, a force opposed to gravity.
 
Science has new terms all the time.
You completely miss the point, if you had to hang onto a large helium balloon you would start to rise with the balloon, you can clearly feel gravity wants to pull you down, but you can also feel that the balloon is using force to lift you up, a force opposed to gravity.

Again... no, no you wouldn't. You wouldn't feel anything lifting you up unless you had an enormous balloon...
If they had a balloon full of helium that could lift them, they would have a balloon roughly... well...

the buoyant force for one m³ of helium in air is: 1 m3 * (1.292 - 0.178) kg/m3 * 9.8 N/kg = 10.9 N

In a "standard" atmosphere, a one cubic foot helium filled balloon would weigh .0115 pounds, and would have a lift capacity (from its buoyancy compared to the air around it) of .0807 pounds. This gives it a total "lift capacity" of .069 pounds per cubic foot.

So, to have a total "lift capacity" of 100 pounds, which would also include the weight of whatever is containing it, you would need 100 / .069 = 1,449 cubic feet of helium... which equates to a balloon of roughly 15.5 feet in diameter... alternatively, using 1 foot diameter balloons (your average party balloon), which hold about half cubic foot of gas, you would need around 2750 of them.

The problem is, if you buy a balloon from a store, it is only about 93-97% helium... a small amount, for sure, but it has a fairly drastic effect on its overall buoyancy.

And yes, science comes up with new terms (or new combinations of terms) as needed... but "critical balance" is nonsensical bullshit...
 
Science has new terms all the time.
So what?
"Critical balance" isn't a scientific term.

You completely miss the point, if you had to hang onto a large helium balloon you would start to rise with the balloon
Like I said: it depends ENTIRELY on the size of the balloon.

a force opposed to gravity.
Only in a trivial sense.

So, any retraction on your bullshit about the action of Helium and Hydrogen having an opposite reaction to gravity?
Did you go back and read the example I gave?
 
If they had a balloon full of helium that could lift them, they would have a balloon roughly... well...

the buoyant force for one m³ of helium in air is: 1 m3 * (1.292 - 0.178) kg/m3 * 9.8 N/kg = 10.9 N

In a "standard" atmosphere, a one cubic foot helium filled balloon would weigh .0115 pounds, and would have a lift capacity (from its buoyancy compared to the air around it) of .0807 pounds. This gives it a total "lift capacity" of .069 pounds per cubic foot.

So, to have a total "lift capacity" of 100 pounds, which would also include the weight of whatever is containing it, you would need 100 / .069 = 1,449 cubic feet of helium... which equates to a balloon of roughly 15.5 feet in diameter... alternatively, using 1 foot diameter balloons (your average party balloon), which hold about half cubic foot of gas, you would need around 2750 of them.

The problem is, if you buy a balloon from a store, it is only about 93-97% helium... a small amount, for sure, but it has a fairly drastic effect on its overall buoyancy.
I do know it would be a rather large balloon, it was just hypothetically speaking. But thanks for the information.
 
Again... no, no you wouldn't. You wouldn't feel anything lifting you up unless you had an enormous balloon...


And yes, science comes up with new terms (or new combinations of terms) as needed... but "critical balance" is nonsensical bullshit...
Critical balancing is not nonsensical , any good carp angler will tell you this. It may be nonsensical in present terms, but it is a science of weight distribution and finding a critical balance.

One example.

 
That does not demonstrate anything resembling balance... nor being critical in any fashion.

What I see is something finding the right combination of buoyancy and drag... one could say a "balance" between buoyancy and drag... but that doesn't make "critical balance" a term that means anything.
 
That does not demonstrate anything resembling balance... nor being critical in any fashion.

What I see is something finding the right combination of buoyancy and drag... one could say a "balance" between buoyancy and drag... but that doesn't make "critical balance" a term that means anything.
I have not got a video of where we can critically balance a bait on the surface, or show you two different descent rates,
The idea is we have a sinker and add a floater to the sinker to balance the rate of falling, I can make a bait sink at almost no speed. I critically balance a suspender rig.
 

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The idea is we have a sinker and add a floater to the sinker to balance the rate of falling
Crap.
If it balanced "the rate of falling" then there'd be NO FALLING at all.

I can make a bait sink at almost no speed. I critically balance a suspender rig.
In other words it simply offsets some of the weight.
That STILL doesn't make it a scientific term, or of any use as a scientific term.
 
I have not got a video of where we can critically balance a bait on the surface, or show you two different descent rates,
The idea is we have a sinker and add a floater to the sinker to balance the rate of falling, I can make a bait sink at almost no speed. I critically balance a suspender rig.

Again, that is balancing buoyancy against mass... "critical balance" is not a term, at least not in what you are describing.

I did a little digging... apparently, we are wrong: Critical Balance IS a term:

http://arxiv.org/abs/0904.3488

It is proposed that critical balance - a scale-by-scale balance between the linear propagation and nonlinear interaction time scales - can be used as a universal scaling conjecture for determining the spectra of strong turbulence in anisotropic wave systems. Magnetohydrodynamic (MHD), rotating and stratified turbulence are considered under this assumption and, in particular, a novel and experimentally testable energy cascade scenario and a set of scalings of the spectra are proposed for low-Rossby-number rotating turbulence. It is argued that in neutral fluids, the critically balanced anisotropic cascade provides a natural path from strong anisotropy at large scales to isotropic Kolmogorov turbulence at very small scales. It is also argued that the kperp^{-2} spectra seen in recent numerical simulations of low-Rossby-number rotating turbulence may be analogous to the kperp^{-3/2} spectra of the numerical MHD turbulence in the sense that they could be explained by assuming that fluctuations are polarised (aligned) approximately as inertial waves (Alfven waves for MHD).
Comments:JFM-style tex, 16 pages, 1 figure; replaced with final published version (minor edits)
Subjects:Fluid Dynamics (physics.flu-dyn); Astrophysics of Galaxies (astro-ph.GA); Solar and Stellar Astrophysics (astro-ph.SR); Chaotic Dynamics (nlin.CD); Atmospheric and Oceanic Physics (physics.ao-ph); Space Physics (physics.space-ph)
Journal reference:J.Fluid Mech.677:134,2011
DOI:10.1017/S002211201100067X
Cite as:arXiv:0904.3488 [physics.flu-dyn]
(or arXiv:0904.3488v3 [physics.flu-dyn] for this version)

http://www.astro.princeton.edu/~kun...ng and stratified turbulence/Schekochihin.pdf

Critical Balance as a Universal Scaling Conjecture and its application to Rotating Turbulence Alexander Schekochihin (University of Oxford) w i t h Sergey Nazarenko (University of Warwick) [work done at Institut H. Poincaré, UPMC, Paris 2009] J. Fluid Mech. 677, 134 (2011)
 
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